Fvr e11 manual

INSTRUCTION MANUAL
Single-phase 200V input FVR-E11S-7EN
Three-phase 400V input FVR-E11S-4EN
Low noise high performance inverter
Caution
Thank you for purchasing our FVR-E11S series inverter.
• This product is designed to drive a three-phase induction motor. Read through this
instruction manual and be familiar with the handling method for correct use.
• Improper handling blocks correct operation or causes a short life or failure.
• Have this manual delivered to the final user of the product. Keep this manual in a
safe place until the inverter is discarded.
• For the usage of optional equipment, refer to the manuals for optional equipment.
Fuji Electric Co., Ltd. Draft(INR-SI47-0627a-E)

i
Introduction
Safety precautions
Read through this manual before starting installation, connection (wiring), operation, or maintenance
and inspection for correct use. Be familiar with the knowledge about the device, information about
safety, and all the precautions before starting operation.
The safety precautions are classified into the following categories in this manual.
！！！！ WARNING
Negligence of the description can cause dangers including deaths or
serious injuries.
！！！！ CAUTION
Negligence of the description can cause dangers including intermediate or
slight injuries or material losses.
Negligence of the description under the CAUTION title can cause serious results in certain
circumstances. These safety precautions are important and must be observed at any time.
Purposes
• FVR-E11S is designed to drive a three-phase induction motor. Do not use it for single-phase
motors or for other purposes.
Otherwise fire could occur.
• FVR-E11S may not be used for a life-support system or other purposes directly related to the
human safety.
• Though FVR-E11S is manufactured under strict quality control, install safety devices for
applications where serious accidents or material losses are foreseen in relation to the failure of it.
Otherwise an accident could occur.
Installation
• Install the inverter on a nonflammable material such as metal.
• Do not place flammable matter nearby.
• Do not hold the cover during transportation.
Otherwise the inverter may drop and cause injuries.
• Do not allow lint, paper, wood chips, dust, metallic chips or other foreign matter in the inverter or do
not allow them attached to the heat sink.
Otherwise fire or an accident could occur.
• Do not install or operate an inverter which is damaged or lacking parts.
Otherwise fire, an accident or injuries could occur.
Wiring
• When connecting the inverter to the power supply, add a circuit breaker for circuit protection and
earth leakage breaker in the path of power supply.
• Be sure to connect the grounding cable without fail.
Otherwise electric shock or fire could occur.
• Both screws of grounding terminals of FVR5.5/7.5E11S-4EN has to be tightened up securely even
if one grounding terminal is not used.
• Qualified electricians should carry out wiring.
Otherwise electric shock could occur.
• Perform wiring after checking that the power supply is turned off.
• Be sure to perform wiring after installing the main body of the inverter.
Otherwise electric shock or injuries could occur.

ii
• Check that the number of phases and the rated voltage of the product agree with the number of
phases and the voltage of the AC power supply.
• Do not connect the AC power cables to the output terminals (U, V, W).
• Do not connect a braking resistor directly to the DC terminals (P (+), N (-)).
• The inverter, motor and wiring generate electric noise. Take care of malfunction of the nearby
sensors and devices.
Operation
• Be sure to install the terminal cover before turning the power on. Do not remove the cover during
power application.
• Do not operate switches with wet hands.
• If the retry function has been selected, the inverter may automatically restart according to some
causes after tripping.
(Design the machine so that human safety is ensured after restarting.)
• If the torque limit function has been selected, the inverter may operate at an
acceleration/deceleration time or speed different from the set ones. Design the machine so that
safety is ensured even in such cases.
• The STOP key is only effective when function setting has been established to make the STOP key
enable. Prepare an emergency stop switch separately.
• If an alarm reset is made with the operation signal turned on, a sudden start will occur. Check that
the operation signal is turned off in advance.
• Do not touch the inverter terminals during power applies to the inverter even if the inverter stops.
• Do not turn the main circuit power on or off to start or stop inverter operation.
Otherwise failure could occur.
• Do not touch the heat sink and braking resistor because they become very hot.
Otherwise burns could occur.
• Setting the inverter to high speeds is easy. Check the performance of the motor and machines
before changing the setting.
Otherwise injuries could occur.
• The brake function of the inverter does not provide mechanical holding means.
Injuries could occur.

iii
Maintenance and inspection and parts replacement
• Turn the power off and wait for at least five minutes before starting inspection.
(Further, check that the charge lamp is unlit, and check the DC voltage across the P (+) and N (-)
terminals to be lower than 25Vdc.)
• Maintenance and inspection and parts replacement should be made only by qualified persons.
(Take off the watch, rings and other metallic matter before starting work.)
(Use insulated tools.)
Disposal
• Handle the inverter as an industrial waste when disposing of it.
Others
• Never remodel.
GENERAL PRECAUTIONS
Drawings in this manual may be illustrated without covers or safety shields for explanation of detail
parts. Restore the covers and shields in the original state and observe the description in the manual
before starting operation.

iv
Conformity to Low Voltage Directive in EU
[Available only for the products with CE or TÜV mark]
1. Safe separation for control interface of this inverter is provided when this inverter is installed
in overvoltage category II. PELV(Protective Extra Low Voltage) circuit or SELV(Safety Extra
Low Voltage) circuit from external controller is connected to the interface directly.
2. Basic insulation for control interface of this inverter is provided when this inverter is installed
in overvoltage category III. An insulation transformer has to be installed between power
supply mains and this inverter when SELV circuit from external controller is connected to this
inverter directly. Otherwise supplementary insulation between control interface of this inverter
and environment must be provided.
3. The ground terminal G should always be connected to the ground. Don't use only RCD as
the sole method of electric shock protection.
Dimensions of external PE conductor should be same as dimensions of input phase
conductor and capable for possible fault.
4. Use MCCB or MC that conforms to EN or IEC standard.
5. Where RCD (Residual-current-operated protective device) is used for protection in case of
direct or indirect contact, only RCD of type B is allowed on the supply side of this EE
(Electric equipment). Otherwise another protective measure shall be applied such as
separation of the EE from the environment by double or reinforced insulation or isolation of
EE and supply system by the transformer.
6. The inverter has to be installed in environment of pollution degree 2. If the environment is
pollution degree 3 or 4, the inverter has to be installed in a cabinet of IP54 or higher.
7. Use a prescribed wire according to the EN60204 Appendix C.
8. Install the inverter, AC or DC reactor, input or output filter in an enclosure that meets the
following requirement, to prevent a human body from touching directly to these equipment.
1) When a person can touch easily on each connecting terminal or live parts, install the
inverter, AC or DC reactor, output filter in an enclosure with minimum degree of
protection of IP4X.
2) When a person can not touch easily on each connecting terminal or live parts, install
the inverter, AC or DC reactor, output filter in an enclosure with a minimum degree of
protection of IP2X.
9. It is necessary to install the inverter in appropriate method using an appropriate RFI filter to
conform to the EMC directive. It is customer's responsibility to check whether the
equipment ,the inverter is installed in, conforms to EMC directive.
10. Do not connect copper wire to grounding terminal directly. Use cramp terminal with tin or
equivalent plating to reduce electrochemical potential.
11. Do not remove the keypad panel before disconnecting power and do not insert/remove the
extension cable for keypad panel remote operation while power is on. Confirm that the
extension cable is securely latched to keypad panel and inverter before power is on.
A supplementary isolation is required for the extension cable when the inverter is installed in
overvoltage category III.
12. Basic insulation for control interface of this inverter is provided when the inverter is used at
altitude over 2000m. The use at altitude over 3000m is not permitted.
13. The supply mains neutral has to be earthed for FVR-E11S-4EN.

v
Caution for UL/cUL requirement [Available only for the products with UL/cUL mark]
1. [WARNING] Take care of electric shock. Be sure to turn the inverter off before starting work.
2. [CAUTION] When the charge lamp is lit, the inverter is still charged at a dangerous voltage.
3. [WARNING] There are two or more live parts inside the inverter.
4. The inverter is approved as a part used inside a panel. Install it inside a panel.
5. Perform wiring to the input, output and control terminals of the inverter, referring to the table
below. Use UL certified round crimp terminal to the input and output terminals with insulation
cover or covered with reduced tube to obtain the insulation distance. Use a crimping tool
recommended by the terminal manufacturer when fabricating crimp terminals.
6. Install a fuse or circuit breaker between the power supply and the inverter, referring to the
table below.
1) Use copper wires of allowable maximum temperature 60 or 75 degree C.
2) Use UL certified AC600V "Class J fuse."
7. The inverters FVR0.1 to 2.2E11S-7 are suitable for use on a circuit capable or delivering not
more than 20,000 rms symmetrical amperes, 240V maximum.
8. The inverters FVR0.4 to 7.5E11S-4 are suitable for use on a circuit capable or delivering not
more than the following symmetrical amperes, 480V maximum.
When the fuse is installed : 20,000A
When the circuit breaker is installed : 5000A
9. FVR-E11S-EN is an open type inverter.
10. A class 2 circuit wired with class 1 wire.
Tightening torque
[N·m]
Applicable wire
diameter
[AWG] (mm
2
)
1)
Inverter type
L1/R,L2/S,
L3/T
L1/L, L2/N
P1,P(+)
DB,N(-)
U, V, W
Control
section
L1/R,L2/S,
L3/T
L1/L, L2/N
G
P1,P(+)
DB,N(-)
U, V, W
Control
section
Fuse
2)
[A]
Breaker[A]
FVR0.1E11S-7EN 6 5
FVR0.2E11S-7EN 6 5
FVR0.4E11S-7EN
1.2
10 10
FVR0.75E11S-7EN
14 (2.1)
15 15
FVR1.5E11S-7EN 12 (3.3) 30 30
FVR2.2E11S-7EN
1.8
0.4
10 (5.3)
20
(0.5)
40 40
FVR0.4E11S-4EN
FVR0.75E11S-4EN
6 5
FVR1.5E11S-4EN 10 10
FVR2.2E11S-4EN 15 15
FVR4.0E11S-4EN
1.8 14 (2.1)
20 20
FVR5.5E11S-4EN 12 (3.3) 30 30
FVR7.5E11S-4EN
3.5
0.4
10 (5.3)
20
(0.5)
40 40

Contents
1. Before Using the Inverter････････････････････････････････････････････････････ 1-1
1-1 Receiving Inspection ･･････････････ 1-1
1-2 Appearance of Product ････････････ 1-1
1-3 Handling the Product ･･････････････ 1-3
1-4 Transportation ････････････････････ 1-6
1-5 Storage･･････････････････････････ 1-6
2. Installation and Connection ････････････････････････････････････････ 2-1
2-1 Operating Environment ････････････ 2-1
2-2 Installation Method ････････････････ 2-1
2-3 Connection･･･････････････････････ 2-2
2-3-1 Basic Connection･･･････････････ 2-2
2-3-2 Connection of Main Circuit and
Grounding Terminal･････････････ 2-4
2-3-3 Connection of Control Terminal･･･ 2-6
2-3-4 Terminal Layout ････････････････ 2-9
2-3-5 Applicable Devices and
Cable Sizes for Main Circuit ･･････ 2-11
3. Operation････････････････････････････････････････････････････････････････････････････････････････････････････････････ 3-1
3-1 Inspection and Preparation
Before Operation･･････････････････ 3-1
3-2 Operation Method･････････････････ 3-1
3-3 Test Operation････････････････････ 3-1
4. Keypad Panel ････････････････････････････････････････････････････････････････････････････････････････････ 4-1
4-1 Appearance of Keypad Panel･･･････ 4-1
4-1-1 Upon an Alarm ･････････････････ 4-3
4-1-2 Digital Frequency Setting Method ･ 4-3
5. Selecting Functions ････････････････････････････････････････････････････････････････････ 5-1
5-1 Function Selection List･････････････ 5-1
5-2 Detail Description of Each Function ･ 5-11
Fundamental Functions (F Functions) ･･･ 5-11
Extension Terminal Functions (E Functions)
･･････････････････････････････ 5-21
Control Functions of Frequency
(C Functions) ････････････････････････ 5-26
Motor Parameters (P Functions) ････････ 5-29
High Performance Functions (H Functions) 5-31
Alternative Motor Parameters (A Functions)
･･････････････････････････････ 5-39
Optional Functions(O Functions)････････ 5-40
6. Protective Operation ････････････････････････････････････････････････････････････････････ 6-1
6-1 List of Protective Operations････････ 6-1
6-2 Alarm Reset･･････････････････････ 6-2
7. Troubleshooting････････････････････････････････････････････････････････････････････････････････････7-1
7-1 When Protective Function Goes
Active ･･･････････････････････････ 7-1
7-2 When Motor rotates Incorrectly ･･･････ 7-5
8. Maintenance and Inspection ････････････････････････････････････････8-1
8-1 Daily Inspection･･･････････････････ 8-1
8-2 Periodic Inspection ････････････････ 8-1
8-3 Measurement of Electrical Amounts
in Main Circuit ････････････････････ 8-4
8-4 Insulation Test ････････････････････ 8-5
8-5 Replacement Parts ････････････････ 8-5
8-6 Inquiries about Product and
Guarantee ･･･････････････････････ 8-5
9. Specifications ････････････････････････････････････････････････････････････････････････････････････････････9-1
9-1 Standard Specifications ････････････ 9-1
9-2 Common Specifications････････････ 9-3
9-3 External Dimensions ･･････････････ 9-7
9-4 RS485 Communication ････････････ 9-11
9-4-1 Connector and Communication
Cable ･･････････････････････････9-12
9-4-2 Recommended RS-232C/RS485
Converter ･･････････････････････9-12
9-4-3 Remove/local changeover ････････9-12
9-4-4 Communication Protocol ･････････9-13
9-4-5 Standard Frame･････････････････9-15
9-4-6 Short Frame ････････････････････9-16
9-4-7 Details of Frame ････････････････9-17
9-4-8 Broadcasting ･･･････････････････9-18
9-4-9 Communication Error Code ･･･････9-19
9-4-10Data Type ･･････････････････････9-19
9-4-11Function Code List･･･････････････9-20
9-4-12Data Format ････････････････････9-24
10. Options ････････････････････････････････････････････････････････････････････････････････････････････････････････････････10-1
10-1 External Options ･････････････････ 10-1
11. Applicable Reactor ････････････････････････････････････････････････････････････････････11-1
12. Electromagnetic compatibility････････････････････････････12-1
12-1General･･････････････････････････ 12-1
12-2 Recommended Installation Instructions
･････････････････････････････････ 12-1

1-1
1. Before Using the Inverter
1-1 Receiving Inspection
Unpack and check the following items.
If you have any problems with the product, contact the dealer or the nearest branch of Fuji Electric Co.,
Ltd.
(1) Check the ratings nameplate to confirm that the delivered product is the ordered one.
TYPE: Type of inverter
FVR 0.4 E11S -7 EN
Version
Power voltage system:
7: Single-phase 200V class
4: Three-phase 400V class
Series name: E11S
Nominal applicable motor capacity: 0.4: 0.4 kW
Product type
SOURCE: Number of input phases, input voltage, input frequency, input current
OUTPUT: Number of output phases, rated output capacity, rated output voltage, output
frequency range, rated output current, overload current rating
SER. NO.: Product number
0 1 0113R0001
Serial number of production lot
Production month: 1 to 9: January to September; X,
Y, or Z: October, November, or December
Production year: Last digit of year
(2) Check for breakage, missing parts, and dents or other damage on the cover and the main body
given during transportation.
(3) Instruction manual for inverter body is built-in.
1-2 External view of Product
(1-1) Overall view (4.0kW or below)
Keypad panel
Control terminal block cover
Intermediate cover
Ratings nameplate
Main circuit terminal block cover
Keypad panel mounting screw
FVR0.4E11S-7EN
1PH 200-240V 50/60Hz 6.4A
3PH 0.4kW 200-230V 0.2-400Hz 3.0A
150% 1min
010113R0001 T

1-2
(1-2) Overall view (5.5,7.5kW)
(2-1) View of wiring part(4.0kW or below)
A barrier is provided in the main circuit terminal block cover for the P1, P (+), DB and N (-) cable port.
Cut the barrier using nippers or the like before wiring.
Keypad panel
Control cable port
Terminal block cover
P1, P (+), DB, N
(-) cable port
Intermediate cover
L1/R, L2/S, L3/T
(L1/L, L2/N), U, V, W
cable port
Ratings nameplate
Grounding cable port
Keypad panel mounting screw

1-3
(2-2) View of wiring part(5.5,7.5kW)
A barrier is provided in the cable cover for the P1, P (+), DB and N (-) cable port. Cut the barrier
using nippers or the like before wiring.
1-3 Handling the Product
(1) Removing the control terminal block cover(4.0kW or below)
While lightly pushing the sides of the control terminal block cover at the catches, lift the cover in the
procedure shown in Fig. 1-3-1 to remove it.
Fig. 1-3-1 Removing the control terminal block cover
Control cable port
P1, P (+), DB, N (-) cable port
L1/R, L2/S, L3/T cable port
Grounding cable port
U, V, W cable port
Cable cover
Terminal block cover

1-4
(2) Removing the main circuit terminal block cover(4.0kW or below)
While lightly pushing the sides of the main circuit terminal block cover at the catches, slide toward
you in the procedure shown in Fig. 1-3-2 to remove it.
Fig. 1-3-2 Removing the main circuit terminal block cover
(3) Removing the terminal block cover(5.5,7.5kW )
Loose the screws indicated below and while lightly pushing the sides of the terminal block cover at
the catches, lift the cover in the procedure shown in Fig. 1-3-3 to remove it.
①①①① ①①①①
②②②② ②②②②
③③③③
Fig. 1-3-3 Removing the terminal block cover
screws

1-5
(4) Removing the keypad panel
Loosen the keypad panel mounting screws and remove the keypad panel in the procedure shown in
Fig. 1-3-4. During the procedure, slowly remove the keypad panel right toward the top. If the keypad
panel is handled abruptly, the connector will be broken.
Mounting screw (M3)
Fig. 1-3-4 Removing the keypad panel
Reverse the procedures to mount the terminal block cover and keypad panel.

1-6
1-4 Transportation
Always hold the main unit when carrying the inverter.
If covers or parts are held, the inverter may be broken or it may drop.
1-5 Storage
Store the inverter in an environment described in Table 1-5-1.
Table 1-5-1 Storage environment
Item Specifications
Ambient temperature -10～+50 degree C
Storage temperature (Note 1)
-25～+65 degree C
Relative humidity 5～95%Note 2
Places not subjected to abrupt temperature changes
or condensation or freezing
Atmosphere
The product must not be exposed to dust, direct sunlight, corrosive or
flammable gases, oil mist, vapor, water drops or vibration. There must be
little salt in the atmosphere.
86～106kPa (During storage)
Atmospheric pressure
70～106kPa (During transportation)
Note 1: The storage temperature is for a short time during transportation or the like.
Note 2: Even if the humidity is within the requirements of the specifications, places with abrupt
temperature changes are subject to condensation or freezing. Avoid storing the inverter in
such places.
(1) Do not place the inverter directly on the floor.
(2) If the ambient atmosphere is adverse, wrap the inverter in a vinyl sheet or the like when storing.
(3) If humidity may give an ill effect, add a drying agent (such as silica gel) in the package prepared
as described in item (2).
The long-term storage method of the inverter varies largely according to the environment of the
storage site. General storage methods are described below.
(1) The storage site must satisfy the requirements of specifications for temporary storage.
However, for storage exceeding three months, the upper limit of the ambient temperature shall
not exceed 30 °C. This is for the prevention of deterioration of electrolytic capacitors left turned
off.
(2) The package must be air tight so that moisture will not enter. Add a drying agent inside the
package to contain the relative humidity inside the package within 70%.
(3) The inverter installed on a unit or control panel and left is likely to be exposed to moisture and
dust. If this is the case, remove the inverter and move it to a preferable environment.
(4) Electrolytic capacitors left turned off for an extended period of time deteriorate. Do not store for
one year or more without turning the power on.
To store temporarily
To store for a long time

2-1
2. Installation and Connection
2-1 Operating Environment
Install the inverter in an environment described in Table 2-1-1.
Table 2-1-1 Operating environment
Item Specifications
Site Indoors
Ambient temperature -10 to +50 degree C
Relative humidity 5 to 95% (without condensation)
Atmosphere The inverter must not be exposed to dust,
direct sunlight, corrosive gases, oil mist,
vapor or water drops.
There must be little salt.
No condensation occurs due to abrupt
temperature changes.
Altitude 1,000 m max. (Refer to Table 2-1-2 for
altitudes exceeding 1000 m.)
Atmospheric pressure
86 to 106 kPa
3mm 2 to 9 Hz
9.8m/s
2
9 to 20 Hz
2m/s
2
20 to 55 Hz
Vibration
1m/s
2
55 to 200 Hz
2-2 Installation Method
(1) Tightly mount the inverter in the upright position on a
rigid structure so that the "FVR-E11" characters face
front. Avoid mounting the inverter upside down or
avoid mounting horizontally.
(2) Allow clearances for cooling wind shown in Fig. 2-2-1
to cool down the inverter which generates heat
during operation. The generated heat is radiated
upward. Do not install the inverter below a heat
sensitive device.
(3) The temperature of the heat sink rises to about 90
degrees C during operation of the inverter. Mount the
inverter on a base made of a material withstanding
the temperature rise.
Install the inverter on a nonflammable material such as
metal.
(4) When installing the inverter inside a control panel or the like, take full consideration for
ventilation so that the ambient temperature of the inverter does not exceed the specification
requirements. Do not install the inverter in a poorly ventilated small enclosure.
(5) When storing multiple inverters inside a single unit or inside a control panel, horizontal
installation is recommended to reduce mutual temperature effects. When an vertical layout is
adopted for an unavoidable reason, install a partition plate or the like between inverters to isolate
the heat of the lower inverter.
！！！！
CAUTION
Do not allow lint, paper, wood chips, dust, metallic chips or other foreign matter in
the inverter or do not allow them attached to the heat sink.
Fig. 2-2-1
Table 2-1-2 Output attenuation ratio
in relation to altitude
Altitude
Output current
attenuation ratio
1000 m or
less
1.00
1000-1500m 0.97
1500-2000m 0.95
2000-2500m 0.91
2500-3000m 0.88
Above
Main body
FVR-E11S10mm
100mm
Below
Left
10mm
100mm
Right

2-2
2-3 Connection
Remove the control terminal block cover to connect the control terminal block. Remove the main
circuit terminal block cover to connect the main circuit terminal block. Correctly connect cables
taking care of the following precautions.
2-3-1 Basic Connection
(1) Be sure to connect the power cables to main circuit power terminals L1/R, L2/S and L3/T or
L1/L,L2/N of the inverter. If the power cables are connected to other terminals, the inverter will
be broken. As well, check the source voltage for the allowable voltage range specified on the
nameplate and so on.
(2) Connect the grounding terminal without fail according to national or local electric code to prevent
electric shock, fire or other disasters and to reduce electric noise.
(3) Use reliable crimp terminals for connection of cables to the terminals.
(4) After finishing wiring, check the following.
a. Check if the cables are connected correctly.
b. Check if there is no failure of connection.
c. Check if terminals or cables are short circuited or there is a ground fault.
(5) To change connection of an inverter having been turned on
The smoothing capacitor in the direct current part of the main circuit takes time to be discharged
after it is turned off. To avoid danger, check the DC voltage (across main circuit terminals P (+)
and N (-)) for a safety voltage (25 Vdc or lower) using a multi-meter, after the charge lamp is unlit.
Wait until the residual voltage is discharged before shorting a circuit, to avoid being hit by sparks
caused by the voltage (electric charge).
• Be sure to connect the grounding cable without fail.
• Qualified electricians should carry out wiring.
• Perform wiring after checking that the power supply is turned off.

2-3
■■■■ Basic connection diagram
U
L2/N
L1/L
Power supply (*1)
Single-phase
200 to 240 V
50/60 Hz
Molded case
circuit breaker
(MCCB) or earth
leakage circuit
breaker (ELCB)
Power supply (*1)
Three-phase
380 to 480 V
50/60 Hz
G
EFL-E11-7
FWD
REV
X1
X2
X3
X4
X5
CM
13
12
11
C1
FM
V
W
P1 P(+) DB N(-)
M
<Y1E>
<Y2E>
<CMC>
G
Motor
Grounding
terminal
SR
10Vdc
(-)
(+)
22～27Vdc
Pulse output
Control circuit part
Analog frequency meter
0 to 50Hz
FM(*2)
Current input
for setting
4 to 20mAdc
A voltage signal (0 to +10 Vdc
or 0 to +5 Vdc) can be supplied
to terminals [12] and [11]
instead of a potentiometer.
Potentiometer (*2)
DC reactor
DCR (*2)
External braking resistor (*2)
(*4)
P DB
2
1
Transistoroutput
Digitalinput(*2)
Analog
input
Alarmrelayoutput
30
30A
30B
30C
3
2
1
Grounding
terminal
(P24)
(THR)
(*3)
Digital
frequency meter
(pulse counter)
(*2)
50Hz
22kohm
FM
Analog output
250ohm
To change the FM terminal to
pulse outputs, change SW1 on
the control board and change
F29.
(P24) (THR)
(When X5 assigned to THR)
3
P24
L1/R
L3/T
L2/S
L
N
L'
N'
EFL-E11-4
G
L1'
L2'
L3'
0V
L1
L2
L3
(*3)
Electric cabinet
Armoured
or
screened
cable
EMC compliance filter (*2)
EMC compliance filter (*2)
CM
FVR-E11S-EN
CM
CM
SW1
*1) Supply a source voltage
suitable for the rated
voltage of the inverter.
*2) Optional part. Use when
necessary.
*3) Peripheral equipment.
Use when necessary.
*4) To connect a DC reactor
(DCR) for power factor
correcting, remove the
jumper between the P1
and P (+) terminals.

2-4
2-3-2 Connection of Main Circuit and Grounding Terminal
Table2-3-1 Connection of Main Circuit and Grounding Terminal
Symbol Name of terminal Description
L1/R,L2/S,L3/T
Main circuit power
input
Connects a 3-phase power supply.
L1/L,L2/N
Main circuit power
input
Connects a 1-phase power supply.
U,V,W Inverter output Connects a 3-phase induction motor.
P1,P(+) For DC reactor Connects an optional DC reactor.
P(+),DB For external braking
resistor
Connects an optional external braking resistor.
P(+),N(-) DC link circuit terminal Connected to DC link circuit.
G
grounding Grounding terminal of the inverter chassis (housing).
Connect to the protective ground.
(1) Main circuit power input terminal (L1/R, L2/S, L3/T,L1/L,L2/N)
a. Connect the main circuit power input terminals to the power supply through a circuit breaker
for circuit (wiring) protection or an earth leakage breaker. There is not need to match the
phase sequence.
b. It is recommended to connect a magnetic contactor to disconnect the inverter from the power
supply to prevent a failure or accident from becoming serious upon activation of the
protective function of the inverter.
c. Do not turn the main circuit power supply on or off to start or stop the inverter. Instead, use
control circuit terminals FWD and REV or the RUN and STOP keys on the keypad panel. If it
is unavoidable to turn the main circuit power supply on or off to start or stop the inverter, limit
the frequency to once an hour or fewer.
d. Do not connect to a single-phase power supply for 3-phase input inverter.
(2) Inverter output terminals (U, V, W)
a. Connect these terminals to a 3-phase motor with the correct phase sequence. If the direction
of rotation does not match the operation direction, change arbitrary two cables among the U,
V and W phases.
b. Do not connect a phase advance capacitor or surge absorber to the inverter output.
c. If the wiring length between the inverter and the motor is extremely long, the stray capacity
between cables causes a high frequency current, possibly tripping the inverter due to an
overcurrent, increasing the leakage current, or deteriorating the current detection accuracy to
cause deterioration of the performance or other phenomena. To prevent such trouble, limit
the wiring length of the motor to 50 m for 4.0 kW or a smaller output or to 100 m for a larger
output.
Note: When a thermal relay is installed in the path between the inverter and the motor, or especially
in the case of a 400V system, the thermal relay may malfunction even with a wiring length
shorter than 50 m. In such a case, add an OFL filter or lower the Motor sound adjustment
(carrier frequency) of the inverter. ... Function code F26 Motor sound adjustment.

2-5
(3) DC reactor connecting terminals (P1, P (+))
a. Use this terminal to connect a DC reactor (option).
Remove the jumper connected in the factory before
connecting the DC reactor.
b. Do not remove the jumper if no DC reactor is used.
Cut the barrier in the main circuit terminal block cover
for the P1, P (+), DB and N (-) cable port using nippers
or the like when connecting wiring.
(4) External braking resistor connecting terminals (P (+), DB)
E11S is not equipped with a braking resistor. An external
braking resistor (option) is necessary for frequent
operation or heavy duty inertia load operation to
enhance the braking performance.
a. Connect the P (+) and DB terminals of the
external braking resistor to the P (+) and DB
terminals of the inverter.
b. Arrange devices so that the wiring length is within
5 m and twist or closely (in parallel) place the two
cables.
(5) Inverter grounding terminal ( G )
Ground the grounding terminal G for safety and noise reduction without fail. The metallic frame
of electrical equipment must be grounded in accordance with national or local electric code to
avoid electric shock, fire and other disasters.
！！！！
CAUTION
• Check that the number of phases and the rated voltage of the product agrees with
the number of phases and the voltage of the AC power supply.
• Do not connect the AC power cables to the output terminals (U, V, W).
• Do not connect a braking resistor directly to the DC terminals (P (+), N (-)).
P1 P(+) DB N(-)
DC reactor
DCR
External braking resistor DB
P DB
2
1
(P24)
(THR)
Fig. 2-3-2 Connection diagram
Fig. 2-3-1 DCR connection diagram

2-6
2-3-3 Connection of Control Terminal
Table 2-3-2 shows the functions of the control circuit terminals. The method of connecting control
function terminals varies according to the function setting. Refer to the connection method for the
function.
Table 2-3-2 Functions of control circuit terminals
Classifica-
tion
Terminal
symbol
Terminal name Description of function
13 Potentiometer power
supply
+10 Vdc power supply for frequency setting POT.
(POT: 1 to 5 kohm).
12 Voltage input (1) The frequency is set according to the external analog
input voltage command.
• 0 to +10 Vdc / 0 to 100%
• Reversible operation using +/- signal: 0 to +/-10 Vdc / 0
to 100%
• Inverse mode operation: +10 to 0 Vdc / 0 to 100%
(2) The PID control feedback signal is input.
* Input resistance: 22 kohm
C1 Current input (1) The frequency is set according to the analog input
current command.
• 4 to 20 mAdc / 0 to 100%
• Inverse mode operation: 20 to 4 mAdc / 0 to 100%
(2) The PID control feedback signal is input.
* Input resistance 250 ohm
Analog
input
11 Common Common for analog signals
FWD Forward operation
command
Forward operation with FWD-P24 ON and deceleration
and stop with FWD-P24 OFF.
REV Reverse operation
command
Reverse operation with REV-P24 ON and
deceleration-stop with REV-P24 OFF.
X1 Digital input 1
X2 Digital input 2
X3 Digital input 3
X4 Digital input 4
X5 Digital input 5
A coast-to-stop command from an external device,
external alarm, alarm reset, multi-step frequency selection
and other functions can be assigned to the X1 through X5
terminals. Refer to the terminal function E01 to 05 setting
method in section 5-2 Detail Description of Each
Function.
<Digital input circuit specification>
P24 Control unit
power supply
+24V DC power supply for control input.
Maximum output current : 50mA
Digital
input
CM Common Common for digital input
FWD,REV,
X1 to X5
CM
4.7kohm
P24
+24
V
Item min. typ. Max.
Level OFF 0V - 2VOperation
voltage Level ON 22V 24V 27V
Operation current at ON - 4.2mA 6mA
Allowable leakage current at
OFF
- - 0.5mA

2-7
Classifica-
tion
Terminal
symbol
Terminal name Description of function
Analog monitor The monitor signal for analog DC voltage (0 to +10 Vdc) is
output. The signal description can be selected from the
following.
• Output frequency1 (before slip compensation)
• Output frequency2 (after slip compensation)
• Output current • Output voltage
• Output torque • Load factor
• Input power • PID feedback value
• DC link circuit voltage
* Allowable connection impedance: min. 5 k ohm
Analog
output /
pulse
output
FM (11:
Common
terminal)
Pulse rate monitor The monitor signal is output according to the pulse voltage.
The signal description is the same as the FMA signal.
* Allowable connection impedance: min. 5 k ohm
Use SW1 on the control board and function code F29 to
change between the analog monitor and Pulse rate monitor.
(FMA: analog monitor, FMP: Pulse rate monitor)
Y1E Transistor output 1
Y2E Transistor output 2
The RUN signal, frequency equivalence signal, overload
early warning signal and other signals are output to arbitrary
ports at a transistor output. Refer to terminal function E20 to
21 setting methods in section 5-2 Detail Description of Each
Function.
<Transistor output circuit specification>
CMC Common
(Transistor output)
Common for transistor output signal. Isolated from terminals
CM and 11.
Transistor
output
P24
(CM:
common
terminal)
DC voltage supply Power supply for transistor output load. (24 Vdc 50 mAdc
Max.) (When using P24, short the CMC and P24 terminals.) (If
the P24 terminal is overloaded or connected with the CM
terminal, the inverter trips with Er3 indication. To reset,
remove external causes and, after several minutes, turn the
inverter on again.)
Relay
output
30A,30
B,30C
Alarm relay output When the inverter is stopped with an alarm, a relay contact
output (1C) is issued.
Contact capacity: 48 Vdc 0.5 A
(When complying with UL/cUL:42Vdc 0.5A)
Selection between excitation upon an alarm or excitation
during normal operation is allowed.
Item min. typ. max.
ON level - 1V 2VOperation
voltage *1 OFF level - 24V 27V
Maximum load current at ON - - 50mA
Leakage current at OFF - - 0.1mA
Current
Operation
Voltage

2-8
(1) Analog input terminals (13, 12, C1, 11)
a. Because weak analog signals are handled, these signals are especially susceptible to the
external noise effects. Route the wiring as short as possible (within 20 m) and use shielded
cables. In principle, ground the shield of the shielded cable; if effects of external inductive
noises are considerable, connection to terminal 11 may be effective.
b. Use twin contacts relay for weak signals if relay is used in the circuit. Do not add a contact to
terminal 11.
c. When the inverter is connected with an external device outputting the analog signal, a
malfunction may be caused by electric noise generated by the inverter according to some
type of the circuit of the device. If this happens, connect a ferrite core or capacitor to the
device outputting the analog signal.
(2) Digital input terminals (FWD, REV, X1 through X5, P24)
a. Generally the digital input terminals (FWD, REV, X1-5) are turned on or off in relation to the
P24 terminal.
b. To use contact input, use a reliable contact free from poor contact.
Example: Control relay made by Fuji Electric: HH54PW
(3) Transistor output terminals (Y1E-Y2E, CMC)
a. Circuit configuration shown in Table 2-3-2 for transistor output is adopted. Take care of the
polarity of the external power supply.
b. To connect a control relay, connect a surge absorbing diode across the coil of the relay.
(4) Others
a. Route the wiring of the control terminals as far from the wiring of the main circuit as
possible. Otherwise electric noise may cause malfunctions.
b. Fix the control cables inside the inverter to keep them away from the live parts of the main
circuit (such as the terminal block of the main circuit).
If the control cables touch the live part of the main circuit, the insulation sheath of the
control cable, insulation of which is not reinforced, may be broken to cause a high
voltage of the main circuit to be fed to the control signal. This is banned in the low
voltage directive models for Europe.
Electric shock could occur.
！！！！
CAUTION
Electric noise may be generated by the inverter, motor or wiring. Take care of
malfunctions of the nearby sensors and devices.
An accident could occur.

2-9
2-3-4 Terminal Layout
(1) Main circuit terminal block
Inverter type Main circuit terminal drawing
FVR0.1E11S-7EN
FVR0.2E11S-7EN
FVR0.4E11S-7EN
Screw size : M3.5
Tightening torque : 1.2N⋅⋅⋅⋅m
FVR0.75E11S-7EN
Screw size : M4
FVR0.4E11S-4EN
FVR0.75E11S-4EN
FVR1.5E11S-4EN
FVR2.2E11S-4EN Screw size : M4
FVR1.5E11S-7EN
FVR2.2E11S-7EN
Screw size : M4
FVR4.0E11S-4EN
Screw size : M4
G
DB P1 P(+) N(-)
WVUL3/TL2/SL1/R
G
GG
DB P1 P(+) N(-)
WVUL2/NL1/L
GG
DB P1 P(+) N(-) WVUL2/NL1/L
G
DB P1 P(+) N(-)
WVUL2/NL1/L
G
GG
DB P1 P(+) N(-) WVUL3/TL2/SL1/R

2-10
(1) Main circuit terminal block(Continued)
Inverter type Main circuit terminal drawing
FVR5.5E11S-4EN
FVR7.5E11S-4EN
Screw size : M5
(2) Control terminal block
Screw size: M2.5
Tightening torque: 0.4N⋅⋅⋅⋅m
30A 30B Y1E C1 FM X1 X2 X3 X4 X5 CM
30C Y2E CMC 11 12 13 CM FWD REV CM P24
GG
DB P1 P(+) N(-) WVUL3/TL2/SL1/R

2-11
2-3-5 Applicable Devices and Cable Sizes for Main Circuit
Table 2-3-4 Selection of peripheral devices
Recommended wire size [mm2
]Molded case circuit
breaker (MCCB) or
earth leakage
circuit breaker
(ELCB) *1
Rated current [A]
Input circuit
*2
[L1/R,L2/S,L3/T]
[L1/L, L2/N]
G
Inverter type
Nominal
applied
motor
[kW]
With
DCR
Without
reactor*
3
With
DCR
Without
reactor
*3
Output
circuit
*2
[U, V, W]
DCR
*2
circuit
[P1]
[P(+)]
DB
Control
wiring
FVR0. 1E11S-7EN 0.1
FVR0. 2E11S-7EN 0.2
6
FVR0. 4E11S-7EN 0.4
6
10
FVR0. 75E11S-7EN 0.75 10 16
2.5
FVR1. 5E11S-7EN 1.5 16 25
2.5
4
2.5
FVR2. 2E11S-7EN 2.2 25 32 4 6
2.5
2.5
(DB)
4
(Others)
0.5
FVR0. 4E11S-4EN 0.4
FVR0. 75E11S-4EN 0.75
6
FVR1. 5E11S-4EN 1.5
6
10
FVR2. 2E11S-4EN 2.2
FVR4. 0E11S-4EN 4.0
10 16
2.5
FVR5. 5E11S-4EN 5.5 16 25 4
FVR7. 5E11S-4EN 7.5 20 32
2.5
6
2.5 2.5 0.5
*1 The applicable frame and series of the model of the molded case circuit breaker (MCCB) and
earth leakage breaker (ELCB) vary according to the capacity of the transformer of the equipment.
For details of selection, refer to the concerning technical documents.
*2 The recommended cable size for the main circuit is the case for the use of the PVC cable at
ambient temperature 40 degree C specified in Appendix C of EN 60204
*3 The power supply impedance without a reactor is considered to be the equivalent of 0.1% of the
inverter capacity, with 10% current unbalance accompanied by the voltage unbalance.
*4 Up to crimp terminal (JIS C2805) RAV2-3.5 with max. 7.4 mm width (including tolerance) can be
used.
*5 Up to crimp terminal (JIS C2805) RAV5.5-4 with max. 9.8 mm width (including tolerance) can be
used.
*6 Use crimp terminals with an insulating cover.

3-1
3. Operation
3-1 Inspection and Preparation Before Operation
Check the following before starting operation.
(1) Check if connection is correct.
Especially check if the power cables are connected to
inverter output terminals U, V and W and that the
grounding cable is grounded without fail.
(2) Check for short circuits between terminals and exposed
live parts and ground faults.
(3) Check for loose terminals, connectors and screws.
(4) Check if the motor is separated from mechanical equipment.
(5) Turn the switches off so that the inverter does not start or operate erroneously at power-on.
(6) After the power is turned on, check the following.
a. Check if the keypad panel shows an alarm.
b. Check if the fan built in the inverter rotates. (1.5 kW or above)
• Be sure to install the terminal cover before turning the power on.
Do not remove the cover during power application.
• Do not operate switches with wet hands.
3-2 Operation Method
There are various operation methods. Refer to chapter 4 "Keypad Panel" and chapter 5 "Selecting
Functions" to select the method most suitable for the purpose and operation specification. Table
3-2-1 shows general operation methods.
3-3 Test Operation
After checking for errors in section 3-1, perform a
test operation.
In the factory shipment state, the inverter is in the
keypad panel operation mode.
(1) Turn the power on and check that the LED
blinks while indicating the 0.00 Hz frequency.
(2) Using the key, set the frequency to a
low frequency such as 5 Hz.
(3) To turn forward: F02 = 2
To reverse: F02 = 3
After setting the above, press the RUN key to
start operation. To stop, press the STOP key.
(4) Check the following points.
a. Check if the direction of rotation is correct.
b. Check for smooth rotation without motor humming or excessive vibration.
c. Check for smooth acceleration and deceleration.
(5) Referring to function code P04 Motor 1 (auto tuning), tune the motor constant.
When no abnormality is found, raise the operation frequency to check.
After checking for correct operation during the above test operation, start normal operation.
Caution 1: If any abnormality is found to the inverter or motor, immediately stop operation and
determine the cause referring to chapter 7 Troubleshooting.
Caution 2: If voltage is applied to the L1/R, L2/S and L3/T or L1/L and L2/N main circuit power
supply terminals even after the inverter stops, the inverter output terminals U, V and W
are live and you will be hit by electric shock when touching the terminals. As well, the
smoothing capacity is not discharged immediately after the power is turned off and it
takes time for the capacitor to be discharged.
To touch the electric circuit after turning the power off, check that the charge lamp is unlit
and check for safe voltage using a multimeter.
Operation
method
Frequency
setting
Operation
command
Operation
using keypad
panel
Keypad
panel keys
，
Keypad panel
keys
RUN
，
STOP
，
Operation
using external
signal terminal
Potentiometer
or analog
voltage,
current or
multistep
speed
operation
Contact input
(switch),
terminals
FWD-P24,
terminals
REV-P24
Table 3-2-1 General operation methods
Fig. 3-1-1
Inverter connection diagram
Motor
Power
supply
Inverter
GL1/RL2/SL3/TU V W G
(L1/L) (L2/N)

4-1
☆Up/down keys
Press these keys to increase
or decrease the frequency or
speed.
In the programming mode, use
these keys to change the
function code or data setting.
4. Keypad Panel
The keypad panel is provided with various functions such as operation (frequency setting and
start/stop commands) from the keypad panel, monitor and alteration of function code data, and
various confirmation functions.
Be familiar with the operation method of each function before starting operation.
4-1 Appearance of Keypad Panel
(1) Monitor switching method
In the regular operation mode, press the key to switch between frequency display, output
current display and other display.
Output frequency*1 Output current *2
6 0. 0 0 1. 2 0 1 0 0 0
Output voltage *2 Synchronization
rotation speed *2
Line speed*2
2 0 0
1 0 0 0
*1: In the PID control mode (when function H20 is at "1" or "2"), the value is in the percent display
and the dot at the least significant digit always lights up.
☆ Digital display
Various function codes and data codes
for programming are shown.
The output frequency, output current
and other data are displayed during
operation, and the cause of a trouble
is displayed using codes when
protective function works.
☆Program (PRG)/RESET key
Press this key to switch over between the regular operation
mode and programming mode. Use this key to reset an
alarm stopping state after activation of a protective function.
☆Function/Data key
Use this key to switch over between frequency
display, output current display and other display
in the regular operation mode. In the
programming mode, use this key to retrieve or
write various function codes and various
function data.
☆STOP key
Press this key to stop operation. When
data code F 0 2 =
1 , this key does not function.
☆RUN key
Press this key to start operation. An
LED lights up during operation. When
data code F 0 2 =
1 , the key does not function.
☆ Unit and operation mode display
The unit of the data displayed at the digital display
is indicated with an LED. The program mode is
indicated. The PANEL CONTROL lamp lights up in
the keypad panel operation mode.

4-2
Example: 10%: 1 0. 0. ., 100%: 1 0 0. 0.
*2: Press the , key during display of these data to display the frequency setting.

4-3
(2) Stopping operation
When F 0 2 is other than 1 press RUN to start operation or press STOP to
stop operation. The direction of rotation is as shown below.
F 0 2 ＝ 0 ：Forward rotation with FWD-CM ON, reverse rotation with REV-
CM ON
F 0 2 ＝ 2 ：Forward rotation (Inputs at the FWD and REV terminals are
ignored.)
F 0 2 ＝ 3 ：Reverse rotation (Inputs at the FWD and REV terminals are
ignored.)
(3) Changing the frequency
When F 0 1 is at 0 , press the key to increase the frequency or
press the key to decrease the frequency. Press and hold the or key and press the
key to increase the frequency change speed.
Note) Do not turn the power off for five seconds after performing a monitor change or
function setting. Otherwise Er1 will be caused.
(4) Function setting method
Description of operation Operation procedure Display result
Initial state 6 0. 0 0
１ Start the program mode. Press the key. F 0 0
２ Select a setting or monitoring
function.
Press the or key. F 0 1
３ Have the data displayed. Press the key. 1
４ Change the data. Press the or key. 2
５ Store the data. Press the key. F 0 2
６ Exit from the program mode. (Or
select another function.)
Press the key.
(Press the or key.)
6 0. 0 0

4-5
(5) Changing the function code
The function code consists of an alphabetic character and a numeral. The alphabetic character
is defined for each of the function groups.
Table 4-1-1 Major groups of function codes
Function code Function
F00～F42 Fundamental functions
E01～E41 Extension terminal functions
C01～C33 Control functions of frequency
P01～P10 Motor parameters
H01～H46 High performance functions
A01～A19 Alternative motor parameters
The function code changes each time the or key is pressed. (Press and hold the
or key to continue to change the function code.)
While pressing and holding the or key during function code change, press the
key to change to the next group with another alphabetic character. (Press the and keys
to jump to the top of the F, E, C, P, H or A code, or press the and key to jump to the last
of the F, E, C, P, H or A code.)
Changing example:
＋
F 0 0 F 0 1 F 0 2 E 0 1
＋
C 3 3 C 3 2 C 3 1 E 4 2
4-1-1 Upon an Alarm
When an alarm occurs, the description of the alarm is displayed. Press the or key
during alarm display to display the latest three alarms.
To display previous 4 alarms, select function H 0 2 . (Refer to H02 Trip history.)
4-1-2 Digital Frequency Setting Method
Press the or key at the operation mode screen. The LED display changes to the
frequency setting, and the data increases or decreases in the unit of the least increment first. While
the or key is held down, the changing digit moves to the upper order for fast changes.
Further, while pressing and holding down the or key, press the key to increase the
changing speed further. No special operation is necessary to store the new frequency setting. The
setting is automatically stored when the inverter is turned off.

5-1
5. Selecting Functions
5-1 Function Selection List
Table 5-1-1 Function selection list
F: Fundamental functions
Functioncode
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
Usersetting
F00 Data protection
0: Data change enabled
1: Data protected
1 0 x 0
F01
Frequency
command 1
0: Keypad operation
1: Voltage input (terminal 12)
2: Current input (terminal C1)
3: Voltage and current input
4: Voltage input with polarity (terminal
12)
5: Voltage input inverse mode operation
(terminal 12)
6: Current input inverse mode operation
(terminal C1)
7: UP/DOWN control mode 1
8: UP/DOWN control mode 2
1 0 x 0
F02 Operation method
0: Keypad operation (direction of
rotation: input at terminal block)
1: External signal (digital input)
2: Keypad operation (forward rotation)
3: Keypad operation (reverse rotation)
1 2 x 0
F03 Maximum frequency 1 50 to 400 Hz 1Hz 50 x 0
F04 Base frequency 1 25 to 400 Hz 1Hz 50 x 0
F05 Rated voltage 1
(at Base frequency1)
0V : Voltage proportional to the source
voltage is output.
80 to 240V(200V class)
160 to 480V(400V class)
1V 230
400
x 0
F06
Maximum voltage 1
(at Maximum
frequency 1)
80 to 240V(200V class)
160 to 480V(400V class)
1V
230
400
x 0
F07 Acceleration time 1 0.01 to 3600 s 0.01s 6.00 6
F08 Deceleration time 1 0.01 to 3600 s 0.01s 6.00 6
F09 Torque boost 1
0: Automatic torque boost
1: Square reduction torque
characteristics
2: Proportional torque characteristics
3 to 31: Constant torque characteristics
1 0 0
F10
Electronic thermal
overload relay
for motor 1 (Select)
0: Inactive
1: Active (for general purpose motors)
2: Active (for forced-ventilated motors)
1 1 0
F11 (level) 20 to 135% of the rated inverter current 0.01A
Fuji’s rated
motor
current
6
F12 (Thermal time constant) 0.5 to 10.0 min. 0.1min 5.0 2
Description of change during operation
: The data changed by the or key takes effect on the inverter operation. However, press the
key to store the new data.
: Press the or key to change the data. The new data takes effect after the key is pressed to
store the data.
X: The data can be changed only while the inverter is stopped.

5-2
Functioncode
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
Usersetting
F13
Electronic thermal
overload relay
(for braking resistor)
0: Inactive
1: Active (for external braking resistor
DB__-2C/4C)
2: Active (for external braking resistor
TK80W : 0.1 to 2.2E11S-7
DB__-4C : 0.4 to 7.5E11S-4)
1 0 X 0
F14
Restart mode after
momentary power
failure
0: Inactive (The inverter immediately
trips upon power failure.)
1: Inactive (The inverter trips after the
power failure is recovered.)
2: Active (The inverter restarts at the
frequency effective at the time of
power failure.)
3: Active (The inverter restarts at the
starting frequency.)
1 0 X 0
F15
Frequency limiter
(High)
70 0
F16 (Low)
0 to 400 Hz 1Hz
0 0
F17
Gain
(For frequency setting
signal)
0.0 to 200.0% 0.1% 100.0 2
F18 Bias frequency -400 to +400Hz 1Hz 0 1
F20
DC brake
(Starting frequency)
0.0 to 60.0Hz 0.1Hz 0.0 2
F21 (Braking level) 0 to 100% 1% 0 0
F22 (Braking time)
0.0 s (Inactive)
0.1 to 30.0s
0.1s 0.0 2
F23
Starting frequency
(Freq.)
0.1 to 60.0Hz 0.1Hz 0.5 X 2
F24 (Holding time) 0.0 to 10.0s 0.1s 0.0 X 2
F25 Stop frequency 0.1 to 6.0Hz 0.1Hz 0.2 X 2
F26
Motor sound
(Carrier frequency)
0.75,1 to 15kHz 1kHz 15 0
F27 (Sound tone) 0 to 3 1 0 0
store the data.

5-3
Functioncode
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
Usersetting
F29
FMA and FMP
terminals
(Select)
0: Analog output (FMA)
1: Pulse output (FMP) 1 0 X 0
F30
FMA
(Voltage adjust）
0 to 200% 1% 100 0
F31 (Function)
0: Output frequency 1 (before slip
compensation)
1: Output frequency 2 (after slip
compensation)
2: Output current
3: Output voltage
4: Output torque
5: Load factor
6: Input power
7: PID feedback value
8: DC link circuit voltage
1 0 0
F33
FMP
(Pulse rate) 300 to 6000p/s (Pulse count at 100%) 1p/s 1440 0
F34 (Voltage adjustment) 0%, 1 to 200% 1% 0 0
F35 (Function) 0 to 8 (Same as F31) 1 0 0
F36 30Ry operation mode
0: Excited when tripping
1: Excited during regular operation
1 0 X 0
F40
Torque limiter 1
(Driving)
20 to 200%
999: Inactive
1% 180 0
F41 (Braking)
0%: Automatic deceleration control
20 to 200%
999: Inactive
1% 150 0
F42
Torque vector
control 1
0: Inactive
1: Active
1 0 X 0
store the data.

5-4
E: Extension terminal functions
Function
code
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
User
setting
E01 X1 terminal function 0 X 0
E05 X5 terminal function
0: Multistep frequency selection [SS1]
4: Acceleration/deceleration time selection
[RT1]
5: 3-wire operation stop command [HLD]
6: Coast-to-stop command [BX]
7: Alarm reset [RST]
8: Trip command(External fault) [THR]
9: Frequency setting 2/1 [Hz2/Hz1]
10: Motor 2/ Motor 1 [M2/M1]
11: DC brake command [DCBRK]
12: Torque limiter 2/Torque limiter 1 [TL2/TL1]
13: UP command [UP]
14: DOWN command [DOWN]
15: Write enable for KEYPAD [WE-KP]
16: PID control cancel [Hz/PID]
17: Inverse mode changeover [IVS]
(terminal 12 and C1)
18: Link enable [LE]
1
7 X 0
E10 Acceleration time 2 10.0 6
E11 Deceleration time 2
0.01 to 3600s 0.01s
10.0 6
E16
Torque limiter 2
(Driving)）
20 to 200%
999: Inactive
1% 180 0
E17 (Brake)
0%: Automatic deceleration control,
20 to 200%
999: Inactive
1% 150 0
E20 Y1 terminal function 0 X 0
E21 Y2 terminal function
0: Inverter running [RUN]
1: Frequency equivalence [FAR]
2: Frequency level detection [FDT]
3: Undervoltage detection signal [LV]
4: Torque polarity [B/D]
5: Torque limiting [TL]
6: Auto restarting [IPF]
7: Overload early warning [OL]
8: Life time alarm [LIFE]
9: Frequency level detection 2 [FAR2]
1
7 X 0
E29
Frequency level
detection delay
0.01 to 10.0s 0.01s 0.1 6
E30
FAR function signal
(Hysteresis)
0.0 to 10.0Hz 0.1Hz 2.5 2
E31
FDT function signal
(Level)
0 to 400Hz 1Hz 50 0
E32 (Hysteresis) 0.0 to 30.0Hz 0.1Hz 1.0 2
E33
OL function signal
(Mode select)
0: Electronic thermal overload relay
1: Output current
1 0 0
E34 (Level) 20 to 200% of the rated inverter current 0.01A
Fuji’s rated
motor
current
6
E35 (Timer ) 0.0 to 60.0s 0.1s 10.0 2
E40
Display coefficient
A
0.00 to 200.0 0.01 0.01 6
E41 B 0.00 to 200.0 0.01 0.00 6
E42 LED display filter 0.0 to 5.0s 0.1s 0.5 2

5-5
C: Control functions of frequency
Functioncode
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
Usersetting
C01
Jump frequency
(Jump freq. 1)
0 0
C02 (Jump freq. 2) 0 0
C03 (Jump freq. 3)
0 to 400Hz 1Hz
0 0
C04 (Hysteresis) 0 to 30Hz 1Hz 3 0
C05
Multistep frequency
setting (Freq. 1)
0.00 4
C06 (Freq. 2) 0.00 4
C07 (Freq. 3) 0.00 4
C08 (Freq. 4) 0.00 4
C09 (Freq. 5) 0.00 4
C10 (Freq. 6) 0.00 4
C11 (Freq. 7) 0.00 4
C12 (Freq. 8) 0.00 4
C13 (Freq. 9) 0.00 4
C14 (Freq. 10) 0.00 4
C15 (Freq. 11) 0.00 4
C16 (Freq. 12) 0.00 4
C17 (Freq. 13) 0.00 4
C18 (Freq. 14) 0.00 4
C19 (Freq. 15)
0.00 to 400.0Hz 0.01Hz
0.00 4
C21 Timer operation
0: Inactive
1: Active
1 0 X 0
C22 Stage 1 0.00 to 3600s 0.01s 0.00 6
C30 Frequency command 2 0 to 8 (Same as F01) 1 2 X 0
C31
Analog setting signal
offset adjustment
(Terminal 12)
-5.0 to +5.0% 0.1% 0.0 3
C32 (Terminal C1) -5.0 to +5.0% 0.1% 0.0 3
C33
Analog setting
signal filter
0.00 to 5.00s 0.01s 0.05 4
store the data.

5-6
P: Motor parameters
Functioncode
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
Usersetting
P01
Number of motor 1
poles
2 to 14 2 4 X 0
P02 Motor1 (Capacity)
0.01 to 5.5kW (4.0kW or less)
0.01 to 11.00kW(5.5/7.5kW)
0.01kW
Nominal
applied
motor kW
X 4
P03 (Rated current) 0.00 to 99.9A 0.01A
Fuji's
standard
rating
X 6
P04 （Tuning)
0: Inactive
1: Active (%R1, %X)
2: Active (%R1, %X, Io)
1 0 X 12
P05 (Online tuning)
0: Inactive
1: Active
1 0 X 0
P06 (No-load current) 0.00 to 99.9A 0.01A
Fuji's
standard
rating
X 6
P07 （％R1 setting） 0.00 to 50.00% 0.01%
Fuji's
standard
rating
4
P08 （％X setting） 0.00 to 50.00% 0.01%
Fuji's
standard
rating
4
P09
(Slip compensation
control 1)
0.00 to 15.00Hz 0.01Hz 0.00 4
P10
(Slip compensation
response time 1)
0.01 to 10.00s 0.01s 0.50 4
store the data.

5-7
H: High performance functions
Functioncode
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
Usersetting
H01 Total operation time Monitor only 10h 0 - 0
H02 Trip history Monitor only - ---- -
H03
Data initializing
(Data reset)
0: Manual set value
1: Return to factory set value
1 0 X 0
H04 Auto-reset (Times) 0: Inactive 1 to 10 times 1 time 0 0
H05 (Reset interval) 2 to 20s 1s 5 0
H06 Fan stop operation
0: Inactive
1: Active
1 0 0
H07
ACC/DEC pattern
(Mode select).
0: Linear acceleration/deceleration
1: S-curve acceleration/deceleration
(weak)
(strong)
3: Non-linear
1 0 X 0
H09
Start mode
(Rotating motor
pickup mode)
0: Inactive
1: Active (only when Auto-restart after
momentary power failure mode)
2: Active(All start mode)
1 1 X 0
H10
Energy-saving
operation
0: Inactive
1: Active
1 0 0
H11 Dec mode
0: Normal
1: Coast-to-stop
1 0 0
H12
Instantaneous
overcurrent limiting
0: Inactive
1: Active
1 1 X 0
H13
Auto-restart
(Restart time)
0.1 to 5.0s 0.1s 0.1 X 2
H14 (Frequency fall rate) 0.00 to 100.0Hz/s 0.01Hz/s 10.00 4
H20
PID control
(Mode select)
0: Inactive
1: Forward operation
2: Reverse operation
1 0 X 0
H21 (Feedback signal)
0: Terminal 12 (0 to +10 Vdc) input
1: Terminal C1 (4 to 20 mA) input
2: Terminal 12 (+10 to 0 Vdc) input
3: Terminal C1 (20 to 4 mA) input
1 1 X 0
H22 P (Gain) 0.01 to 10.00 times (1 to 1000%) 0.01 time 0.10 4
H23 I (Integral time)
0.0: Inactive
0.1 to 3600s
0.1s 0.0 2
H24 D (Differential time)
0.00: Inactive
0.01 to 10.0s
0.01s 0.00 4
H25 (Feedback filter) 0.0 to 60.0s 0.1s 0.5 2
H26
PTC thermistor
(Mode select)
0: Inactive
1: Active
1 0 0
H27 (Level) 0.00～5.00V 0.01V 1.60 4
H28 Droop operation -9.9～0.0Hz 0.1Hz 0.0 3

5-8
Functioncode
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
Usersetting
H30
Serial link
(Function select)
Monitor, Frequency , Operation
setting command
0: X X
1: X
2: X
3:
1 0 0
H31
RS485
(Address)
1 to 31 1 1 X 0
H32
(Mode select on no
response error)
0: Immediate Er8
1: Er8 after interval set by timer
2: Retry in interval set by timer (Er8
after failure to restore)
3: Continuation of operation
1 0 0
H33 (Timer) 0.0 to 60.0s 0.1s 2.0 2
H34 (Baud rate)
0:19200[bit/s]
1:9600
2:4800
3:2400
4:1200
1 1 0
H35 (Data length)
0:8bit
1:7bit
1 0 0
H36 (Parity check)
0: None
1: Even parity
2: Odd parity
1 0 0
H37 (Stop bits)
0: 2 bits
1: 1 bit
1 0 0
H38
(No response error
detection time)
0: Not detected
1 to 60s
1s 0 0
H39 (Response interval) 0.00 to 1.00s 0.01s 0.01 4
H40
Maximum
temperature of heat
sink
Monitor only degree C - - 0
H41
Maximum effective
current
Monitor only A - - 6
H42
Main circuit capacitor
life
Monitor only 0.1% - - 0
H43
Cooling fan operation
time
Monitor only 10h - - 0
H44 Inverter ROM version Monitor only - - - 0
H45
Keypad panel ROM
version
Monitor only - - - 0
H46 Option ROM version Monitor only - - - 0
store the data.

5-9
A: Alternative motor parameters
Functioncode
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
Usersetting
A01 Maximum frequency 2 50 to 400Hz 1Hz 50 X 0
A02 Base frequency 2 25 to 400Hz 1Hz 50 X 0
A03
Rated voltage 2
(at base frequency 2)
0V, 80 to 240V(200V class)
0V,160 to 480V(400V class)
1V
230
400
X 0
A04
Maximum voltage 2
(at maximum
frequency 2)
80 to 240V (200V class)
160 to 480V(400V class)
1V
230
400
X 0
A05 Torque boost 2 0,1,2,3 to 31 1 0 0
A06
Electronic thermal
overload relay
for motor 2 (Select)
0: Inactive
1: Active (for general purpose motors)
2: Active (for inverter motors)
1 1 0
A07 (level) 20 to 135% of the rated inverter current 0.01A
Fuji’s rated
motor
current
6
A08
(Thermal time
constant)
0.5 to 10 min. 0.1min 5.0 2
A09
Torque vector control
2
0:Inactive
1:Active
1 0 X 0
A10 Number of motor 2
poles
2 to 14 2 4 X 0
A11 Motor 2 (Capacity)
0.01 to 5.5kW (4.0kW or smaller)
0.01 to 11.00kW(5.5/7.5kW)
0.01kW
Nominal
applied
motor kW
X 4
A12 (Rated current) 0.00 to 99.9A 0.01A
Fuji's
standard
rating
X 6
A13 (Tuning)
0: Inactive
1: Active (%R1, %X)
2: Active (%R1, %X, Io)
1 0 X 12
A14 (Online tuning) 0: Inactive, 1: Active 1 0 X 0
A15 (No-load current) 0.00 to 99.9A 0.01A
Fuji's
standard
rating
X 6
A16 （％R1 setting） 0.00 to 50.00% 0.01%
Fuji's
standard
rating
4
A17 （％X setting） 0.00 to 50.00% 0.01%
Fuji's
standard
rating
4
A18
(Slip compensation
control 2)
0.00 to 15.00Hz 0.01Hz 0.00 4
A19
(Slip compensation
response time 2)
0.01 to 10.00s 0.01s 0.50 4
store the data.

5-10
o: Optional functions
Functioncode
Name Setting range
Min.
unit
Factory
setting
Changeduring
operation
RS485
Data
format
Usersetting
o00 Optional selection
0: Option inactive
1: Option active
Set 0 when optional card is not used.
- 0 0
store the data.

5-11
5-2 Detail Description of Each Function
F: Fundamental functions
F00 Data protection
The setting data can be protected against
inadvertent operation at the keypad panel.
0: Data change enabled
1: Data protected
[Setting method]
0→1: Press the STOP + keys
simultaneously.
1→0: Press the STOP + keys simultaneously.
F01 Frequency command 1
The frequency setting method can be selected.
0: The frequency is set by the operation of
and keys.
1: The frequency is set by the voltage input (at
terminal 12) (0 to +10 Vdc).
2: The frequency is set by the current input (at
terminal C1) (4 to 20 mAdc).
3: The frequency is set by the voltage input and
current input (terminal 12 and terminal C1) ((-10
to +10 Vdc) + (4 to 20 mAdc)). Inputs at
terminals 12 and C1 are added to determine the
frequency.
4:The frequency is set by the voltage input with
polarity (at terminal 12) (-10 to +10 Vdc).
In the case of input with polarity, operation at a
direction opposite to the operation command is
possible.
5:The frequency is set by voltage input inverse
mode operation (at terminal 12) (+10 to 0 Vdc).
6:The frequency is set by current input inverse
mode operation (at terminal C1) (20 to 4 mAdc).
7:UP/DOWN control mode 1
The frequency is set by terminal UP, terminal
DOWN. (initial value = 0)
8:UP/DOWN control mode 2
The frequency is set by terminal UP, terminal
DOWN (initial value = last value during previous
operation).
Refer to the description of the E01 to E05
functions for details.
Description of forward and reverse operation
Setting: 1, 3
Setting: 4
-10　　　　　　0　　　　　　　+10［V］
－ Maximum
frequency
Maximum frequency
Frequency setting
Analog input
terminal 【12】
Reverse operation
(setting: 5)
Forward operation
(setting: 1, 3, 4)
0 4　　　　　20［mA］
0
Maximum
Frequency setting
Analog input
terminal【C1】
Reverse operation
(setting: 6)
Forward operation
(setting: 2)
F02 Operation method
The operation input method is set. (Note: This
function can be changed only when the FWD
and REV terminals are open.)
0:The motor starts or stops upon keypad operation
( RUN or STOP key).
The direction of rotation is determined by the FWD
and REV terminals on the control terminal block as
follows.
FWD-P24 short-circuited: Forward rotation
REV-P24 short-circuited: Reverse rotation
The motor does not start if both the FWD and
REV terminals are connected with the P24
terminal or both of them are open.
1: External signal (digital input)
The motor starts or stops upon the state of the
FWD and REV terminals on the control terminal
block.
FWD-P24 short-circuited: forward rotation
REV-P24 short-circuited: reverse rotation
The motor does not start if both the FWD and
REV terminals are connected with the P24
terminal or both of them are open.
2: Keypad operation (forward rotation only)
The motor runs in the forward direction when
the RUN key is pressed and it decelerates to
stop when the STOP key is pressed.
3: Keypad operation (reverse rotation only)
The motor runs in the reverse direction when
the RUN key is pressed and it decelerates to
stop when the STOP key is pressed.
Normal mode operation
Inverse mode operation
Maximum frequency
Normal mode operation
Inverse mode operation

5-12
Frequency
setting
[LE]
H21H21H21H21
F18F18F18F18F17F17F17F17
C33C33C33C33
Keypad panel frequency setting
Frequency
setting
[Hz2/Hz1]
[12]
[C1]
[IVS]
[UP]
[DOWN]
[SS1]
[SS2]
Changeover
command
[SS4]
[SS8]
[Hz2/PID]
Feedback
selection
Bias
frequency
+
+
#3
#6
#2
#5
#1,#4
#0
Gain
Link function
frequency
setting
UP/DOWN
control
Jump
frequency
Multistep frequency 1 to 15
Frequencysettingsignal
Analog input
filter
Negative
polarity
prevention
Forward/
Reverse
operation
H25H25H25H25
Feedback
filter
H22H22H22H22
Integration
Propotion
H23H23H23H23
H20H20H20H20
Operation
selection
PID control
Differen-
tiation
C04C04C04C04
C03C03C03C03
C01C01C01C01
C02C02C02C02
H24H24H24H24 Limit signal
Limiter process
A01A01A01A01
F15F15F15F15
F03F03F03F03
Upper limit
frequency
Maximum
frequency
Lower limit
frequency
F16F16F16F16
#1,#2,#3,#6,#7
#7,#8
H30H30H30H30
F01F01F01F01 C30C30C30C30
Multistep
frequency
changeover
C13C13C13C13
C05C05C05C05
C12C12C12C12
C14C14C14C14
C06C06C06C06
C15C15C15C15
C07C07C07C07
C16C16C16C16
C08C08C08C08
C17C17C17C17
C09C09C09C09
C18C18C18C18
C10C10C10C10
C19C19C19C19
C11C11C11C11
Reverse
operation
Reverse
operation
Frequency setting block diagram

5-13
F03 Maximum frequency 1
This is the maximum frequency which is output
by the inverter of motor 1.
Setting range: 50 to 400 Hz
If a value larger than the rating of the driven unit
is set, the motor or machine may be broken. Set
a value suitable for the driven unit.
F04 Base frequency 1
This is the maximum output frequency in the
constant torque zone of motor 1, that is, the
output frequency at the rated output voltage.
Set the rating of the motor.
Note) If the setting of base frequency 1 is larger
than the setting of maximum frequency 1, the
output frequency is limited by the maximum
frequency and the output voltage does not rise
to the rated voltage.
F05 Rated voltage 1
This is the output voltage value at base
frequency 1 which is output to motor 1.
However, voltages exceeding the source (input)
voltage cannot be output.
Setting range: 0, 80 to 240 V for 200V class
0, 160 to 480 V for 400V class
A "0" setting stops the operation of the voltage
adjustment function. Therefore a voltage
proportional to the source voltage is output.
Note) If the setting of rated voltage 1 is larger than
the setting of maximum output voltage 1, the
voltage is limited by the maximum output
voltage and it does not rise to the rated voltage.
F06 Maximum voltage 1
This is the maximum value of the output voltage
of the inverter of motor 1. However, voltages
exceeding the source (input) voltage cannot be
output.
Setting range: 0, 80 to 240 V for 200V class
0, 160 to 480 V for 400V class
F07 Acceleration time 1
F08 Deceleration time 1
These are the acceleration time taken for the
output frequency to reach the maximum
frequency from the start, and the deceleration
time taken to stop from the maximum output
frequency.
Setting range: Acceleration time 1: 0.01 to
3600 s
Deceleration time 1: 0.01 to
3600 s
The number of significant digits of the
acceleration and deceleration time is three.
Therefore the uppermost three digits can be
set.
The acceleration time and deceleration time are
set based on the maximum frequency. The
relationship between the frequency setting and
the acceleration/deceleration time is as shown
below.
Outputfrequency
Acceleration
time
Set
frequency
Time
Deceleration
time
Maximum output
frequency
Set frequency＜＜＜＜Maximum output frequency
The setting differs from the actual operation time.
Acceleration/deceleration time
＝Setting×（Set frequency / Maximum output
frequency）
Acceleration
operation
time
Time
Set frequency
Deceleration
time
Acceleration
time
Deceleration
operation
time
Outputfrequency
Maximum output
frequency
Note) If an excessively short acceleration or
deceleration time is set though the load torque
or moment of inertia of the load is large, the
torque limiter or stall prevention function is
activated. When these functions are activated,
the time becomes longer than the operation
time explained above.
Output
frequency
F06 Maximum output
voltage 1
Output voltage
F05 Rated voltage 1
０ F04 Base
frequency 1
F03 Maximum
output
frequency
Constant torque zone

5-14
F09 Torque boost 1
This function is for motor 1. The following
options can be selected.
- Selection of load characteristics such as
automatic torque boost, square reduction
torque load, proportional torque load and
constant torque load.
- Correction of magnetic flux shortage of motor
in accordance with the voltage drop in low
frequency zone, and torque boost during low
speed operation (boosting of V/f
characteristics).
Setting range Description of selection
0 Automatic torque boost characteristics
where the torque boost value of the
constant torque load is automatically
adjusted (refer to function code P04
"Motor 1 (“(Tuning)").
1 Square reduction torque characteristics
for fan and pump loads
2 Proportional torque characteristics for
intermediate load between the square
reduction torque and torque
characteristics.
3 to 31 Constant torque characteristics
Torque characteristics
<Square reduction torque characteristics>
<Proportional torque characteristics>
100%
Output frequency f
Base
frequency 11
2
0
Rated voltage 1
Output voltage V
<Constant torque characteristics>
100%
Output frequency f
Base
frequency 1
3
31
0
19%
Rated voltage 1
Output voltage V
Note) When the torque boost value is excessively
large, the motor is excessively excited in the
low speed zone at all types of characteristics.
If operation continues in such a state, the
motor may be overheated. Set a value
according to the characteristics of the driven
motor.
F10 Electronic thermal overload relay 1
(Select)
(Level)
(Thermal time constant)
The electronic thermal overload relay watches the
output frequency, output current and operation
time of the inverter to prevent the motor from
overheat. The protective function becomes active
when 150% of the set amperage flows for the time
set at F12 (thermal time constant).
F10
Selection between active and inactive operation of
the electronic thermal overload relay and selection
of the target motor are made. When the general
purpose motor is selected, the operation level is
low at low revolution speeds according to the
cooling characteristics of the motor.
Setting: 0 Inactive
1 Active (for general purpose motor)
2 Active (for forced-ventilated motor)
F11
The operation level of the electronic thermal
overload relay is set in amperage. Enter the
value 1.0 to 1.1 times rated current of the motor.
The setting range is 20 to 135% of the rated
inverter current.
Output frequency f0 (Hz)
Operationlevelcurrent（%）
fe×0.33 fe
90
100
69
When F10 is 2(%)
(When F10 is 1)
Graph of relationship between operation
level current and output frequency
fe=　fb　(fb＜60Hz)
　　 60Hz (fb≧60Hz)
　　　fb: Base frequency
F12
Set the time since 150% of the operation level
current flows continuously until the electronic
thermal overload relay functions.
Setting range: 0.5 to 10.0 min.
Typical current - operation time
characteristics
0
5
10
15
20
0 50 100 150 200
Operationtime(min.)
F12=0.5
F12=10
F12=5
Set by F12
((Output current) / (Operation level current)) x 100 (%)

5-15
(minimum unit 0.1 minute)

5-16
F13 Electronic thermal overload relay (for External braking resistor)
This function controls the operation frequency of the braking resistor and the continuous operation
hours to prevent the braking resistor from being overheated.
Setting
0: Inactive
1: Active (For external braking resistor DB -2C/4C)
2: Active (For external braking resistor TK80W120Ω) [0.1 to 2.2E11S-7]
Active (For external braking resistor DB -4C) [0.4 to 7.5E11S-4]
F14 Restart mode after momentary power failure
Select the operation to be taken by the inverter upon momentary power failure.
You can select between protective operation (alarm output, alarm display, and inverter output shutoff)
upon detection of power failure to be taken against an undervoltage and restart after momentary power
failure where the coasting motor is not stopped but automatically restarted after the source voltage is
recovered.
Setting range: 0 to 3 (Refer to the table below for details of the function.)
Setting
Name of function Operation upon power failure
Operation upon power
recovery
0 Inactive after
momentary power
failure (The inverter
trips immediately.)
Upon detection of an undervoltage, a
protective function is activated to stop the
output.
The inverter
does not
restart.
1 Inactive after
momentary power
trips after the power is
recovered.)
Upon detection of an undervoltage, no
protective function is activated but the
output is stopped.
A protective
function is
activated;
the inverter
does not
restart.
The inverter
restarts after
the
protective
function is
reset and an
operation
command is
input.
2 Restart after
momentary power
restarts at the
frequency effective at
the time of power
failure.)
output is stopped.
The inverter automatically
restarts at the output
frequency effective at the
time of power failure.
3 Restart after
momentary power
restarts at the starting
frequency; for low
inertia loads.)
output is stopped.
The inverter automatically
restarts at the starting
frequency set at F23.
Function codes used for the restart after momentary power failure include H13 and H14. Refer to the
description of these codes, too. As well, a rotating motor pickup function can be selected as a
starting method after a momentary power failure. (Refer to function code H09 for details of setting.)
When the pickup function is used, the speed of the coasting motor is detected and the motor is
started without a shock. Because a speed detection time is necessary if the pickup function is made
effective, the pickup function should be made ineffective and restart should be made at the frequency
effective before the power failure in a system with a large inertia to restore the original frequency, to
make the most of the small decrease in the speed of the coasting motor.
The effective range of the pickup function is 5 to 120 Hz. If the detected speed is out of the effective
range, the inverter restarts according to the regular function of restart after momentary power failure.

5-17
Setting: 0
Main
circuit DC
voltage
Power failure
Undervoltage
Power restoration
Time
Output
frequency
Active
Main
circuit DC
voltage
Undervoltage
Time
Protective
function
Active
Setting: 1
Protective
function
30 relay
30 relay
Note: The chain line indicates the motor speed.
Setting: 2
Power failure Power restoration
Setting: 3
Accelera-
tion
Undervoltage
Output
frequency
H13:Wait time Synchroni-
zation
(Motor speed)
Main
circuit DC
voltage
ON
Output terminal
(Y1-Y2 terminals);
IPF signal
Undervoltage
Output
frequency H13:Wait time
Main circuit
DC voltage
Protective function
30 relay
(Motor speed)
Protective function
30 relay
Output terminal
(Y1-Y2 terminals);
IPF signal

5-18
F15 Frequency limiter (High)
F16 Frequency limiter (Low)
Set the upper and lower limits of the frequency
setting.
*The starting frequency is output when the inverter
starts operation, and the stopping frequency is
output when it stops operation.
*(Low limit) > (High limit) ... Priority is given to the
High limit value.
F17 Gain (Frequency setting signal)
◆Set the ratio of the frequency setting in relation
to the analog input.
The operation is as shown in the figure below.
4　　　　　　　　20［mA］
-10[v] 　　　　　　　　0　　　　　　　　+10［V］
Frequency setting
Analog input
Terminal【12】
Terminal【C1】
２００％
１００％
５０％
+ Maximum
output frequency
- Maximum
output frequency
F18 Bias frequency
This function obtains the frequency setting from
addition of the frequency setting in relation to
the analog input and a bias frequency. The
operation is as shown in the figure below.
However, if the bias frequency is larger
(smaller) than the maximum frequency (-
maximum frequency), the limit is set at the
maximum output frequency (- maximum output
frequency).
4　　　　　　　　　20［mA］
-10[v]　　　　　　　　　0　　　　　　　　　+10［V］
Frequency setting
Analog input
Terminal【12】
Terminal【C1】
Bias frequency
(positive)
Bias frequency
(negative)
Maximum output
frequency
- Maximum
output frequency
F20 DC brake (Starting frequency)
F21 DC brake (Braking level)
F22 DC brake (Braking time)
F20
Starting frequency: Set the frequency at which
the DC brake starts operation during
deceleration and stop.
Setting range: 0.0 to 60.0 Hz
F21
Braking level: Set the output current level during
DC braking. The level can be set in an
increment of 1% of the rated inverter output
current.
Setting range: 0 to 100%
Actual minimum level is fixed to 5% even if this
function set from 1 to 5% for 5.5/7.5E11S-4EN.
F22
Braking time: Set the operation time of DC
braking.
Setting range: 0.0 Inactive
0.1 to 30.0 s
The brake function of the inverter
does not insure the function of a
mechanical latch.
Injuries could occur.
Lower limit
value
Lower limit
value
Upper limit value
Upper limit
value
Frequency
setting
Frequency setting
+ Maximum frequency
+100%
－100%
Frequency
setting

5-19
C ont in uat ion
t ime
O utput freq uenc y
S ta rtin g fre q u e n cy
S to p p in g fre q u e n cy
Tim e
Fo rwa rd rot at ion
F23 Starting frequency(Frequency)
F24 Starting frequency (Holding time)
F25 Stop frequency
The starting frequency can be set to insure the
torque during start of operation. Holding time for
at the starting frequency before acceleration
can be set to wait for establishment of the
magnetic flux of the motor during start of
operation.
F23
Frequency: Set the starting frequency.
F24
Holding time: Set the time for continuing the
starting frequency during start of operation.
Setting range: 0.0 to 10.0 s
*The Holding time is not placed during changeover
between forward and reverse rotation.
*The Holding time is not included in the
acceleration time.
*The function is effective even when C21 Timer
operation is selected; the time is included in the
timer value.
F25
Set the stop frequency.
When the starting frequency is smaller than the
stop frequency and the frequency setting is
smaller than the stop frequency, operation does
not start.
F26 Motor sound (Carrier frequency)
This function adjusts the carrier frequency. After
adjustment, reduction of the motor noise,
avoidance of resonance with the mechanical
system, reduction of leakage current from the
output circuit wiring, reduction of inverter noise
and other effects can be obtained.
Setting range: 0.75 to 15 (0.75 to 15 kHz)
Carrier frequency Lower Higher
Motor noise Larger to Smaller
Output current
waveform
Worse to Better
Leakage current Less to More
Noise generation Less to More
* A smaller setting causes a worse output current
waveform (with much harmonic component) to
cause an increase in the motor loss, resulting in
a slightly higher motor temperature.
For example, when 0.75 kHz is set, reduce the
motor torque by about 15%. When a large value
is set, the inverter loss increases, raising the
inverter temperature.
F27 Motor sound (Sound tone)
The sound tone of the motor noise can be
changed when the carrier frequency is 7 kHz or
lower. Use the function according to preference.
Setting range: 0, 1, 2, 3
F29 FMA and FMP terminals (Select)
Select the operation method of the FM terminal.
0: Analog output (FMA function)
1: Pulse output (FMP function)
F30 FMA (Voltage adjust)
F31 FMA (Function)
The output frequency, output current and other
monitor data can be output to the FM terminal in a
DC voltage. The amplitude can be adjusted.
Note) To use the FM terminal for analog outputs,
set F29 at "0" and set SW1 on the control
board to FMA.
F30
Adjust the voltage corresponding to 100 [%] of
the monitoring amount of the monitoring item
selected at F31 in a range from 0 to 200 [%] (in
an increment of 1 [%]).
Setting range: 0 to 200 [%]
10V or above
F30:0%
F30:50%5V
10V F30:100%
100%50%
FMAterminaloutput
voltage

5-20
F31
Select the monitoring item to be output at the
FM terminal.
Setting
ｇg
Target of
monitoring
Definition of 100% of
monitoring amount
0 Output frequency 1
(before slip
compensation)
Maximum output
frequency
1 Output frequency
2 (after slip
compensation)
Maximum output
frequency
2 Output current 2 times rated inverter
output current
3 Output voltage 250V (200V class) ,
500V (400V class)
4 Output torque 2 times rated motor
torque
5 Load factor 2 times rated motor load
6 Input power 2 times rated inverter
output
7 PID feedback
value
100% feedback value
8 DC link circuit
voltage
500V (200V class)
1000V (400V class)
F33 FMP (Pulse rate)
F34 FMP (Voltage adjust)
F35 FMP (Function)
The output frequency, output current and other
monitor data can be output at the FM terminal in
pulse voltages. The average voltage can be
connected to an analog meter.
To select the pulse output and connect a digital
counter or the like, set the F33 pulse rate to a
desired value and set the F34 voltage to 0%.
To select the average voltage and connect an
analog meter, set the F34 voltage to determine
the average voltage; the F33 pulse rate is fixed at
2670 [p/s].
Note) To use the FM terminal for the pulse output,
set F29 to "1" and set SW1 on the control
board to the FMP side.
F33
Set the pulse frequency corresponding to 100
[%] of the monitoring amount of the monitoring
item selected by F35 in a range from 300 to
6000 [p/s].
Setting range: 300 to 6000 [p/s]
Pulse period [p/s] = 1/T
Duty [%] = T1/T X 100
Average voltage [V] = 15.6 X T1/T
F34
Set the average voltage of the pulse output at
the FM terminal.
Setting range: 0 to 200 [%]
However, if "0" is set, the pulse frequency
varies according to the monitoring amount of
the monitoring item selected at F35 (with the
maximum value being the F33 setting). If a
value between 1 and 200 is set, the pulse
frequency is fixed at 2670 [p/s]. The average
voltage corresponding to 100 [%] of the
monitoring amount of the monitoring item
selected at F35 is adjusted in a range between
1 and 200 [%] (in an increment of 1 [%]). (The
duty of the pulse changes.)
Note : FMP has approx. 0.2V offset voltage even
if FMP outputs zero value.
F35
Select the monitoring item to be output at the FM
terminal. The options to be selected are the same
as F31.
F36 30Ry operation mode
Select whether the alarm output relay (30Ry) of
the inverter is activated (excited) during normal
operation or during a trip.
Setting
Description of operation
0
During normal operation 30A－30C：OFF
30B－30C：ON
Upon a trip 30A－30C：ON
30B－30C：OFF
1
During normal operation 30A－30C：ON
30B－30C：OFF
Upon a trip 30A－30C：OFF
30B－30C：ON
Note)Because the contact between 30A and 30C
is on after the inverter is turned on (after
about 1 second since the power is turned
on) when the setting is "1", care must be
taken to the sequence design.
T1
Approx. 15.6 [V]
T
(Pulse period)

5-21
F40 Torque limiter 1 (Driving)
F41 Torque limiter 1 (Braking)
◆The torque limiting operation calculates the motor torque from the output voltage, current, resistance of
the primary winding of the motor and other data to control the frequency so that the calculated value
does not exceed the control value. This operation insures inverter operation without tripping upon
abrupt changes in the load torque while the limit value is maintained.
◆Select the limit values of the driving torque and braking torque.
◆The acceleration/deceleration operation time during activation of this function becomes longer than the
set acceleration/deceleration time. When the driving torque is limited during constant speed operation,
the frequency is lowered to reduce the load torque. (When the braking torque is limited, the contrary
occurs.)
Setting range: 20 to 200,999%
Set "999" to inactivate the torque limiter.
Set only the braking torque to "0" to automatically avoid OU tripping caused by power
regeneration.
• If the torque limiter has been selected, the inverter may operate at an
acceleration/deceleration time or speed different from the set ones. Design the
machine so that safety is ensured even in such cases.
F42 Torque vector control 1
◆The torque vector control calculates the torque suitable for the load to make the most of the motor
torque, and controls the voltage and current vectors to optimum ones according to the calculated value.
Setting State of operation
０ Inactive
１ Active
◆ When "1" (active) is selected, the settings of the following function codes become different from the
written ones.
1) F09 "Torque boost 1"
Works as "0" value (automatic torque boost).
2) P09 "Slip compensation control"
Slip compensation is automatically activated.
When "0" is set, the slip compensation amount of a Fuji's standard three-phase motor is assumed.
When the setting is other than "0", the written setting is applied.
Use the torque vector control function under the following conditions.
1) A single motor
If two or more motors are connected, accurate control is difficult.
2) The data of function codes of motor 1 (P03 "Rated current", P06 "No-load current", P07 "%R1" and P08
"%X") must be accurate.
If the standard three-phase motor made by Fuji is used, the above data is automatically input when
function code P02 "Capacity" is set. When another motor is used, perform auto tuning.
3) The rated motor current must not be too smaller than the rated inverter current. Though it depends on
the model, the one smaller by two ranks than the standard applicable motor of the inverter is the
allowable smallest motor.
4) The wiring distance between the inverter and motor must be up to 50 m. Too long a wiring distance
disables accurate control due to the leakage current flowing through the static capacity between the
cable and the ground.
5) When a reactor is connected between the inverter and the motor or when the wiring impedance is large
enough to be overlooked, change the data using P04 "Auto tuning".
If these conditions cannot be satisfied, change the setting to "0" (inactive).

5-21
(E:Extension Terminal Functions)
The function of each digital input terminal X1 to
X5 can be set arbitrarily using a code.
Setting Function
0,1,2,3 Multistep frequency selection (1 to 15
steps)
4 Acceleration/deceleration selection (1
step)
5 Self holding selection [HLD]
6 Coast-to-stop command [BX]
7 Error reset [RST]
8 External alarm [THR]
9 Frequency setting 2 / frequency setting
1 [Hz2 / Hz1]
10 Motor 2 / motor 1 [M2 / M1]
11 DC brake command [DCBRK]
12 Torque limit 2 / torque limit 1 [TL2 /
TL1]
13 UP command [UP]
14 DOWN command [DOWN]
15 Write enable for keypad (data change
allowed) [WE-KP]
16 PID control cancel [Hz / PID]
17 Forward/reverse operation switch
(terminal 12 and terminal C1) [IVS]
18 Link operation selection
(RS485 standard, BUS Option) [LE]
Note)The data numbers not assigned to E01
through E05 are considered to be inactive.
Multistep frequency
Frequencies set to function codes C05 through
C19 can be selected according to external digital
input signal switching. Set data 0 to 3 to the
desired digital input terminals and combination of
input signals determines the selected frequency.
Multistep frequency selection
Combination of input
signals
3
[SS8]
2
[SS4]
1
[SS2]
0
[SS1]
Selected frequency
off off off off Selected by F01 or C30
off off off on C05 Multistep frequency 1
off off on off C06 Multistep frequency 2
off off on on C07 Multistep frequency 3
off on off off C08 Multistep frequency 4
off on off on C09 Multistep frequency 5
off on on off C10 Multistep frequency 6
off on on on C11 Multistep frequency 7
on off off off C12 Multistep frequency 8
on off off on C13 Multistep frequency 9
on off on off C14 Multistep frequency 10
on off on on C15 Multistep frequency 11
on on off off C16 Multistep frequency 12
on on off on C17 Multistep frequency 13
on on on off C18 Multistep frequency 14
on on on on C19 Multistep frequency 15
Acceleration/deceleration time selection
Acceleration/deceleration time set to function
codes E10 and E11 can be selected according to
external digital input signal switching.
Input signal
4[RT1]
Selected
acceleration/deceleration time
off
F07 Acceleration time 1
F08 Deceleration time 1
on
E10 Acceleration time 2
3-wire operation stopcommand [HLD]
Used for three-wire operation. When HLD-P24 is
ON, the FWD or REV signal is maintained, and
when it is OFF, the signal is reset.
ON ON
ON ON
ON ON
FW D-CM
REV-CM
HLD-CM
Output
frequency
Forward
operation
Reverse
operation
Ignored
Note : The inverter operates while FWD-P24 or
REV-P24 is ON even if HLD-P24 is OFF. An
external interlock sequence ,which makes
FWD-P24 and REV-P24 OFF when HLD-P24 is
OFF, is required.
P24
P24
P24

5-22
Coast-to-stop command [BX]
When the BX terminal is connected to the P24
terminal, the inverter output is immediately shut off
and the motor coasts to stop. No alarm signal is
output. This signal is not maintained.
When the operation command (FWD or REV) is
ON and the BX terminal is disconnected from the
P24 terminal, the motor starts at the starting
frequency.
Forward
rotation
ON
ONON
ONONFWD-CM
REV-CM
BX-CM
Output
frequency
Ignored
Forward
rotation
Forward
rotation
Alarm reset [RST]
Upon tripping, when the connection between the
RST and P24 terminals is turned on, the batch
alarm output is removed, and when the connection
is turned off, the trip display is removed and
operation is restarted.
Trip command (External fault) [THR]
When the connection between the THR and P24
terminals is turned off, the inverter output is shut
off (to allow the motor to coast to stop), and an
alarm [OH2] is output. This signal is maintained
internally until an RST input is added. This
function is used to protect the external braking
resistor from being overheated. When this terminal
function is not set, an ON input is assumed.
Frequency setting 2/1 [Hz2 / Hz1]
An external digital input signal switches the
frequency setting method defined by function
codes F01 and C30.
The signal operation is changed under PID control.
(Refer to H20 through H25.)
Input signal
9[Hz2/Hz1]
Selected frequency setting
off F01 Frequency setting 1
on C30 Frequency setting 2
Motor 2/1 [M2 / M1]
An external digital input signal switches each
motor constant. However, this input is effective
only when the operation command to the inverter
is turned off and the inverter is stopped. Therefore
operation at 0 Hz is not included.
Input signal
10[M2/M1]
Selected motor
off Motor 1
on Motor 2
DC brake command [DCBRK]
When the external digital input signal is ON, DC
braking starts and continues as far as the signal
remains turned on after the operation command is
turned off (or, the STOP key is pressed in the
keypad panel operation mode or both the FWD
and REV terminals are turned on or turned off in
the terminal block operation mode) and the
inverter frequency drops below the frequency set
at F20. In this case, the longer time between the
time set at function code F22 and the time when
the input signal is turned on, is given priority.
However, operation is restarted if the operation
command is turned on.
Torque limiter 2/Torque limiter 1 [TL2 / TL1]
An external digital input signal switches between
the torque limiter values set at function codes F40
and F41 or E16 and E17.
Input signal
12[TL2/TL1]
Selected torque limit value
off
F40 Torque limiter 1 (Driving)
F41 Torque limiter 1 (Braking)
on
E16 Torque limiter 2 (Driving)
E17 Torque limiter 2 (Braking)
UP command [UP] / DOWN command
[DOWN]
The output frequency can be increased or
decreased according to the external digital input
signal while the operation command is input
(turned on). The changing range is 0 to the
maximum output frequency and operation in a
direction opposite to that in the operation
command is impossible.
Input signal
13 14
Selected function
(when operation command is ON)
off off The output frequency is maintained.
off on The output frequency increases at
the acceleration time.
on off The output frequency decreases at
the deceleration time.
on on The output frequency is maintained.
Write enable for KEYPAD [WE-KP]
This function allows program changes only while
the external signal is input; this is for the protection
of the program from inadvertent changes.
Input signal
15[WE-KP]
Selected function
off Data change disabled
on Data change enabled
Note) If data 15 is set to a terminal erroneously,
program change become disabled. Turn the
terminal ON then change to another number.
P24
P24
P24

5-23
PID control cancel [Hz/PID]
An external digital input signal can disable PID
control.
Input
signal
16
[Hz/PID]
Selected function
off PID control valid
on
PID control invalid
(frequency setting through keypad
panel)
Inverse mode changeover(Terminal 12 and
C1) [IVS]
An external digital input signal switches between
the forward and reverse operations of analog
inputs (terminals 12 and C1).
Input signal
17[IVS]
Selected function
off
When forward operation is set
→forward operation
When reverse operation is set
→reverse operation
on
When forward operation is set
→reverse operation
When reverse operation is set
→forward operation
Link enable (RS485) [LE]
An external digital input signal is switched to
validate or invalidate the frequency command and
operation command from the link. The source of
the command can be set at H30 Link function.
Input signal
18[LE]
Selected function
off Link command invalid
on Link command valid
E10 Acceleration time 2
◆ Additional acceleration and deceleration time
can be selected besides F07 "Acceleration time
1" and F08 "Deceleration time 1".
◆ The operation and setting range are the same
as those for F07 "Acceleration time 1" and F08
"Deceleration time 1". Refer to these functions.
◆ To switch between the acceleration and
deceleration time, select any terminal from
among E01 "X1 terminal (Function selection)"
through E05 "X5 terminal (Function selection)"
as a switching signal input terminal. Set the
selected terminal to "4"
(acceleration/deceleration time selection) and
supply a signal to the terminal to switch.
Switching is effective during acceleration,
during deceleration or during constant speed
operation.
E16 Torque limiter 2 (Driving)
E17 Torque limiter 2 (Braking)
◆ Use these functions to switch the torque limiter
levels set at F40 and F41 using an external
control signal. The external signal is supplied to
an arbitrary control terminal among X1 through
X5, the function of which is set to torque control
2 / torque control 1 (data 12) at E01 to E05.
◆ A part of control and monitor signals can be
output at the Y1 and Y2 terminals.
Setting
Output signal
0 Inverter running [RUN]
1 Frequency equivalence [FAR]
2 Frequency level detection [FDT]
3 Undervoltage detection signal [LV]
4 Torque polarity [B/D]
5 Torque limiting [TL]
6 Auto restarting [IPF]
7 Overload early warning [OL]
8 Life time alarm [LIFE]
9 Frequency level detection 2 [FAR2]
Inverter running [RUN]
"Inverter running" means that the inverter outputs
a frequency as a speed signal. At this time, an ON
signal is output. However, if the DC braking
function is active, the signal is turned off.
Frequency equivalence [FAR]
Refer to the description for function code E30
Frequency equivalence (detection width).
Frequency level detection [FDT]
Refer to the description for function codes E31
and E32 Frequency level detection.
Undervoltage detection signal [LV]
When the undervoltage protection function is
active, that is, when the main circuit DC voltage is
below the undervoltage detection level, an ON
signal is output. After the voltage is restored to
become higher than the undervoltage detection
level, the signal is turned off. The ON signal is
output also during activation of the undervoltage
protection function.
Undervoltage detection level: Approx 200 Vdc
(200V class)
: Approx 400Vdc
(400V class)

5-24
Torque polarity [B/D]
The polarity of the torque calculated inside the
inverter is judged and the driving/braking torque
discrimination signal is output.
When the calculated torque is the driving torque,
an OFF signal is output, and when it is the braking
torque, an ON signal is output.
Torque limiting [TL]
When the torque limit is set, a stall prevention
function automatically functions to change the
output frequency automatically; the torque limiting
signal is output externally to reduce the load or to
indicate an excessive load at the monitor.
The ON signal is output during torque limit,
regeneration avoidance operation and current
limit.
Auto restarting [IPF]
An event of momentary power failure, start-up of
restart mode after momentary power failure, and
automatic synchronization and recovery are
reported to the outside.
When the power is recovered and synchronization
starts after a momentary power failure, an ON
signal is output, and the signal changes to the
OFF signal after the frequency before the
momentary power failure is achieved.
In the startup at the starting frequency mode,
completion of restart is assumed at the time of
power recovery, and the signal is turned off in this
timing. (Refer to the description for F14.)
Overload early warning [OL]
An overload early warning level before thermal
protection trip (electronic thermal overload relay)
of the motor is judged and an ON signal is output.
Either the electronic thermal overload forecast or
output current overload forecast can be selected
for overload forecast judgement.
For the setting method, refer to Overload early
warning (Operation selection) (E33) and Overload
early warning (Operation level) (E34).
Note) This function is effective only for motor 1.
Life time alarm [LIFE]
Life judgement output for main circuit capacitor
Refer to section 8-2 (1) "Capacity measurement of
main circuit capacitor" for description.
Frequency level detection 2 [FAR2]
This is a frequency level detection (detection
width) signal where function code E29 "Frequency
level detection delay" takes effect. Detection level
of the frequency is detected at the output
frequency before the torque limiter.
E29 Frequency level detection delay
E30 FAR function signal (Hysteresis)
Adjust the hysteresis and signal output delay for
achievement of the output frequency to the set
frequency (operation frequency).
The delay is valid only for FAR2 and it can be
adjusted between 0.01 and 10.0 seconds. The
hysteresis can be adjusted in a range of 0 to
+/-10 Hz of the output frequency.
The output frequency changes according to the
torque limiting operation. When the frequency
exceeds the setting range (width), the signal is
turned off in a mode (FAR: E20, 21 set to "1") or
it is not turned off in another mode (FAR2: E20,
21 set to "9").
E29: Setting range: 0.01 to 10.0 s
E30: Setting range: 0.0 to 10.0 Hz
An ON signal can be output from the terminal
within the detection range (width).
E31 FDT function signal (Level)
E32 FDT function signal (Hysteresis)
Determine the operation (detection) level of the
output frequency and the hysteresis width for
operation cancellation. When the output
frequency exceeds the set operation level, an
ON signal can be output from the terminal.
Setting range: (Operation level): 0 to 400 Hz
(Hysteresis width): 0.0 to 30.0 Hz
Output frequency
Frequency
detection
signal
Hysteresis width
Operation level
Cancellation level
Time
ON
Set frequency
Output frequency
FAR2
Time
ON ON
+ Detection width
- Detection
width
Set frequency
E29:Delay E29:Delay
+ Detection
width
- Detection
width
Set frequency
ON ONFAR

5-25
E33 OL function signal (Mode select)
The OL function signal includes two variations:
"overload forecast by means of the function of
the electronic thermal overload relay" and
"overload forecast by means of output current".
Setting: 0 Electronic thermal overload relay
1 Output current
Setting Function Outline
0
Electronicthermaloverloadrelay
Overload forecast using the
characteristics of the electronic
thermal overload relay which
show inverse time limit
characteristics against the
output current.
The operation selection of the
inverse time limit
characteristics and the thermal
time constant are the same
characteristics as those of the
electronic thermal overload
relay (F10, F12) for motor
protection. To use for the
forecast, set an earlier output
than the electronic thermal
overload relay for motor
protection.
1
Output
current
When the output current
exceeds the set current for a
period longer than the set time,
an overload forecast is issued.
E34 OL function signal (Level)
Determine the level of the electronic thermal
overload relay or output current.
Setting range:
Rated inverter output current x (20 to 200%)
The operation cancellation level is 90% of the set
value.
E35 OL function signal (Timer)
When E33 "OL function signal (Mode select)" is
set at "1" (output current), set the time taken until
the forecast is issued.
E40 Display coefficient A
E41 Display coefficient B
Use these functions as conversion coefficients
for determining the display value (process
amount) of the load speed, line speed and
target value and feedback amount of the PID
adjuster.
Setting range
Display coefficient A: 0.00 to 200.0
Display coefficient B: 0.00 to 200.0
Load speed and line speed
Use E40 "Display coefficient A".
(Displayed value) = (Output frequency) x (0.01
to 200.0)
The effective value of the display data is 0.01 to
200.0. Therefore the display is limited by the
minimum value of 0.01 and the maximum value
of 200.0 even if the value exceeds the range.
Target value and feedback amount of PID
adjuster
Set the maximum value of the display data at
E40 "Display coefficient A" and set the
minimum value at E41 "Display coefficient B".
Display value = (Target value or feedback
amount) x (Display coefficient A - B) + B
E42 LED display filter
The data of "LED monitor" includes data for which
display of the changing moment is not necessary.
This type of data can be provided with a filter for
flicker prevention.
The target display items are the output current
and output voltage.
Display value
Ａ
Target value or
feedback
B
0% 100%

5-26
C: Control Functions of Frequency
C01 Jump frequency 1
C04 Jump frequency hysteresis
These functions jump the inverter output frequency at the set frequencies to avoid mechanical
resonance with the load.
Three jump frequencies can be set.
This function is inactive when all the jump frequencies 1 through 3 are set at 0 Hz.
The frequencies are not jumped during acceleration or deceleration.
If the setting ranges of jump frequencies overlap, the sum of the setting ranges is jumped.
C01 C02 C03
Minimum unit: 1 Hz
C04
Minimum unit: 1 Hz
Jump frequency
width
Jump frequency 1
Jump frequency width
Jump frequency 2
Jump frequency width
Jump frequency 3
Outputfrequency(Hz)
Frequency setting (Hz)０
Jump
frequency
width
Outputfrequency(Hz)
Actual jump
width
Jump frequency 1
Jump frequency 2
Frequency setting (Hz)０

5-27
C05 Multistep frequency 1 through C19 Multistep frequency 15
Terminal functions SS1, SS2, SS4 and SS8 are turned on or off to switch multistep frequencies 1
through 15. (Refer to E01 through E05 for the definition of the terminal function.)
Undefined terminals among terminal functions SS1, SS2, SS4 and SS8 are assumed to be turned off.
Minimum unit: 0.01 Hz
ON ON ON ON ON ON ON ON
ON
ON ON ON ON
ON ON
ON
C05
Outputfrequency(Hz)
FWD-CM
SS1-CM
SS2-CM
SS4-CM
SS8-CM
C06
C07
C08
C09
C10
C11
C12
C13
C14
C15
C16
C17
C18
C19
0
Time
P24
P24
P24
P24
P24

5-28
C21 Timer operation
C22 Stage 1
An operation pattern from the start of
operation to automatic stop can be created.
C21
Select active or inactive timer operation.
0: Inactive timer operation
1: Active timer operation
C22
Set the time from the start of operation to
automatic stop.
Setting range: 0.00 to 3600 s
Note) If the power is turned off or the inverter is
stopped or trips during timer operation, the
counted time is reset.
C30 Frequency command 2
Select the frequency setting method.
For the selectable frequency setting methods,
refer to the description of F01.
C31 Analog setting signal offset
adjustment (Terminal 12)
C32 Analog setting signal offset
adjustment (Terminal C1)
Set the offset of the analog input (terminal [12],
terminal [C1]).
The offset can be set in the range between -5.0
[%] and + 5.0 [%] of the maximum output
frequency (in 0.1 [%] step).
Frequency setting
Maximum
output
frequency
Frequency setting
voltage input
Terminal【12】
＋5%
-5%
-10V
+10V
Maximum
output
frequency
Frequency setting
current input
Frequency setting
Terminal【C1】
＋5%
-5%
0
4mA
20mA
C33 Analog setting signal filter
The analog signal supplied to control terminal
12 or C1 sometimes includes electric noise.
Electric noise make the control unstable. Adjust
the time constant of the input filter to remove
the effects of electric noise.
With a large time constant (setting), the control
becomes stable but there is a delay in the
control response. With a small time constant,
the response is quick but the control becomes
unstable.
If the setting is not clear, change the setting
when the control is unstable or the response is
slow.
Note) The function applies to both terminals [12]
and [C1] (in common). However, when a
PID feedback signal is input, H25 "PID
control feedback filter" is applied.
20mA

5-29
P: Motor parameters
P01 Number of motor 1 poles
◆ This parameter is the number of poles of driven
motor 1. Write a value to display correct motor
speeds (synchronized speeds) at the LED.
Setting range: 2, 4, 6, 8, 10, 12 or 14
P02 Motor 1 (Capacity)
◆ A standard applicable motor capacity is set
before shipment from the factory. Change the
setting to drive a motor rated at other than the
standard applicable motor capacity.
Setting range:0.01 to 5.50 kW(3.7kW or smaller)
0.01 to 11.00kW (5.5,7.5kW)
Set the standard applicable motor capacity
specified in section 9-1 "Standard
Specifications". The setting range should be
between the rank higher by one rank or lower by
two ranks from the standard applicable motor
capacity. If the range is exceeded, accurate
control may not be possible. If a value between
the standard applicable motor capacity and the
capacity of another rank is set, the data of the
lower capacity is automatically written for the
data of the related functions.
◆ After the setting of this function is changed, the
settings of the following related functions
change to the data for the Fuji's three-phase
standard motor.
P03 "Motor 1 (Rated current)"
P06 "Motor 1 (No-load current)"
P07 "Motor 1 (%R1)"
P08 "Motor 1 (%X)"
Note)The settings of Fuji's three-phase standard
motor are the data for 3-phase 200V or 400V
/ 50 Hz.
P03 Motor 1 (Rated current)
◆This parameter is the rated current of motor 1.
Setting range: 0.00 to 99.9 A
P04 Motor 1 (Tuning)
◆ The motor data is measured and the data is
automatically written.
０ Inactive
１ The primary resistance (%R1) of the
motor and the leakage reactance (%X)
of the base frequency are measured
while the motor is stopped, and the data
is automatically written to P07 and
P08.(Static tuning)
２ The primary resistance (%R1) of the
motor and the leakage reactance (%X)
of the base frequency are measured
while the motor is stopped, then the
no-load current (Io) is measured while
the motor turns, and P06, P07 and
P08 are automatically written.(Dynamic
tuning)
Perform a tuning when the P06, P07 and P08
data written in the inverter in advance differs
from the actual motor data, that is, in the
following cases. Improvement in the control and
calculation accuracy is expected.
・ When a motor other than the Fuji's standard
three-phase motor (4 poles) is used.
・ When the impedance on the output side cannot
be ignored due to a long wiring length between
the inverter and the motor or connection of a
reactor.
・ When %R1 or %X is unknown due to a
nonstandard motor or a special motor.
・
1. Adjust the voltage and frequency according to
the characteristics of the motor. Adjust "F03",
"F04", "F05" and "F06".
2. Enter the motor constants which cannot be
tuned. P02 "Capacity", P03 "Rated current",
P06 "No-load current" (The no-load current is
not necessary in Dynamic tuning.)
3. To tune the no-load current, too, disconnect the
motor from the mechanical units and check that
no danger occurs even if the motor turns.
4. Set P04 "Tuning" to "1" (motor stop) or "2"
(motor rotation) and press the FUNC/DATA key
to write the data, then issue an operation
command (press the RUN key or turn the FWD
or REV terminal on) to start tuning. Tuning
takes several seconds to several tens of
seconds. (When the setting is "2", the motor
accelerates to a half of the base frequency in
the set acceleration/deceleration time to tune
the no-load current, then decelerates. Therefore
the time necessary for tuning varies according
to the set acceleration/deceleration time.)
5. During tuning, the set data ("1" or "2") blinks
rapidly and, upon the end of tuning, the next
function code (P05) is displayed. When the
FWD or REV terminal is connected to start
tuning, disconnect the terminal.
Note) Turn the BX and RST terminals off before
starting tuning.
！！！！
WARNING
• If auto tuning is set at "2", the
motor turns at a half of the base
frequency. Make sure that the
motor is disconnected from the
mechanical units and that no
danger results from the rotation.
Tuning procedure

5-30
P05 Motor 1 (Online tuning)
◆ The motor temperature changes after operation
for a long time, changing the motor speed. Use
online tuning to reduce the speed fluctuation
caused by temperature changes of the motor.
０ Inactive
１ Active
P06 Motor 1 (No-load current)
This parameter is the no-load current (exciting
current) of motor 1.
Setting range: 0.00 to 99.9 A
P07 Motor 1 (%R1 setting)
P08 Motor 1 (%X setting)
◆ Write these parameters when a motor other
than the Fuji's standard three-phase motor is
used and the impedance between the inverter
and motor and motor constant are already
known.
◆ Calculate %R1 in the following formula.
%
/( )
[%]R
R CableR
V xI
x1
1
3
100=
+
where R1:
Resistance of primary coil of motor for single
phase [ohm]
Cable R:
Resistance of output cable for single phase
[ohm]
V:
Rated voltage [V]
I:
Rated motor current [A]
◆ Calculate %X in the following formula.
%
/ ( )
/ ( )
[%]=
+ + +X X X XM X XM CableX
V X I
X
1 2
3
100
2
where
X1:Primary leakage reactance of motor [ohm]
X2:Secondary leakage reactance of motor
(conversion to primary value) [ohm]
XM:Motor excitation reactance [ohm]
Cable X:Reactance of output cable [ohm]
V:Rated voltage [V]
I: Rated motor current [A]
Note) Use the reactance effective at F04 "Base
frequency 1".
◆ Add the value for a reactor and filter connected
to the output circuit. If the cable value can be
ignored, the cable value should be "0".
P09 Motor 1 (Slip compensation control 1)
◆ When the load torque changes, the motor slip
changes and the motor speed fluctuates. With
the slip compensation control, a frequency
proportional to the motor torque is added to the
output frequency of the inverter to minimize the
fluctuation of the motor speed caused by torque
changes.
◆ Calculate the slip compensation data in the
following formula.
Slip compensation amount
Base frequency X
Slip r
Synchronized speed r
Hz
=
[ / min]
[ / min]
[ ]
(Slip) = (Synchronized speed) - (Rated speed)
P10 Motor 1 (Slip compensation response
time 1)
Set the response time for slip compensation.
Note) With a small setting, the response time
becomes shorter, but regeneration may
cause overvoltage tripping with some loads.
In this case, set this function to longer time.

5-31
H:High Performance Functions
H01 Total operation time
The total power-on time of the inverter is
displayed.
A number between 0 and 6500 is displayed,
indicating 0 to 65000 hours. (The time is
displayed in ten hours, though the inverter
counts each hour. The time shorter than one
hour is not counted.)
H02 Trip history
A history of the latest four events of activation of
protective functions is stored in memory. To call
up each event, press the key. Press the
or key to confirm the history.
Procedure Display
example
Remarks
1 Call up
H 0 2
H 0
2
2
↓ ↑
1. O U
2
The latest
protective
operation is
displayed.
3
↓ ↑
2. O H
1
The protective
operation
before the
previous one is
displayed.
4
↓ ↑
3. O C
1
The protective
operation
before the two
previous ones
is displayed.
5
↓ ↑
4. - -
-
The protective
operation
before the
three previous
ones is
displayed.
6
↓
→
↑ E n
d
The new record of protective operation is stored in
the latest protective operation memory, and the
previous records are shifted one by one, and the
record of protective operation before the four
previous ones is deleted.
H03 Data initializing(Data reset)
This function restores (initializes) the factory
data over alterations made by the user.
Setting 0: Disabled
1: Initialize
Press the STOP and keys simultaneously
to change the setting to "1", then press the
key to initialize the settings of all functions. After
initialization is completed, the setting automatically
returns to "0".
H04 Auto-reset(Times)
H05 Auto-reset (Reset interval)
When the protective function of the inverter which
starts the retry function is activated, operation of
the inverter protective function is canceled to
restart the inverter automatically instead of an
alarm and output stop.
H04
Set the number of resetting cycles of the
protective function.
Setting range: 0 to 10 (0: retry inactive)
H05
Set the wait time from activation of a protective
function to resetting.
Setting range: 2 to 20 s
Inverter protective functions for retry and start
OC1，OC2，OC3 Overcurrent
OU1，OU2，OU3 Overvoltage
OH1 Overheated heat sink
dbH Overheated braking
resistor
OL1 Overloaded motor 1
OL2 Overloaded motor 2
OLU Overloaded inverter
When the data of H04 Retry (Times) is set to 1
to 10, retry operation starts and the time set at
H05 "Retry (Reset interval)" elapses, then an
inverter start command is automatically input. If
the cause of the alarm has been removed, the
inverter starts without entering the alarm mode.
If the cause of the alarm remains, the protective
function is activated again to wait for the time
set at H05 "Retry (Times)". If the cause of the
alarm is not removed after the number of
repetition cycles set at H04 "Retry (Reset
interval)", the inverter enters the alarm mode.
！！！！
WARNING
If the retry function has been
selected, the inverter may
automatically restart according to
some causes after tripping. (Design
the machine so that human safety is
ensured after restarting.)
Otherwise an accident could
occur.

5-32
Alarm
Protective
function
Protective
function
automatic
reset
command
Time
Output
frequency
■■■■Upon failure of retry
Disappearance
Active
H05 Wait time
0.1S
Start
Occurrence
ActiveActiveActive
H05:
(Wait time)
0.1S
H05:
(Wait time)
0.1S 0.1S
End of retry
First
time
Second
time
H04: (Count)
setting
Alarm
reset
■■■■Upon success of retry
Occurrence Disappearance
Output
frequency
Protective
function
automatic
reset
command
Protective
function
Alarm
Active
H06 Fan stop operation
With this function, the temperature of the heat
sink is detected while the inverter is turned on,
to turn on or off the cooling fan automatically. If
this function is not selected, the cooling fan
rotates at any time.
Setting 0: No on/off control
1: On/off control
H07 ACC/DEC pattern (Mode select)
Select the acceleration/deceleration mode.
Setting 0: Inactive
(linear acceleration/deceleration)
(Weak)
(Strong)
3: Non-linear (for variable torque)
When the function is set at "1", "2" or "3", a
change in the acceleration or deceleration time
during acceleration or deceleration is not reflected
immediately. The setting becomes effective after a
constant speed is reached or the inverter is
stopped.
【S-curve acceleration/deceleration】
To reduce the shock of the mechanical system,
the change in the output frequency is made
smooth when the frequency is set.
Output frequency
０
f[Hz]
t[s]
βdecβdecβaccβacc
α
α
Steep S-shape pattern
Slow S-shape pattern
<Constant of each pattern>
H07 = 1
(slow S-curve
pattern)
H07 = 2
(steep S-curve
pattern)
Range of
S-curve
（α）
0.05 x
(Maximum
output
frequency [Hz])
0.10 x
(Maximum
output
frequency [Hz])
S-curve
time
during
accelerati
on
（βacc）
0.10 x
(Acceleration
time [s])
0.20 x
(Acceleration
time [s])
S curve
time
during
decelerati
on
（βdec）
0.10 x
(Deceleration
time [s])
0.20 x
(Deceleration
time [s])
When the acceleration/deceleration time is
extremely long or short, the result is linear
acceleration/deceleration.
【Curved acceleration/deceleration】
Use this option to minimize the
acceleration/deceleration time for an
acceleration/deceleration pattern of the motor
including the operation zone in the constant output
range.
Deceleration time
Maximum output
frequency
Output frequency
Base frequency
t[sec]0
Acceleration time
Set frequency
Retry count
clear
5 minutes

5-33
H09 Start mode (Rotating motor pickup)
This function smoothly starts a motor coasting
due to an external force or the like after
momentary power failure.
The speed of the motor is detected upon power
recovery or restart and the same frequency as
that for the motor speed is output. Therefore the
motor starts smoothly without a shock. However,
when the coasting speed of the motor
converted in the inverter frequency exceeds 120
Hz, setting of F03 "Maximum frequency 1" or
setting of F15 "Frequency limiter (High)", the
regular starting method is adopted.
Setting Regular starting Restarting after
momentary
power failure
０ Inactive Inactive
１ Inactive Active
２ Active Active
Description of setting
1:This function is effective when the setting of F14
"Restart after momentary power failure
(Operation selection)" is "2" or "3".
Starting is made at the same frequency as that
for the coasting speed.
2:Upon restart after momentary power failure,
operation command ON and other starting
methods, the speed of the coasting motor is
detected and starting is made at the same
frequency as that for the coasting speed.
Note) When this function is used, use the
following setting to detect the accurate
rotation speed of the motor.
When a motor other than the one made by Fuji
Electric is used or when the wiring length is long,
perform P04 Tuning.
H10 Energy-saving operation
When the output frequency for a small load is
constant (constant speed operation) and the
setting of F09 "Torque boost 1" is other than "0",
the output voltage is automatically lowered to
minimize the product (power) of the voltage and
the current.
Setting 0: Inactive
1: Active
Notes)
1. Use this function for fans, pumps or other
square reduction torque loads. If this function is
applied to a constant torque load or to an
application with a rapidly changing load, there is
a delay in the control response.
2. The energy-saving operation is automatically
canceled to resume regular operation during
acceleration or deceleration or when the torque
limiter function is activated.
H11 Dec mode
Select the stopping method of the inverter after
a stop command.
Setting 0: Normal
(Deceleration to stop based on data of
H07 "ACC/DEC pattern")
1: Coast-to-stop
Note) This function is not activated when the set
frequency is lowered to stop. The function is
activated only when a stop command is
input.
H12 Instantaneous overcurrent limiting
When the motor load abruptly changes to cause
a current exceeding the protective level of the
inverter to flow, the inverter trips due to the
overcurrent. The Instantaneous overcurrent
limiting function controls the inverter output
within the protective level even upon an
excessive load.
The operation level of the Instantaneous
overcurrent limiting cannot be adjusted. Use the
torque limit function to set on output limitation.
The torque generated by the motor may
become low in a Instantaneous overcurrent
limiting state. Therefore deactivate the
momentary overcurrent limit function for
applications such as the elevator where the
torque generated by the motor must not be low.
In this case, because the inverter trips due to an
overcurrent when a current exceeding the
protective level of the inverter flows, use forcible
stopping measures by a mechanical brake or
other protective measures.
Setting 0: Inactive
1: Active
H13 Auto-restart (Restart time)
When the power supply to a running motor is
shut off or power failure occurs and the power
supply is quickly switched to another system,
the phase of the voltage of the new system
deviates from the phase of the voltage
remaining in the motor and electrical or
mechanical trouble may be developed. When
switching the power supply system in a short
time, write the time for attenuation of the
remaining voltage from the motor after power
shutoff. The setting is effective during restart
after momentary power failure.
If the duration of momentary power failure is
shorter than the wait time data, restart is made
after this time. If the duration of momentary
power failure is longer than the wait time data,
restart is made after completion of operation
preparation of the inverter (about 0.2 to 0.5 s).

5-34
H14 Auto-restart(Frequency fall rate)
This function determines the drop ratio of the
output frequency for the synchronization
between the output frequency of the inverter
and the motor speed, that is, the speed of
synchronization. This function is also used to
drop the frequency as a stall prevention function
for an excessive load during regular operation.
Setting range: 0.00, 0.01 to 100.0 Hz/s
Set "0.00" to drop according to the currently
selected deceleration time.
Note) A large frequency drop ratio may cause
temporary increase in the regeneration
energy from the load, activating the
overvoltage protection function. On the
contrary, a small frequency drop ratio may
cause long operation time of the current
limit function, activating the inverter
overload protection function.
H20 PID control (Mode select)
to
H25 PID control (Feedback filter)
The PID control detects a control amount
(feedback value) from the sensor of the
controlled object and compares it with the
reference value (set temperature, etc.). Upon
difference between them, an action is taken to
reduce the difference. That is, this control
method makes the feedback value become
consistent with the reference value. This
method can be applied to flow control, pressure
control, temperature control and other process
controls.
Reference
Ｐ
Driving
part
Target of
control
Ｉ
Ｄ
＋
＋＋
＋
-
Feedback value
Because forward and reverse operation can be
selected for the output of the PID controller, the
rpm of the motor can be increased or
decreased in relation to the output of the PID
controller.
H20
Setting 0: Inactive
1: Normal operation
2: Inverse operation
Normal operation
Inverse
operation
Maximum
frequency
0
0% 100%PID output
Inverter output
frequency
The reference value can be given at F01
"Frequency command 1" or directly input from
the keypad panel.
Select an arbitrary terminal from E01 "X1
terminal (Function selection)" through E05 "X5
(Function selection), and set data "9" (frequency
command 2 / frequency command 1).
To obtain the reference value from F01
"Frequency command 1", input an OFF signal
to the selected terminal. When inputting directly
from the keypad panel, turn the selected
terminal on.
The process amount of the reference value and
feedback value can be displayed based on the
setting at E40 "Display coefficient A" and E41
"Display coefficient B".
0 100%
Display coefficient Ａ
Display coefficient B
100% reference value
feedback value

5-35
Note: Numbers marked # indicate the
setting of each function.
Direct frequency setting
at keypad panel
Process amount setting
at keypad panel
Setting selected at F01
Frequency setting 1
PID
calculator
Forward
operation
Reverse
operation
Frequency
command
Driving
part
Control
target
Signal
reverse
Signal
reverse
H21 (Setting signal switch)
Terminal 12
Terminal C1
＃0
＃16
＃1
＃3
＃2
E01 to E05 (Function) PID
control cancel
＃9
E01 to E05 (Function)
Frequency setting 1/2 switch
＋
－
＃1
＃2
H20 (Operation
selection)
H21 PID control (Feedback signal)
Select the feedback value input terminal and
electrical specification of the terminal. Select
one from the table below according to the
specifications of the sensor.
Setting Selection item
0
Control terminal 12, normal operation
(voltage input 0 to +10V)
1
Control terminal C1, normal operation
(current input 4 to 20 mA)
2
Control terminal 12, inverse operation
(voltage input +10 to 0V)
3
Control terminal C1, inverse operation
(current input 20 to 4 mA)
Note) The feedback value of the PID control can
be input only in the positive polarity. The
negative polarity (0 to -10 Vdc, -10 to 0 Vdc,
etc.) cannot be input. Therefore the control
cannot be applied to reversible operation
using the analog signal.
Normal operation
Inverse
operation
100％
0％
0V
4mA
10V
20mAInput
Feedback value
H22 PID control (P (P gain))
Generally speaking, P: gain, I: integral time and
D: differential time are not used alone.
Functions are combined like: P control, PI
control, PD control and PID control.
P action
An operation where there is proportional
relationship between the amount of operation
(output frequency) and deviation is called P
operation. Therefore the P action outputs an
operation amount proportional to the deviation.
However, the deviation cannot be eliminated by
only the P action.
Setting range: 0.01 to 10.00 times
Time
Devi-
ation
Amount
of
opera-
tion
The P gain is a parameter which determines the
degree of response to the deviation of P action.
With a large gain, the response is quick but
hunting is likely to occur. With a small gain, the
response is stable but slow.
Time
Re-
sponse

5-36
H23 PID control (I (integral time))
I action
An operation where the speed of the change in
the amount of operation is proportional to the
deviation is called I action. Therefore the I
action outputs an operation amount obtained
from integration of the deviation. For this reason,
the I action is effective to converge the control
amount to the reference value. However,
response is slow to the deviation with abrupt
changes.
Time
Devia-
tion
Amount
of
opera-
tion
Setting range: 0.0 Inactive, 0.1 to 3600 s
To determine the effect of the I action,
I: integral time is used as a parameter. With a
long integral time, the response is slow and
reaction to an external force is small. With a
small integral time, the response is quick. When
the integral time is too small, there is hunting.
H24 PID control (D (Differential time))
D action
An operation where the amount of operation is
proportional to the differential value of the
deviation is called D action. Therefore, the D
action outputs an operation amount obtained
from the differentiation of the deviation and the
response to abrupt changes is quick.
Time
Devia-
tion
Amount
of
opera-
tion
Setting range: 0.00 Inactive, 0.01 to 10.0 s
D: differential time is used as a parameter to
determine the effect of the D action. With a long
differential time, decrease in the vibration
caused by the P action upon deviation is quick.
With too large a differential time, vibration may
become larger. With a small differential time,
decrease in the deviation becomes smaller.
PI control
Deviation remains with P action only. To
eliminate the remaining deviation, I action is
added and P + I control is generally adopted.
The PI control functions to always eliminate
deviation in spite of changes in the reference
value and stationary disturbances. However,
when the I action is strong, response to the
deviation with abrupt changes is slow.
P action only can be used for loads with an
integral factor.
PD control
Upon deviation, the PD control generates an
operation amount larger than that obtained by D
action only, to reduce the increase of the
deviation. When deviation is reduced to small,
the function of the P action is made smaller.
For a load including integral factors to be
controlled, the P action alone can cause hunting
in the response due to the action of the integral
factors. The PD control is used in such cases to
decrease hunting of the P action to stabilize.
That is, this control method is applied to loads
having no braking in the process itself.
◆PID control
The function of the I action to reduce the
deviation and the function of the D action to
suppress hunting are combined with the P
action. Accurate responses without deviation
are obtained.
This control method is effective to loads which
take time from generation of deviation to
development of a response.
H25 PID control (Feedback filter)
This function provides a filter for the feedback
signal input at control terminal 12 or C1. The
filter makes the operation of the PID control
system stable. However, an excessively large
setting causes a poor response.

5-37
H26 PTC thermistor (Mode select)
Select this function for a motor equipped with a
PTC thermistor for overheat protection.
Setting 0: Inactive
1: Active
Connect the PTC thermistor as shown in the
figure. The protective operation is common with
the external alarm input. Therefore the
protective function operates at the "external
alarm".
Resistor
1000Ω
PTC thermistor
Ｈ２７
Com-
para-
tor
External
alarm
DC10V
Resistor250Ω
OV
(Operation level)
13
C1
11
H27 PTC thermistor (Level)
The voltage input at terminal [C1] is compared
with the set voltage and, when the input voltage
at terminal [C1] is larger than the set voltage
(operation level), H26 "PTC thermistor
(Operation selection)" is activated.
Setting range: 0.00 to 5.00 V
(The setting smaller than 0.10 is handled as
0.10.)
The alarm temperature is determined by the
PTC thermistor and the internal resistance of
the PTC thermistor changes largely at the alarm
temperature. Set the operation (voltage) level
using this change of resistance.
/PTC thermistor internal resistance
Rp2
Rp1
Alarm temperature Temperature
From the figure of H26 "PTC thermistor
(Operation selection)", the 250-ohm resistor and
the PTC thermistor (resistance Rp) configure a
parallel circuit. Therefore voltage VC1 (operation
level) of terminal [C1] is calculated in the
following equation.
Vc1 =
250 Rp
250 +Rp
1000 +
250 Rp
250 +Rp
X V
・
・
１０　［］
The operation level can be set when RP of the
VC1 calculation equation is in the following
range.
RP1 < RP < RP2
To determine RP simply, calculate the following
equation.
Rp =
Rp1 +Rp2
２
［Ω］
H28 Droop operation
◆ To drive one machine with two or more motors,
a larger load is exerted on the motor with a
larger speed. The droop control attributes
drooping characteristics to the speed during
load fluctuation to balance the load.
◆ The drooping amount is calculated in the
following formula.
Drooping amount Base frequency
X
Drooping content of speed at rated torque r
Synchronized speed r
Hz
=
[ / min]
[ / min]
[ ]
Setting range: - 9.9 Hz to 0.0 Hz
Rated torque
０ Synchronized
speed
Speed
Torque
Droop operation Droop operation inactive
Motor characteristics
H30 Serial link (Function select)
RS485 (standard accessory) can be connected
as a link function (communication function).
As a link function, the following items are
possible.
1) Monitoring (monitoring of various data,
confirmation of function code data)
2) Frequency setting
3) Operation command (FWD, REV and
other commands set for digital input)
4) Function code data writing
Setting range: 0 to 3
2
10

5-38
The validity of communication can be switched by
a digital input. Set the link functions available
through communications.
Setting Frequency
setting
Operation
command
０ Invalid Invalid
１ Valid Invalid
２ Invalid Valid
３ Valid Valid
The monitor function and function code data
writing function are always valid. When the
communication is disabled by means of a digital
input, a state similar to setting "0" is obtained.
H31 RS485 (address)
to
H39 RS485 (Response interval)
Set the various conditions of RS485
communication. Set according to the
specifications of the host unit. Refer to section
9-4 for protocol and other specifications.
H31
Set the station address of RS485.
H32 RS485 (Mode select on no response error)
Set the communication error handling process
and the error handling timer value.
Setting Communication error handling process
０ Immediate Er 8 trip (coast to stop)
１
Operation continues until the timer time
elapses, then Er 8 trip.
２
Operation continues and retry is made
until the timer time elapses, then Er 8
trip upon a communication error or
continuation of operation upon no
communication error.
３ Operation continues.
H33 RS485 (Timer)
Set the error handling timer value.
Setting range: 0.0 to 60. 0 s
H34 RS485 (Baud rate)
Set the transmission speed.
Setting Transmission speed
０１９２００ bit/s
１９６００ bit/s
２４８００ bit/s
３２４００ bit/s
４１２００ bit/s
H35 RS485 (Data length)
Set the data length.
Setting Data length
０８ bits
１７ bits
H36 RS485 (Parity check)
Set the parity bit.
Setting Parity bit
０ None
１ Even
２ Odd
H37 RS485 (Stop bits)
Set the stop bit.
Setting Stop bit
０ 2bits
１ 1bit
H38 RS485 (No response error detection
time)
In a system where there is always an access to
the station at certain intervals, no access
caused by broken wire or other errors is
detected and the inverter trips in Er8.
Setting range: 0 to 60 s
0: No detection
H39 RS485 (Response interval)
Set the time taken until a response is sent back
to the host unit upon a request.

5-39
H40 Maximum temperature of heat sink
The maximum value in each hour is displayed
in degree C.
H41 Maximum effective current
The maximum value in each hour is displayed
in A.
H42 Main circuit capacitor life
The capacity of the capacitor in the main circuit
is displayed in %. For the measuring conditions,
refer to section 8-2 (1) "Measurement of
capacitance of capacitor in main circuit".
H43 Cooling fan operation time
Integral hours is displayed. The displayed time
is 0 to 6500, indicating 0 to 65000 hours.
(Though the displayed value is in ten hours, the
inverter adds each hour. Operation shorter than
one hour is not counted.)
H44 Inverter ROM version
The version of the software of the inverter is
displayed.
H45 Keypad panel ROM version
The version of the software of the keypad panel
is displayed.
H46 Option ROM version
For inverters with optional equipment, the
version of the optional software is displayed.
A: Alternative motor parameters
A01 Maximum frequency 2
The maximum frequency output by the inverter for
motor 2. This parameter functions in the same way
as F03 "Maximum output frequency 1". For the
description, refer to F03 "Maximum output
frequency 1".
A02 Base frequency 2
The maximum output frequency in the constant
torque zone of motor 2, that is, the output
frequency at the rated output voltage. This
parameter functions in the same way as F04
"Base frequency 1". For the description, refer to
F04 "Base frequency 1".
A03 Rated voltage 2 (at base frequency 2)
The rated output voltage supplied to motor 2. This
"Rated voltage 1". For the description, refer to F05
"Rated voltage 1".
A04 Maximum voltage 2 (at maximum
frequency 2)
The maximum output voltage of the inverter for
as F06 "Maximum voltage 1". For the description,
refer to F06 "Maximum voltage 1".
A05 Torque boost 2
The torque boost function of motor 2. This
"Torque boost 1". For the description, refer to F09
"Torque boost 1".
A06 Electronic thermal overload relay for
motor 2 (Select)
motor 2 (Level)
motor 2 (Thermal time constant)
The electronic thermal overload relay functions of
motor 2. These parameters function in the same
way as F10 through F12 Electronic thermal
overload relay for motor 1. For the description,
refer to F10 through F12.
A09 Torque vector control 2
The torque vector function of motor 2. This
"Torque vector control 1". For the description, refer
to F42 "Torque vector control 1".
A10 Number of motor 2 poles
The number of poles of driven motor 2. This
parameter functions in the same way as P01
"Number of motor 1 poles". For the description,
refer to P01 "Number of motor 1 poles)".

5-40
A11 Motor 2 (Capacity)
The capacity of motor 2. This parameter functions
in the same way as P02 "Motor 1 (Capacity)". For
the description, refer to P02 "Motor 1 (Capacity)".
However, the function of related motor data
changes to A12 "Motor 2 (Rated current)", A15
"Motor 2 (No-load current)", A16 "Motor 2 (%R1
setting)" and A17 "Motor 2 (%X setting)".
A12 Motor 2 (Rated current)
The rated current of motor 2. This parameter
functions in the same way as P03 "Motor 1 (Rated
current)". For the description, refer to P03 "Motor
1(Rated current)".
A13 Motor 2 (Tuning)
Tuning of motor 2. This parameter functions in the
same way as P04 "Motor 1 (Tuning)". For the
description, refer to P04 "Motor 1 (Tuning)".
A14 Motor 2 (Online turning)
Online tuning of motor 2. This parameter functions
in the same way as P05 "Motor 1 (Online tuning)".
For the description, refer to P05 "Motor 1 (Online
turning)".
A15 Motor 2 (No-load current)
The no-load current of motor 2. This parameter
functions in the same way as P06 "Motor 1
(No-load current)". For the description, refer to
P06 "Motor 1 (No-load current)".
A16 Motor 2 (%R1 setting)
A17 Motor 2 (%X setting)
%R1 and %X of motor 2. These parameters
function in the same way as P07 "Motor 1 (%R1
setting)" and P08 "Motor 1 (%X setting)". For the
description, refer to P07 and P08.
A18 Motor 2 (Slip compensation control 2)
The slip compensation control of motor 2. This
parameter functions in the same way as P09
"Motor 1 (Slip compensation control 1)". For the
description, refer to P09 "Motor 1 (Slip
compensation control 1)".
A19 Motor 2 (Slip compensation response
time 2)
Set the response time for slip compensation of
as P10 "Motor 1 (Slip compensation response
time)". For the description, refer to P10 "Motor 1
(Slip compensation response time)".
o: Optional functions
o00 Option selection
0: Option inactive
1: Option active
Set 0 when option card is used.
Refer to the instruction manual of option card
for detail of optional functions.

6-1
6. Protective Operation
6-1 List of Protective Operations
When an error occurs to the inverter, a protective function is activated to trip the inverter immediately,
displaying the name of the alarm at the LED and allowing the motor to coast to stop.
Table 6-1-1 List of alarm display and protective operations
Name of alarm Display Description of operation
OC1 During
acceleration
OC2 During
deceleration
Overcurrent
protection
OC3 During constant
speed operation
The protective function is activated when an overcurrent flowing
in the motor or a short circuit or ground fault in the output circuit
causes the instantaneous inverter output current to exceed the
overcurrent detection level.
OU1 During
acceleration
OU2 During
deceleration
Overvoltage
protection
OU3 During constant
speed operation
The protective function is activated when the regenerative power
from the motor increases to cause the DC link voltage of the
main circuit to exceed the overvoltage detection level (Approx.
400 Vdc for 200V class, Approx. 800V for 400V class). When an
excessive voltage is added to the source voltage, the inverter
trips due to the overvoltage, but inverter protection against the
overvoltage is impossible.
Undervoltage
protection
LU The protective function is activated when the source voltage drops to cause the DC
link voltage in the main circuit to become lower than the undervoltage detection level
(Approx. 200 Vdc for 200V class, Approx. 400V for 400V class). If F14 Restart after
momentary power failure has been selected, no alarm display is given. If the voltage
drops below the control power maintenance level, no alarm is displayed.
Input phase
loss
protection
Lin When the inverter is operated while one of the three phases of the power supply
connected to the main power supply input terminals L1/R, L2/S and L3/T of the main
circuit is missing or there is an unbalance among the three-phase voltages, the
rectifying diode or smoothing capacitor of the main circuit may be broken. The
inverter is stopped upon an alarm in these cases.
Heat sink
overheat
OH1 The protective function is activated when the temperature of the heat sink of the
inverter is high because of a broken cooling fan or for other reasons.
External alarm
input
OH2 The protective function is activated by a contact signal from an alarm contact of the
external device such as the braking unit, braking resistor, and external thermal
overload relay connected to the control circuit terminal (THR). Or an overheat
protective function is activated by the PTC thermistor.
Braking
resistor
overheat
dbH If the electronic thermal overload relay (for braking resistor) has been selected for
function code F13, the protective function is activated upon a high operation
frequency of the braking resistor to prevent the resistor from being burned due to the
temperature rise.
Motor 1
overload
OL1 If electronic thermal overload relay 1 has been selected for function code F10, the
protective function is activated by a motor current exceeding the set operation level.
Motor 2
overload
OL2 If motor 2 has been selected and driven and electronic thermal overload relay 2 has
been selected for function code A06, the protective function is activated by the
current in motor 2 exceeding the set operation level.
Inverter
overload
OLU The protective function is activated by an output current exceeding the overload
current rating to protect the semiconductor elements in the main circuit of the
inverter from high temperatures.
Memory error Er1 The protective function is activated by a data writing error or other errors in the
memory.
Keypad panel
communication
error
Er2 The protective function is activated when a data transmission error or transmission
stoppage is detected between the keypad panel and the control section in the
keypad panel operation mode.
CPU error Er3 The protective function is activated by electric noise or other errors developed in the
CPU, or if P24 is overloaded.
Er4Option error
Er5
Error during operation of option
Output phase
loss
Er7 The protective function is activated during auto tuning when there is a broken wire or
no connection in the inverter output circuit.
RS485
communication
error
Er8 The protective function is activated when a communication error occurs during
communication through RS485.

6-2
6-2 Alarm Reset
When the inverter trips, remove the cause then press the PRG/RESET key on the keypad panel or input
a reset command from the RST control terminal to reset the tripping state. Because the reset command
is activated by an edge, supply the command in an OFF - ON - OFF sequence as shown in Fig. 6-2-1.
When resetting the tripping state, deactivate the operation command. If the operation command is left
turned on, the inverter starts operation immediately after the error is reset.
If an alarm reset is made with the operation signal turned on, a sudden start will occur.
Check that the operation signal is turned off in advance.
Reset command OFF ON OFF
Keypad panel display Regular display
Alarm display (ready to operate)
Alarm output OFF ON OFF
Figure 6-2-1
10 ms or longer
Trip

7-1
7. Troubleshooting
7-1 When Protective Function Goes Active
(1) Overcurrent
Overcurrent during
acceleration OC1
Overcurrent during
deceleration OC2
Overcurrent during
constant speed operation
OC3
Remove a short circuit or
the part including a
ground fault.
Check if the motor connection terminal (U, V, W) circuit includes a
short circuit or ground fault.
Reduce the load or
increase the inverter
capacity.
Check if the
torque boost
amount can be
decreased.
Check if the load is too large.
Check if the torque
boost amount is
proper.
Decrease the torque
boost amount.
Check if the
acceleration time
is too short for the
load.
Failure of the inverter or
malfunction caused by
electric noise or other
cause can be probable.
Contact Fuji Electric.
Check if the
deceleration time is
too short for the
load.
Check if the
acceleration time can
be made longer.
Check if the
deceleration time
can be made
longer.
Set a longer time.
Reduce the load or increase
the inverter capacity.
The braking method
must be examined.
Contact Fuji
Electric.
Reduce the load
fluctuation or
increase the inverter
capacity.
Check if there has
been an abrupt
change in the load.
YES
YES
NO
NO NO NO
NO NO NO
YESYES
YESYES
NO
NO
NO
YES
NO
NO
YES
YES
NO

7-2
(2) Overvoltage
YES
NO
NO
Overvoltage during
acceleration OU1
Overvoltage during
deceleration OU2
Overvoltage during
constant speed
operation OU3
Decrease the source
voltage to lower than the
upper limit in the
specifications.
Check if the source voltage is within the range specified in
the specifications.
YES
NO
YES YES
Check if operation is observed after sudden removal of the
load.
NO NO NO
Check if the DC link voltage of the main circuit during
activation of the overvoltage is beyond the protective level.
YES YES YES
malfunction due to
cause is probable.
Check if operation
is possible after
sudden
acceleration.
Check if the deceleration
time can be made longer.
Check if the acceleration
time can be made longer.
Set a longer
deceleration
time.
Reduce the inertia
moment.
NO
Check if the inertia moment of the load can be made
smaller.
NO NO NO
NO NO
YES
Check if a braking unit or DC control function is used.
YES YES YES
Examination of the control method is necessary. Contact Fuji Electric.
NO
Examine
applicati
on of a
braking
unit or
DC
braking
function.
(3) Undervoltage
NOYES
Undervoltage
LU
Reset and
restart
operation.
Check if power failure
(including momentary one)
has occurred.
YES
NO Replace the
defective device
or repair the
connection error.
Check if there is failure of a
device or poor contact in
the power supply circuit.
YES
Failure of the inverter
control circuit or
malfunction due to
cause is probable.
Check if there is a load
requiring a large starting
current in the same power
supply system.
NO
Check if
operation is
observed when
the circuit
breaker and
electromagnetic
contactor are
turned on.
Examine the power
supply system so that
the specification
values are satisfied.
Failure of the
inverter is
probable. Contact
Fuji Electric.
Check if the power supply
transformer capacity is
proper.
Check if the current
(across P and N)
and the voltage of
the main circuit are
above the detection
level specified in
Table 6-1-1.
YES
NO
YES
YES
NO
YES
Check if the
source voltage
is within the
range specified
in the
specifications.
YES
YES
NO

7-3
(4) Inverter inside overheat or heat sink overheat (5) Eternal alarm input
YES
Heat sink
overheat OH1
Confirm the heat
sink temperature at
the keypad panel.
(H40)
Check if the load
exceeds the
allowable limit.
YES
Check if the
temperature of the
heat sink is -10 ゜C
or lower.
he detection circuit
in the printed circuit
board is faulty.
Contact Fuji
Electric.
NO
YES
Reduce the load.
Check if the
cooling fan
rotates.
NO
YES Replace the cooling
fan.
Check if the path
of cooling wind is
blocked.
NO
YES
Remove obstacles.
Check if the
ambient
temperature is
within the
specification limits.
NO
Failure of the
inverter or
malfunction due to
electric noise or
other cause is
probable. Contact
Fuji Electric.
Improve the ambient
temperature to within
the specification limits.
NO
External alarm
input OH2
Check if the
operation level
(H27) is set at the
proper value.
YESCheck if the PTC is
activated.
A problem in the
load or cooling
system of the motor
is probable. Check
the motor.
NO
NO Change to a proper
value.
Check if the external
circuit (including
constants) is proper.
NO
YES
Change to the
correct external
circuit.
NO
malfunction due to
cause is probable.
Check if PTC
input (H26) is set
active.
YES
NO
Check if control terminal
function THR is
assigned to X1 to X5
and an alarm signal of
the external device is
connected between the
terminal and the CM
terminal.
NO
Check if the alarm
function of the
connected external
device is activated.
Remove the cause
of activation of the
alarm function.
NO
YES
malfunction due to
cause is probable.
NO
(6) Inverter overload, motor overload
Inverter overload
OLU
Reduce the load or increase
the inverter capacity.
YES
Check if the
characteristics of the
electronic thermal
overload relay and the
overload characteristics
of the motor are in
harmony.
Connect an
external thermal
overload relay.
NO
Motor overload
OL1, OL2
Connect the alarm
signal contact.
Check if the electronic
thermal overload relay
is properly set.
Set to the proper
level.
NO
YES
Check if the load is
excessive.
Failure of the inverter or malfunction
due to electric noise or other cause is
probable. Contact Fuji Electric.
NO
YES
(6) Inverter overload, motor overload
YES
NO
YES
YES

7-4
(7) Memory error Er1, keypad panel communication
error Er2, CPU error Er3
(8) Output wiring error
Er1/2/3 display,
irregular display or
dark display
Turn the power
off, wait until the
charge lamp
(CRG) is unlit,
then turn the
power on again.
YESCheck if the
correct data is
displayed on the
LED. Failure of the
inverter. Contact
Fuji Electric.
NO
Output wiring
error Er7
YES
Check if the braking
unit or damping
resistor is
erroneously
connected.
Connect correctly
or correct the
wiring.
Check if the error
occurs during
tuning.
NO
Correct the point of
trouble.
Check if the
connectors, sockets,
ICs and other parts
are properly
connected and if
there is no source of
electric noise
nearby.
NO
The inverter is
correct. continue
operation.
NO
or malfunction due to
cause is probable.
YES
Check if the circuits
at terminal U, V and
W are disconnected
or there is a broken
wire in them.
Connect correctly
or correct the
wiring.
NO
YES
Check if the
connector for
connecting the
keypad panel is
disconnected.
Insert the
connector.
NO
YES
Check if control
terminal FWD or
REV is connected
with the CM
terminal.
Disconnect the
connection.
NO
cause is probable.
Input phase lack Lin
YES
Check if all the
power supply
terminals L1/R,
L2/S and L3/T of
the main circuit are
connected with
cables.
Connect all the
three phases.
NO
YESCheck if the screw
of the terminal
block is loose.
Tighten the screw
of the terminal
block.
NO
YES
Check if there is a
large voltage
imbalance among
three phase supply
phases.
The power supply
is faulty. Inspect
the power supply
system including
wiring.
cause is probable.
(9) Input phase lack
Input phase loss Lin
unbalance
(9) Input phase loss
P24
YES
braking

7-5
7-2 When Motor rotates Incorrectly
(1) The motor does not rotate.
The motor does not
rotate.
Remove the cause of
the alarm, reset the
alarm then start
operation.
YES
Turn them on.
Check if the charge
lamp (CRG) is lit and
that the keypad panel
displays something.
NO
Check if the alarm
mode screen is
displayed.
Check if the circuit
breaker and
electromagnetic
contactor of the power
supply are turned on.
NO
YES
YES
NO
Check if the voltage
at the power supply
terminal (R/L1, S/L2,
T/L3) is correct.
Check for voltage
drop, phase lack,
connection errors,
poor contact and
other problems and
take necessary
actions.
NO
YES
Check if the operation
commands are input
through the keypad
panel or through the
control terminals.
Check if a jumper or
DC reactor is
connected across
terminals P1 and P (+).
NO
Connect.
Continue operation if
no error is found.
Keypad
panel
Control
terminal
YES
Check if the motor
rotates when the
RUN key is pressed.
is probable. Contact
Fuji Electric.
YES
Check if the forward
or reverse operation
command is input.
Check if the external
circuit wiring across
control terminals FWD and
REV and the CM terminal
is connected correctly.
NO NO YES The switch or relay is
faulty; replace the
faulty parts.
Press the up or down
key to set the
frequency.
Check if the
frequency is set.
Check if control terminals
13, 12, 11 and C1 or, with
multistep frequency
selection, external circuit
wiring across X1 to X5 and
the CM terminal is
connected correctly.
Correct the wiring.
YES YESNO
NO
YES
Check if the motor
rotates when the
up or down key is
pressed.
Check if the upper
frequency limiter and
the set frequency are
smaller than the
starting frequency.
The frequency setting
unit, signal converter,
switch, relay contact or
other unit is faulty.
Replace the faulty
parts.
YES
Check that the
voltage is present at
the inverter output
terminals (U, V, W).
Check if the wiring to
the motor is correct.
Set the correct
frequency.
Failure of motor.
Increase the torque
boost amount.
Check if the load
is excessive.
Check if the torque
boost amount is
correctly set.
YES YES
NO
NO
NO
NO
YES
NO
NO
is probable. Contact
Fuji Electric.
YES
Correct the wiring.
NO
NO
YES Note: For the
operation command
frequency setting
and other data,
select each function
and monitor at the
keypad panel.
YES
YES The load is excessively large and the motor is
locked. Reduce the load. For motors with a
mechanical brake, check that the brake is
released.
NO
The motor does not start when a coast-to-stop command or DC braking command is being input.
P24
P24

7-6
(2) The motor rotates but the speed does not change.
The motor rotates
but the speed does
not change.
Change the
setting.
YES
Set a larger value.
Check if the
maximum frequency
setting is small.
NO
YES Check if the upper/
lower frequency
limiter is activated.
NO
Check if the timer
time is too long.
YES
Set the frequency.
Keypad panel
operation
Check if the speed
changes when the up
or down key is
pressed.
Pattern
operation
Check if the frequency
setting method is
keypad panel
operation, analog
signal,multistep
frequency, or UP/
DOWN method. Check
if the operation method
is pattern operation.
Check if the
frequency setting
signal (0 to +/-10 V, 4
to 20 mA) changes.
Analog signal
Check if the end
of the pattern is
reached.
Check if the
acceleration time
and deceleration
time are identical.
Multistep frequency
or UP/DOWN
Check if the wiring or
the external circuits
across control
terminals X1 through
X5 and the CM
terminal are correct.
YES
YES
NO
Correct the wiring.
Check if the wiring of
the external circuits
with control
terminals 13, 12, 11
and C1 are correct.
NO
YES
YES
Check if the frequency
of each step for
multistep frequency is
different from each
other.
Correct the
frequency setting.
Replace the frequency
setting unit and signal
converter because
they are faulty.
NO
YES
NO
NO
NO
NO
YES
cause is probable.
Check if the
acceleration time and
deceleration time are
excessively long.
Change to the time
suitable for the
load.
YES
NO
YES
The change in the rotation speed of the motor is also small in the following cases.
— ””””F01 "Frequency command 1" and C30 "Frequency command 2" are set at "3" and a signal is input from both
of control terminals 12 and C1, and there is no change in the sum of them.
— The load is excessively large and the torque limit and current limit functions are activated.
P24

7-7
(3) The motor loses speed during acceleration.
The motor loses
the speed during
acceleration.
YES
Increase the time.
Check if the
acceleration time is
too short.
NO
Check if the inertia
moment of the motor
or load is too large.
NO
YES Check if a special
motor is used.
YES Contact Fuji
Electric.
NO
Use thicker cables
for the wiring
between the
inverter the motor
or reduce the wiring
length.
Check if there is
voltage drop at the
terminal of the motor.
NO
YES Reduce the inertia
moment of the load
or increase the
inverter capacity.
Reduce the torque
of the load or
increase the
inverter capacity.
Check if the torque of
the load is too large.
NO
YES
Check if the torque
boost amount is
proper.
NO
YES
Failure of the inverter,
malfunction due to electric
noise or other cause is
probable. Contact Fuji
Electric.
Increase the torque
boost amount.
(4) Excessive heat generation from motor
Excessive heat
generation from
motor
YES Reduce the torque boost
amount.
Check if the torque
boost amount is too
large.
NO
Check if continuous
operation is made at
extremely low speed.
NO
YES
Check if the load is
too large.
NO
Check if the output
voltages (at U, V and
W terminals) of the
inverter are balanced.
NO
Failure of the inverter,
malfunction due to electric noise
or other cause is probable.
Use a special motor
designed for the
inverter.
YES Reduce the load or
increase the motor
capacity.
YES
Failure of motor
Note: Heat generation with a large
frequency setting may be caused by
the waveform of the current. Contact
Fuji Electric.

8-1
8. Maintenance and Inspection
Perform daily and periodic inspection to avoid trouble and keep reliable operation for a long time. Take
care of the following items during work.
8-1 Daily Inspection
Visually inspect errors in the state of operation from the outside without removing covers while the
inverter operates or while it is turned on.
1) Check if the expected performance (satisfying the standard specification) is obtained.
2) Check if the surrounding environment satisfies the standard specification.
3) Check that the display of the keypad panel is free from errors.
4) Check for abnormal noise, excessive vibration and bad smell.
5) Check for traces of overheat, discoloration and other defects.
8-2 Periodic Inspection
After stopping the operation, turn the power off and remove the front cover to perform periodic inspection.
The smoothing capacitor at the DC section of the main circuit takes time to be discharged after the power
is turned off. After checking that the charge lamp (CRG) is unlit, check that the DC voltage is lower than
the safety level (25 VDC) using a multimeter or the like before starting work.
• Turn the power off and wait for at least five minutes before starting inspection.
(Further, check that the charge lamp is unlit and measure the DC voltage across the
P (+) and N (-) terminals to check that it is lower than 25V.)
• Maintenance and inspection and parts replacement should be made only by
appointed persons.
(Take off the watch, rings and other metallic matter before starting work.)
(Use insulated tools.)
• Never remodel.
Table 8-2-1 List of periodic inspection
Check part Check item How to inspect Evaluation criteria
Environment 1)Check the ambient temperature,
humidity, vibration and atmosphere
(dust, gas, oil mist, water drops).
2)Check if tools or other foreign matter
or dangerous objects are left around
the equipment.
1) Check visually
or measure
using
apparatus.
2) Visual
inspection
1) The standard
specification
must be
satisfied.
2) No foreign or
dangerous
objects are left.
Voltage Check if the voltages of the main circuit
and control circuit are correct.
Measure using a
multimeter or the
like.
The standard
specification must
be satisfied.
Keypad panel 1) Check if the display is clear.
2) Check if there is missing parts in the
characters.
1), 2) Visual
inspection
1, 2) The display
can be read
and there is
no fault.
Structure such as
frame and cover
1) Abnormal noise and excessive
vibration
2) Loose bolts (tightened parts)
3) Deformation and breakage
4) Discoloration and deformation
caused by overheat
5) Stains and dust
1) Visual or
hearing
inspection
2) Retighten.
3), 4), 5) Visual
inspection
1),2),3),4),5)
No abnormalities

8-2
Common 1) Check if bolts and screws are tight
and not missing.
2) Check the devices and insulators for
deformation, cracks, breakage and
discoloration caused by overheat and
deterioration.
3) Check for foulness and dust.
1) Retighten.
2), 3) Visual
inspection
1), 2), 3) No
abnormalities
Conductor
and wire
1) Check the conductor for discoloration
and distortion caused by overheat.
2) Check the sheath of the cable for
cracks and discoloration.
1), 2) Visual
inspection
1), 2) No
abnormalities
Terminal
block
Damage Visual inspection No abnormalities
Maincircuit
Smoothing
capacitor
1) Check for electrolyte leakage,
discoloration, cracks and swelling of
the case.
2) Check for safety valve protrusion and
remarkably protruding valve
3) Measure the capacitance.
1), 2) Visual
inspection
3) Monitor H42
Life judgment
and measure
with
capacitance
probe.
1), 2) No
abnormalities
3) Capacitance ≧
(Initial value) x
0.85
Resistor 1) Check for odor caused by overheat
and cracked insulator.
2) Check for broken wire.
1) Smelling and
visual
inspection
2) Visual
inspection or
measurement
with multimeter
under
disconnection of
one lead
1) No abnormalities
2) Within ± 10% of
displayed
resistance
Transformer Check for abnormal roaring noise and
odor.
Hearing, visual
and smelling
inspection
No abnormalities
Maincircuit
Relay 1) Check for chatters during operation.
2) Check for rough contacts.
1) Hearing
inspection
2) Visual
inspection
1),2)
No abnormalities
Controlcircuit
Control
printed circuit
board,
connector
1) Check for loose screws and
connectors.
2) Check for odor and discoloration.
3) Check for cracks, breakage,
deformation and remarkable rust.
4) Check the capacitors for electrolyte
leaks and deformation.
1) Retighten.
2) Smelling and
visual
inspection
3), 4) Visual
inspection
1),2),3),4)
No abnormalities
Cooling fan 1) Check for abnormal noise and
excessive vibration.
2) Check for loose bolts.
3) Check for discoloration caused by
overheat.
1) Hearing and
visual inspection,
or turn manually
(be sure to turn
the power off).
2) Retighten.
3) Visual inspection
4) Life judgment
based on
maintenance
data*
1) Smooth rotation
2),3)
No abnormalities
Coolingsystem
Ventilation
path
Check the heat sink, intake and exhaust
ports for clogging and foreign matter.
Visual inspection No abnormalities
Remarks: Remove foulness using cleaning cloth which is chemically neutral. Use a vacuum cleaner to
remove dust.

8-3
＊Judgment of life using maintenance data
The maintenance data of function codes H42 and H43 can be used to display data for the judgment of the
capacitance of the capacitor in the main circuit and the life of the cooling fan to obtain a measure for the
judgment of parts replacement. The capacitor life forecast signal is issued at the Y1 and Y2 terminals
according to the measured capacitance after the capacitance of the capacity reaches 85%.
(1) Measurement of capacitance of capacitor in main circuit
This inverter is provided with a function where the capacitance of the main circuit capacitor is
automatically measured upon shutoff of the inverter under certain conditions and it is displayed on
the keypad panel upon power-up.
The capacitance of the capacitor is displayed in the reduction ratio (% display) of the initial value
stored inside the inverter before shipment.
Procedure of measurement of capacitor capacitance
1. Remove the optional card from the inverter if it is mounted. Disconnect the braking unit or direct
current bus to another inverter from the P (+) and N (-) terminals of the main circuit if there is any.
The power factor improving reactor (DC reactor) may not be disconnected.
2. Turn the digital inputs (FWD, REV, X1-X5) at the control terminals off. Disconnect the RS 485
communication terminal if it is connected.
3. Turn the main power supply on. Check that the cooling fan rotates. Check that the inverter is
stopped. (The "OH2 external alarm" caused by deactivated digital input terminals does not cause a
problem.)
4. Turn the main power supply off.
5. After the charge lamp is unlit completely, turn the main power supply on again.
6. Monitor function code H42 to check the capacitor capacitance (%).
(2) Life of cooling fan
Function code H43 indicates the total operation time of the cooling fan. The time is integrated in units of
an hour and fractions shorter than an hour are ignored.
The actual life of the fan is largely effected by the temperature. Take the time as a measure.
Table 8-2-2 Measure for judgment of life based on maintenance data
Part Judgment level
Main circuit capacitor 85% or lower of the initial value
Cooling fan
30,000 hours (4.0 kW or less), 25,000 hours (5.5 kW
or more) *1
*1: Assumed life of cooling fan at ambient inverter temperature of 40 degree C.

8-4
8-3 Measurement of Electrical Amounts in Main Circuit
Because the voltage and current of the power supply (input) of the main circuit of the inverter and the
output (motor) include harmonic components, the indicated value varies according to the type of the
meter. Use meters indicated in Table 8-3-1 when measuring with meters for commercial frequencies.
Marketed power factor meters measuring phase difference between the voltage and current cannot
measure the power factor. To obtain the power factor, measure the power, voltage and current on each
of the input and output sides and calculate in the following formula.
In case of Three-phase In case of Single-phase
Power factor
Electric power[W]
3 Voltage[V] Current[A]
100[%　
　
=
× ×
× ] Power factor
Electric power[W]
Voltage[V] Current[A]
100[%　
　
=
×
× ]
Table 8-3-1 Meters for measurement of main circuit
Input (power supply) side Output (motor) side Link voltage
(P(+)-N(-))
Item
Voltage Current Voltage Current
Nameof
meter
Ammeter
AR,S,T
Voltmeter
VR,S,T
Wattmeter
WR,S,T
Ammeter
AU,V,W
Voltmeter
VU,V,W
Wattmeter
WU,V,W
DC voltmeter
V
Typeof
meter
Moving iron
type
Rectifier or
moving iron
type
Digital
power
meter
Moving iron
type
Rectifier
type
Digital
power meter
Moving coil
type
Symbolof
meter
Note) When the output voltage is measured by a rectifier type, an error may be included. To increase the
accuracy, use a digital AC power meter.
Fig. 8-3-1
Connection of meters
(L1/L)
(L2/N)

8-5
8-4 Insulation Test
Because an insulation test is made in the factory before shipment, avoid a Megger test. If a Megger test is
unavoidable, follow the procedure below. Because a wrong test procedure will cause breakage of the
inverter, take sufficient care.
A withstand voltage test will cause breakage of the inverter similarly to the Megger test if the test
procedure is wrong. When the withstand voltage test is necessary, contact your dealer or nearest Fuji
Electric's branch.
(1) Megger test of main circuit
1) Use a 500 VDC Megger and shut off the main power supply without fail during measurement.
2) If the test voltage leaks to the control circuit due to the wiring, disconnect all the control wiring.
3) Connect the main circuit terminals with a common cable as shown in Fig. 8-4-1.
4) The Megger test must be limited to across the common line of the main circuit and the ground terminal
( G).
5) MΩ or a larger value displayed at the Megger indicates a correct state. (The value is for a discrete
inverter.)
(2) Do not perform a Megger test or withstand voltage test to the insulation test control circuit of the control
circuit. Prepare a high resistance range tester for the control circuit.
1) Disconnect all the external wiring from the control circuit terminals.
2) Perform a continuity test to the ground. 1 MΩ or a larger measurement indicates a correct state.
(3) External main circuit and sequence control circuit
Disconnect all the inverter terminals so that the test voltage is not applied.
8-5 Replacement Parts
The life of the part is determined by the type of the part. The life of the part varies according to the
environment and operating conditions, and replacement according to Table 8-5-1 is recommended.
8-6 Inquiries about Product and Guarantee
(1) When making an inquiry
Upon breakage of the product, uncertainties,
failure or inquiries, report the following
information to your dealer or nearest Fuji
Electric's branch.
a) Inverter type
b) SER NO. (serial number of equipment)
c) Date of purchase
d) Inquiries (for example, point and extent of
breakage, uncertainties, failure phenomena,
and other circumstances)
(2) Guarantee of the product
The product guarantee term is one year after the purchase or 24 months from the month and year of
production specified on the nameplate, whichever comes first. However, the product will not be
repaired free of charge in the following cases, even if the guarantee term has not expired.
a) The cause includes incorrect usage or inappropriate repairs or remodeling.
b) The product is used outside the standard specified range.
c) The failure is caused by dropping, damage or breakage during transportation after the purchase.
d) The cause is earthquake, fire, storm or flood, lightening, excessive voltage, or other types of act of God
or secondary disasters.
Name of part
Standard
replacement
years
Replacement
method and others
Cooling fan
3 years
Replace with a new
part.
Smoothing
capacitor 5 years
Replace with a new
part. (Replace after
inspection.)
Electrolytic
capacitors on
printed circuit
board
7 years
Replace with new
circuit board.
(Replace after
inspection.)
Other parts
－
Determine after
inspection.
Fig. 8-4-1
Megger test
Table 8-5-1 Replacement parts
(L1/L) (L2/N)

9-1
9. Specifications
9-1 Standard Specifications
(1) Single-phase 200V input
Item Detail specifications
Inverter type
FVR___E11S-7EN
0.1 0.2 0.4 0.75 1.5 2.2
Nominal applied motor *1
[kW]
0.1 0.2 0.4 0.75 1.5 2.2
Rated capacity *2
[kVA] 0.31 0.59 1.1 1.9 3.1 4.3
Rated voltage *3
[V] Three-phase 200V / 50 Hz, 200V, 220V, 230V / 60 Hz (with AVR function)
Rated current *4
[A] 0.8
(0.7)
1.5
(1.4)
3.0
(2.5)
5.0
(4.0)
8.0
(7.0)
11
(10)
Overload capability
150% of rated output current for 1 min.
200% of rated output current for 0.5 s
Outputratings
Rated frequency [Hz] 50, 60Hz
Phases, Voltage
, Frequency
Single-phase 200 to 240 V / 50 to 60 Hz *10
Voltage/frequency
fluctuation
Voltage : +10 to -10%
Frequency : +5 to -5%
Momentary voltage dip
capability *5
Operation continues at 165V or higher voltage. When the input voltage
drops below 165V from the rated voltage, operation continues for 15 ms.
Rated current [A]
(With DCR)
1.2 2.0 3.5 6.5 11.8 17.7
(Without DCR) *9
2.3 3.9 6.4 11.4 19.8 28.5
Inputratings
Required power supply
capacity *6
[kVA]
0.3 0.4 0.7 1.3 2.4 3.6
Braking torque *7
[%] 100 70 40
Braking torque *8
[%] 150
Braking
DC braking
Starting frequency: 0.0 to 60 Hz, braking current (0 to 100% in 1%
increment), braking time (0.0 to 30.0 s)
Enclosure(IEC60529) IP20
Cooling method Natural cooling Fan cooling
Mass [kg] 0.6 0.7 1.2 1.8 1.9
*1 The applicable standard motor indicates the case for a 4P standard motor made by Fuji Electric.
*2 The rated capacity indicates the case for 230V output voltage.
*3 Voltages larger than the source voltage cannot be output.
*4 Amperage values in parentheses () are applicable to operation with 4 kHz or higher carrier
frequencies (F26 = 4 or more) or ambient temperatures exceeding 40 degree C.
*5 Tests at standard load condition (85% load)
*6 Indicates the value when using a DC reactor (DCR).
*7 Indicates the average braking torque for decelerating and stopping a discrete motor from 60 Hz.
(Varies according to the efficiency of the motor.)
*8 Indicates the value with an external braking resistor (option).
*9 Calculated on assumption that the inverter is connected to 500kVA power supply.
*10 Safe separation for control interface of this inverter is provided when this inverter is installed in
overvoltage category II. Basic insulation for control interface of this inverter is provided when this
inverter is installed in overvoltage category III.

9-2
(2) Three-phase 400V input
Inverter type
FVR___E11S-4EN
0.4 0.75 1.5 2.2 4.0 5.5 7.5
Nominal applied motor *1
[kW]
0.4 0.75 1.5 2.2 4.0 5.5 7.5
Rated capacity*2
[kVA] 1.0 1.7 2.6 3.9 6.4 9.3 12
Rated Voltage *3
[V]
Three-phase 380,400,415V/50Hz, 380,400,440,460V/60Hz
(with AVR function)
Rated current *4
[A] 1.5
(1.4)
2.5
(2.1)
3.7
(3.7)
5.5
(5.3)
9.0
(8.7)
13
(12)
18
(16)
Overload capability
150% of rated output current for 1 min.
200% of rated output current for 0.5s
Outputratings
Rated frequency [Hz] 50, 60Hz
Phases, Voltage
, Frequency
Three-phase 380 to 480 V / 50 to 60Hz *11
Voltage/frequency
fluctuation
Voltage : +10 to -15% Voltage unbalance 2% or less *10
Frequency : +5 to -5%
Momentary voltage dip
capability *5
Operation continues at 300V or higher voltage. When the input voltage
drops below 300V from the rated voltage, operation continues for 15 ms.
Rated current [A]
(With DCR)
0.82 1.5 2.9 4.2 7.1 10.0 13.5
(Without DCR) *9
1.8 3.5 6.2 9.2 14.9 21.5 27.9
Inputratings
Required power supply
capacity *6
[kVA]
0.6 1.1 2.1 3.0 5.0 7.0 9.4
Braking torque *7
[%] 70 40 20
Braking torque *8
[%] 150
Braking
DC braking
Starting frequency: 0.0 to 60.0 Hz, braking current (0 to 100% in 1%
increment), braking time (0.0 to 30.0 s)
Enclosure(IEC60529) IP20
Cooling method Natural cooling Fan cooling
Mass [kg] 1.1 1.2 1.3 1.4 1.9 4.5
*1 The applicable standard motor indicates the case for a 4P standard motor made by Fuji Electric.
*2 The rated capacity indicates the case for 415V output voltage.
*3 Voltages larger than the source voltage cannot be output.
*4 Amperage values in parentheses () are applicable to operation with 4 kHz or higher carrier
frequencies (F26 = 4 or more) or ambient temperatures exceeding 40 degree C.
*5 Tests at standard load condition (85% load)
*6 Indicates the value when using a DC reactor (DCR).
*7 Indicates the average braking torque for decelerating and stopping a discrete motor from 60 Hz.
(Varies according to the efficiency of the motor.)
*8 Indicates the value with an external braking resistor (option).
*9 Calculated on assumption that the inverter is connected to 500kVA power supply.
*10 Refer to IEC61800-3 5.2.3.
*11 Safe separation for control interface of this inverter is provided when this inverter is installed in
overvoltage category II. Basic insulation for control interface of this inverter is provided when this
inverter is installed in overvoltage category III.

9-3
9-2 Common Specifications
Maximum
frequency
50 to 400 Hz variable
Base
frequency
25 to 400 Hz variable
Starting
frequency
0.1 to 60.0 Hz variable, Holding time : 0.0 to 10.0s.
Adjustment
Carrier
frequency
0.75 to 15 kHz (The carrier frequency may automatically drop to 0.75 kHz to
protect the inverter. )
Accuracy Analog setting: Within ± 0.2 % (25 ± 10 °C)
Digital setting: Within 0.01% (-10 to +50 °C)
Outputfrequency
Setting
resolution
Analog setting: 1/3000 of maximum output frequency
Keypad panel setting: 0.01 Hz (99.99 Hz or lower), 0.1 Hz (100.0 to 400.0 Hz)
Link setting : 1/20000 of Maximum frequency
(0.003Hz at 60Hz,0.006Hz at 120Hz,0.02Hz at 400Hz)
or 0.01Hz (Fixed)
Voltage/freq.
Characteristics
Adjustable at base and maximum frequency,
with AVR control : 80 to 240 V(200V class),160 to 480V(400V class)
Torque boost Automatic : Automatic torque boost can be selected with code setting.
Manual : Setting by codes 1 to 31 (Boost for Variable torque available)
Starting torque Starting torque 200% or above
(with dynamic torque vector turned on, during 0.5 Hz operation)
DC braking Braking time (0.0 to 30.0 s), braking current (0 to 100%), braking starting
frequency (0.0 to 60.0 Hz) variable
Control method Sinusoidal PWM (Dynamic torque vector control) with "current vibration
suppression function" and "dead time compensation function"
Control
Operation
method
Keypad operation: starting and stopping with RUN and STOP keys.
(Keypad panel)
Digital input signal: forward (reverse) operation, stop command (3-wire operation
possible), coast-to-stop command, external alarm, error
reset, etc.
Link operation : RS485 (Standard)
Profibus-DP,Interbus-S,DeviceNet,Modbus Plus,
CAN open (Option)

9-4
Frequency
setting
Keypad operation: key and key.
Setting with potentiometer (external potentiometer: 1 to 5 kΩ 1/2 W)
Setting with 0 to ± 5 Vdc.
Setting with 0 to ± 10 Vdc.
Setting with 4 to 20 mAdc.
0 to +10 Vdc / 0 to 100% can be switched to +10 to 0 Vdc / 0 to 100% externally.
4 to 20 mAdc / 0 to 100% can be switched to 20 to 4 mAdc / 0 to 100% externally.
(UP/DOWN
control)
An external signal can be used to control the UP or DOWN command.
(Multistep
frequency)
Up to 16 different frequencies can be selected by digital input signals.
(Link operation) Link operation : RS485 (Standard)
Profibus-DP,Interbus-S,DeviceNet,Modbus Plus,
CAN open (Option)
Acceleration /
deceleration time
(Mode select)
Variable setting in 0.01 to 3600s range. (2 sets of time can be set internally for
each of acceleration and deceleration.)
Linear, S-curve (weak,strong), Non-linear available.
Frequency limiter The high and low frequency limits can be set variably in a 0 to 100% range in Hz.
Bias frequency Can be set variably in -400 to 400 Hz range.
Gain
(frequency setting)
Can be set variably in a 0 to 200% range.
Jump frequency
control
Three jump frequencies and jump width (0 to 30 Hz) can be set.
Rotating motor
pickup
(Flying start)
Operation without shock is possible.
Auto-restart after
momentary
power failure
The motor speed can be detected after power recovery so that the motor is
started at the speed.
Slip
compensation
control
The load during regular operation can be detected for the control of the
frequency. The compensation value can be set variably in a 0.00 to +15.00 Hz
range to the rated frequency.
Droop operation The load during regular operation can be detected for the control of the
frequency. The compensation value can be set in a -9.9 to 0.0 Hz range to the
rated frequency. (Speed droop characteristics)
Control
Torque limiter When the load torque in the driving or braking mode exceeds the setting, the
frequency is controlled to control the load torque to an almost constant level.
The limiting torque can be set 20 to 200% and the driving and braking torque
values can be independently set.
The second torque limits can be set.

9-5
PID control
This function can control flowrate, pressure, etc. with analog feedback signal.
The reference and feedback values are displayed in %.
Reference signal
Keypad operation key and key. : 0.0 to 100%
Voltage input (Terminal 12) : 0 to 10Vdc
Current input (Terminal C1) : 4 to 20mAdc
Multistep frequency setting : Setting freq./Max. freq.x100%
RS485 : Setting freq./Max. freq.x100%
Feedback signal
Terminal 12 (0 to +10Vdc or +10 to 0Vdc)
Terminal C1(4 to 20mAdc or 20 to 4mAdc)
Second motor’s
setting
The V/f pattern of the second motor can be internally set for selection by means
of an external signal.
The constant of the second motor can be internally set for selection by means of
an external signal.
The electronic thermal overload relay of the second motor can be internally set
for selection by means of an external signal.
Control
Energy saving
operation
Weak magnetic flux can be set for small loads for operation with an increased
motor efficiency.
During
operation/stop
The keypad panel can be extended. (Optional 5m extension cable is available.)
7-segment LED display items
• Set frequency • Output frequency • PID setting/feedback value
• Output current • Motor r/min
• Output voltage • Line speed
(A soft filter is provided to attenuate the fluctuation in the displayed value.)
A charge lamp indicates power supply.
When setting The function code and data code are displayed.
When tripping [The cause of tripping is displayed.]
• OC1 (overcurrent: during acceleration)
• OC2 (overcurrent: during deceleration)
• OC3 (overcurrent: during constant speed operation)
• OU1 (overvoltage: during acceleration)
• OU2 (overvoltage: during deceleration)
• OU3 (overvoltage: during constant speed operation)
• LU (undervoltage)
• Lin (input phase loss) (for 3-phase inverter)
• dbH (external damping resistor overheat (thermal overload relay))
• OH1 (overheat: heat sink)
• OH2 (overheat: external thermal overload relay)
• OL1 (overload: motor 1)
• OL2 (overload: motor 2)
• OLU (overload: inverter)
• Er1 (memory error)
• Er2 (keypad panel communication error)
• Er3 (CPU error)
• Er4 (option error)
• Er5 (option error)
• Er7 (output wiring error) (impedance imbalance)
• Er8 (RS485 communication error)
Display
During operation,
when tripping
The latest four records of trip history are stored and displayed.

9-6
Overload
protection
Inverter protection electronic thermal overload relay
Overvoltage
protection
An excess in the DC link circuit voltage (approx. 400 Vdc for 200V class, approx.
800Vdc for 400V class) is detected for inverter protection.
Overcurrent
protection
The inverter is protected against an overcurrent caused by an overload on the
output side.
Surge
protection
The inverter is protected against a surge voltage penetrating between the power
supply cable of the main circuit and the ground.
Undervoltage
protection
Voltage drop (approx. 200 Vdc for 200V class, approx. 400Vdc for 400V class ) in
the DC link circuit voltage is detected to stop the inverter.
Overheat
protection
The inverter is protected against failure and overload of the cooling fan.
Short-circuit
protection
The inverter is protected against an overcurrent caused by a short-circuit on the
output side.
Ground fault
protection
The inverter is protected against an overcurrent caused by ground fault in the
output wiring.
* Detection when starting
Motor protection Electronic thermal overload relays protect general purpose motors and Fuji's
inverter motor.
The thermal time constant can be adjusted to 0.5 to 10.0 min.
Second electronic thermal overload relay can be provided. (Switching with external
signal)
Braking resistor
protection
Upon an overheat of the damping resistor (external unit), discharging operation
and inverter operation stop
Stall prevention
(simple torque
limit)
• When the output current exceeds the limit during acceleration, the frequency
change is stopped to avoid overcurrent stop.
• When the output current exceeds the setting during constant speed operation,
the frequency is decreased to maintain an almost constant torque.
• When the DC voltage exceeds the limit during deceleration, the frequency
change is stopped to avoid overvoltage stop.
Input phase loss
protection
The inverter is protected against phase loss in the input voltage.
Output phase loss
protection
An unbalance in the impedance of the output circuit is detected to output an alarm.
(Error during tuning only)
Protection
Auto reset The number of retries and wait time can be set for the alarm stop.
Installation
location
• Indoors
• Places without corrosive gases, flammable gases or dust
(degree of pollution: 2)
• Places without direct sunlight
Ambient
temperature
-10 to +50 °C
Relative humidity 5 to 95% RH (without condensation)
Altitude 1000 m Max. (Atmospheric pressure 86 to 106 kPa)
Vibration 3mm
9.8m/s2
2m/s2
1m/s2
2 to 9 Hz
9 to 20 Hz
20 to 55 Hz
55 to 200 Hz
Storage
temperature
-25 to +65 °C
Environment
Storage humidity 5 to 95% RH (without condensation)

9-7
9-3 External Dimensions
External dimensions (mm)
Type
Standard
applicable
motor [kW] D D1 D2 D3
FVR0.1E11S-7EN 0.1 96 85 38 10
FVR0.2E11S-7EN 0.2 101 90 43 15
FVR0.4E11S-7EN 0.4 118 107 60 32

9-8
Installation screw size : M4 (4 pcs)
Type
Standard
applicable
motor [kW] D D1 D2 D3 D4
FVR0.75E11S-7EN 0.75 126 115 63 40 86
FVR0.4E11S-4EN 0.4 126 115 63 40 86
FVR0.75E11S-4EN 0.75 150 139 87 64 86
FVR1.5E11S-4EN 1.5 170 159 87 64 106
FVR2.2E11S-4EN 2.2 170 159 87 64 106

9-9
Installation screw size : M4 (4 pcs)
Type
Standard
applicable
motor [kW] D D1 D2 D3
FVR1.5E11S-7EN 1.5
FVR2.2E11S-7EN 2.2
FVR4.0E11S-4EN 4.0
158 147 95 72

9-10
Installation screw :size : M5 (4pcs)
FVR5.5E11S-4EN
FVR7.5E11S-4EN

9-11
9-4 RS485 Communication
Remove the keypad panel of the inverter referring to section 1-3 (3) and use the connector having been
connected with the keypad panel to connect up to 31 inverters in a line to perform the following
operations.
• Frequency setting, forward/reverse rotation, stop, coast to stop, alarm reset and other
operations
• Monitoring of output frequency, output current, operation state, alarm description, and so
on
• Setting of function code data (function code data, command data and monitor data)
The transmission frame is character data having a fixed length of 16 bytes, so that development of
programs for the host controller is easy. The operation and frequency setting command requiring fast
speeds can be in a short frame for shorter communication time. The functions of the serial communication
connector are shown in Table 9-4-1.
Table 9-4-1 Functions of serial communication connector
Terminal
No.
Terminal
symbol
Name of terminal Specification
4 DX+ RS 485 communication signal (not inverse)
3 DX- RS485 communication signal (inverse)
Connection of serial
communication signal; compliance
with RS485
The leftmost terminal of the connector when viewed
from the front of the inverter is terminal 1.
Never connect the terminals other than the above
because signal cables used for the keypad panel are
connected. A terminator is built in the inverter.
Turn SW2 on (left side) below the serial
communication connector for the inverter connected
at the end of the cable to connect the terminator.
When you communicate more than one inverter,
use a branch adapter in the table 9-4-2 and connect
like Fig9-4-2.
Fig. 9-4-1 Equivalent circuit of RS485 interface
Personal
computer
Branch
adapter
Branch
adapter
RS485/
RS232C
converter
FVR-E11S
FVR-E11SFVR-E11S
Remark)The branched cable length has to be 1m or less.
Terminattor in the branched inverter has to be OFF.(SW2 OFF)
Fig. 9-4-2 Communication method with more than one inverter
RemarkRemark
4 DX+
3 DX-
GND
+5V
B-
A+
DI
RO
DE/RE
Terminator
SW2
Connector for
Keypad panel
1 8
1
8

9-12
9-4-1 Connector and Communication Cable
Use marketed products for the connector, the communication cable and branch adapter. Table 9-4-2
shows the specification of each of them.
Table 9-4-2 Connector and cable specification
Item Specification
Connector RJ45 connector
Cable Cable complying with EIA568 (for 10BASE-T Straight connection)
(Max. wiring length: 500m)
Branch adapter MS8-BA-JJJ (SK KOHKI CO., LTD or equivalent.)
9-4-2 Recommended RS-232C/RS485 Converter
For communications with PCs having an RS232C terminal, the following insulation type converter is
recommended.
Model : KS485PTI
Manufacture : System Sakom
9-4-3 Remote/local changeover
Operation between according to the frequency setting and operation commands sent via serial
communication, and according to the frequency setting and operation commands set in the inverter
main body, can be switched over.
The frequency setting and operation command selection is made as follows, using function H30 and
remote/local switching.
The function of any of the X1 through X5 terminals of the inverter main body is changed to be the LE
terminal which is used for remote/local switching. Any of the functions E01 through E05 is used to
change the function of X1 to X5 terminal. If X1 through X5 terminals are not assigned to the LE
terminal, it is always in the remote mode.
Fig. 9-4-3 Command switching block diagram
When X1 through X5 terminals are assigned with BX, THR and RST functions, the BX, THR and
RST functions are activated even in the remote mode according to the inputs to the terminals. RS485
can not make THR ON/OFF.
Frequency
setting
Frequency
setting
Host
(PC, PLC)
FWD,REV
X1～X5
Frequency setting
(keypad panel or
analog)
RUN/STOP key
/FWD,REV
Operation
command
Remote (H30=1,3)
Local or H30 = 0, 2
Remote (H30=2,3)
Local or H30 = 0, 1
LE
P24
ON: Remote
OFF: Local

9-13
9-4-4 Communication Protocol
(1) Serial communication specification
Table 9-4-3 Serial communication specification
Physical level Compliance with EIA RS-485 (2-wire type)
Number of connected
stations
Host x 1 unit, inverter x 31 units (Station address 1 to 31)
Transmission speed 19200, 9600, 4800, 2400, 1200[bit/s]
Synchronization method Start-stop
Transmission method Half duplex
Transmission protocol Polling/selecting, broadcast
Character type ASCII 7 bits
Character length Selection between 7 and 8 bits
Transmission distance Max. 500 m
Stop bit Selection between 1 and 2 bits
Frame length Standard frame: fixed to 16 bytes, short frame: 8 or 12 bytes
Parity Selection from none, even and odd
Error check method Checksum, parity, framing error
(2) Transmission protocol
It is the half duplex communication in the polling/selecting method. The inverter always waits for a
write request (selecting) or a read request (polling) from the host. The inverter, when receiving in the
wait state a request frame to the own station from the host, returns a response frame. Upon polling, it
returns data together. In the case of broadcasting (selection of all stations in a batch), no response is
returned.
Request frame
Response frame
Request frameHost
Inverter
Response interval time＋(0～10ms) 10 msec or longer
・Polling/selecting
・Broadcast
Request frame
No response frame
Request frameHost
Inverter
10 msec or longer

9-14
(3) Transmission procedure
1) Set communication functions H30 through H39.
2) Make communication according to transmission frames.
3) If no response returns for one second from the inverter upon a frame from the host, retry
communication. Several retries indicate certain errors. Make investigation.
4) If no communication is received from the host for 30 seconds after the first operation command is
received, the inverter judges a transmission breakdown error and shuts down the inverter output,
leaving the motor to coast to stop.
5) After consecutive eight communication errors, the inverter output is shut down and the motor coasts to
stop.
(4) Host controller transmission procedure
Do not send the next frame unless the response is returned.
If the inverter does not respond for longer than the standard time, timeout should be judged and retry
should be performed. If a retry is started before timeout, normal reception may become impossible,
so that timeout should be judged correctly. The timeout time is one second in the selecting mode and
0.5 second in the polling mode. In the retry sequence, send the same frame again as that sent
before no response, or send a polling (M26: communication error monitor) frame for reading an error,
and check for a normal response. (Judge the timeout again during the check.)
If a normal response is returned, a transient transmission error due to noise or the like is indicated,
and correct communication can be continued. If retries occur frequently, any abnormalities are
probable. In-depth investigation is necessary. If no response is returned, continue retrying. If there
are three retries, there is some trouble in the hardware or software of the host controller. Terminate
the software of the host controller and investigate.
No error code is returned in the case of negative acknowledgment of a short frame. Judge the error
code using the communication error monitor (M26) separately.

9-15
9-4-5 Standard Frame
The ASCII code character method is employed. A standard frame has a fixed length of 16 bytes.
Using optional frames (12 bytes or 8 bytes), the transmission speed can be increased.
Host Inverter frame
Note: Numbers with "H" at the end indicate hexadecimals.
7(6) 0
0 Start-of-heading character (SOH) ← Fixed to 01H.
1 Tens digit of station address (ASCII)
2 Units digit of station address (ASCII)
Designate a station address of the destination
inverter with 01 to 31 or 99. (ASCII designation
of each digit)
3 Enquiry character (ENQ) ←Fixed to 05H.
4 Command type character (ASCII)
←E: Reset command, R: Polling (reading), W:
Selecting (writing)
5 Function type character (ASCII) ← "S", "M", "F", "E", "C", "P", "H" or "A" is
designated.
6 Tens digit of function number (ASCII)
7 Units digit of function number (ASCII)
Designate a function number using a two-digit
number. (Designate each digit of 00 to 46 in
ASCII.)
8 Space (ASCII) ←Fixed to 20H
9 First character of data (ASCII)
10 Second character of data (ASCII)
11 Third character of data (ASCII)
12 Fourth character of data (ASCII)
The data corresponding to the function is
converted into a 4-digit hexadecimal, and
each digit is designated in ASCII.
13 End-of-text character (ETX) ← Fixed to 03H
14 Upper digit of checksum (ASCII)
15 Lower digit of checksum (ASCII)
From tens digit of the station address to ETX
are added in a binary and the lower two digits
of it in hexadecimal notation are stored in
ASCII as a checksum.
Inverter Host frame
7(6) 0
0 Start-of-heading character (SOH) ← Fixed to 01H
Station address of responding inverter (01 to
31) (ASCII designation of each digit)
3 Response character (ACK/NAK) ← 06H: Normal response (ACK), 15H: Faulty
response (NAK)
← E: Reset command, R: Polling (reading), W:
Selecting (writing)
5 Function type character (ASCII) ← "S", "M", "F", "E", "C", "P", "H" or "A" is
responded (the character transmitted by the
host is returned).
6 Tens digit of function number (ASCII)
7 Units digit of function number (ASCII)
The function number is designated in a
two-digit number. (The number sent by the
host is returned.)
8 Special additional data (ASCII) ← Space (20H) or "-" (2DH)
9 First character of data / space (ASCII)
10 Second character of data / space (ASCII)
11 Third character of data / tens digit of error
code (ASCII)
12 Fourth character of data / units digit of error
code (ASCII)
The data sent by the host is returned in
normal response, or an error code is returned
upon an error.

9-16
9-4-6 Short Frame
Short frames are prepared for special functions to reduce the data transmission time.
(1) Selecting
Host Inverter (selecting)
7(6) 0
Designate a station address of the
destination inverter with 01 to 31 or 99.
(Designation of each character in ASCII)
3 Enquiry character (ENQ) ← Fixed to 05H
4 Command type character (ASCII) ← "a", "e", "f" or "m" is designated.
The data corresponding to the function is
converted into a four-digit hexadecimal and
Inverter Host frame (selecting)
7(6) 0
31) (designation of each digit in ASCII)
response (NAK)
← "a", "e", "f" or "m" sent from the host is
returned.

9-17
(2) Polling
Host Inverter (polling)
7(6) 0
0 Start-of-heading character (SOH) ←Fixed to 01H
Designate the station address of the
destination inverter with 01 to 31 or 99.
(Designation of each digit in ASCII)
3 Enquiry character (ENQ) ← Fixed to 05H
4 Command type character (ASCII) ← "g", "h", "i", "j" or "k" is designated.
Inverter Host frame (polling)
7(6) 0
0 Start-of-heading character (SOH)
31) (Designation of each digit in ASCII)
response (NAK)
4 Command type character (ASCII) ← "g", "h", "i", "j" or "k" sent from the host is
returned.
The data corresponding to the command is
converted into a four digit hexadecimal and
9-4-7 Details of Frame
(1) Start-of-heading character (ASCII; SOH)
01H in binary.
(2) Tens digit and units digit of station address
Two ASCII characters expressing a decimal station address between 1 and 31.
Example: Station address 1: Tens digit of station address: ASCII "0", units digit of station
address:
ASCII "1"
Station address 31: Tens digit of station address: ASCII "3", units digit of station address:
ASCII "1"
(3) Enquiry character (ASCII; ENQ)
05H in binary.
(4) Response character (ASCII; ACK/NAK)
The inverter sets ACK (06H) to recognize a request.
NAK (15H) is set when the request from the host includes a logical error.

9-18
(5) Command type character
In a standard frame, set "R" in ASCII for a polling (reading) request, or set "W" in ASCII for a
selecting (writing) request. Set "E" in ASCII for a resetting command. Only the upper case characters
are valid.
In a short frame, the function is directly designated using a command type character. Refer to (3)
Short Frame in section 9-4-11 Function Code List for details.
(6) Function type character and tens digit and units digit of function number
A request function is designated in three characters. Refer to section 9-4-11 Function Code List for
details.
(7) Special additional data
This is normally a space (20H). In a response frame issued by an inverter to request for frequency
monitor (M09), a minus sign is set in ASCII during reverse rotation output.
(8) Data
In a selecting (writing) request frame sent from the host to an inverter, designate writing data. Refer
to section 9-4-10 Data Type. In a polling (reading) frame, set space or arbitrary letter or number
character. in a selecting response frame sent from an inverter to the host, data "0000" or an error
code is contained, and in a polling frame, data or an error code is contained.
(9) End-of-text character (ASCII; ETX)
03H in binary.
(10) Upper digit and lower digit of checksum
A binary sum of all the characters from tens digit of the station address to the end-of-text character is
obtained and the lower two digits of it in hexadecimal notation are expressed in ASCII codes. Set in
the upper case.
Example. When the binary sum is "17EH"→ The upper digit of the checksum is "7" in ASCII. The
lower digit of the checksum is "E" in ASCII.
9-4-8 Broadcasting
An operation command or frequency command destined to station address "99" is received and
processed by all the inverters as broadcasting. However, no response is issued by the inverters.

9-19
9-4-9 Communication Error Code
The inverter detects the following errors. The error code is in hexadecimal notation.
Table 9-4-4 Communication error code
Error code
(hexadecimal)
Name of error Description
47H Checksum error
The checksum of the frame sent to the own station
is in discrepancy.
48H Parity error The parity is in discrepancy.
49H Others
Reception error other than above (framing,
overrun)
4AH Format error
The enquiry character or the end-of-text character
in the transmitted frame is in an incorrect position.
4BH Command error
A code other than designated commands
(standard and option) is sent.
4EH Function code error A request for an unknown function code is issued.
4FH Write disable
A write prohibited function or in-operation write
prohibited function is written during operation.
50H Data error Data exceeding the standard range is written.
The inverter does not return NAK in response to errors 47 through 49 above. It issues no response.
In the case of errors 4A through 50, an NAK response with an NAK code in the response character
field and the two digit hexadecimal error code in the data field is returned.
The latest error can be referred to using the transmission error end code monitor (M26).
9-4-10 Data Type
(1) In the case of value data
16 bit data is expressed in a hexadecimal and set using four ASCII codes. Concretely speaking, the
data is between "0000" and "FFFF".
Decimal fractions are weighted into integers. Refer to the corresponding section because the weight
varies according to each piece of function data. In some functions, the negative value is expressed in
two's complement.
The bit data is converted into the hexadecimal and expressed.
The acknowledgement sent from the inverter in response to a selecting (writing) request is the writing
data. In the negative acknowledgement, the error code is returned in two hexadecimal characters.
Set "0000" or an arbitrary letters and numbers in the data to be transmitted to the inverter in a polling
(reading) frame.
Example: Frequency data, weight 100 times
120.00Hz 120×100=12000=2EE0H
The data is "2" in ASCII, "E" in ASCII, "E" in ASCII and "0" in ASCII in order from the first character
to the fourth character.
Acceleration time data, weight 10 times
6.5 sec: 6.5 x 10 = 65 = 41H
The data is "0" in ASCII, "0" in ASCII, "4" in ASCII and "1" in ASCII in order from the first character to
the fourth character.
(2) In the case of bit data
For bit type data requested by S06, M13 or other functions, the bit data is expressed in hexadecimal
notation and each digit is transmitted in ASCII codes.
Example: S06 with FWD (bit 0) ON, X1 (bit 2) ON, and X3 (bit 4) ON
Bit data = 0000 0000 0001 0101 → 0015H → 30H 30H 31H 35H
(Hexadecimal) (ASCII)

9-20
9-4-11 Function Code List
The function code includes the function codes indicated in chapter 5 "Selecting Functions" and the
following functions for the standard and short frames.
(1) Functions for standard frame (command data)
Table 9-4-5 Standard frame (command data)
Name
Command
type
Function type
character and
number
Data and operation
Reset command E 3 spaces
Space is transmitted in the data field. The
function resets a protective operation
(tripping).
Frequency and
speed command
R/W S01 ±20000d/fmax (Max. frequency)
Frequency
command
R/W S05
0.00 to 400.00 Hz / 0 to 40000 (100 times
value)
The inverter operates at the maximum
frequency even if a value larger than the
maximum frequency is set by function code
F03.
A communication command is read in the
reading mode.
Operation command R/W S06
bit15:RESET 1:ON,0:OFF
bits 14 to 7: Fixed to 0
bit6:X5 1:ON,0:OFF
bit5:X4 1:ON,0:OFF
bit4:X3 1:ON,0:OFF
bit3:X2 1:ON,0:OFF
bit2:X1 1:ON,0:OFF
bit 1: REV (reverse rotation command)
1:ON,0:OFF
bit 0: FWD (forward rotation command)
1:ON,0:OFF
X1, X2, X3, X4 and X5 function according to
function code E01 to E05 settings.
Acceleration time 1 R/W S08
0.0～3600.0s/0～36000
(Value multiplied by 10)
Deceleration time 1 R/W S09
0.0～3600.0s/0～36000
Torque limit level 1 R/W S10
100% (rated torque) / + 10000
Torque limit level 2 R/W S11
100% (rated torque) / + 10000
Notes)
1) Negative values are set in 2's complements.
2) When reading S01 or S05, the data commanded via communication is read out instead of the
command value in the actual operation. To read the actual command value, read the monitor
data.
3) If both S01 and S05 are designated (written with data other than zero), the S01 command is
effective.
4) For the alarm input, "0" indicates a failure.
5) X1 through X5 are used for general purpose inputs; set the function of each terminal using the
general input terminal setting of the inverter.
6) To cancel the torque limit of S10 and S11, send 7FFFH.

9-21
(2) Functions for standard frame (monitor data)
Table 9-4-6 Standard frame (monitor data)
Name Command
type
character
Function type
character and
number
Data and operation
Frequency
(Final value)
R M01 ±20000d/fmax (Max. frequency)
Frequency
command value
R M05
100=1.00Hz (Value multiplied by 100)
The current frequency setting is returned.
Calculated torque
value
R M07
100% (rated torque) / ± 10000 (value multiplied
by 100)
Torque current R M08
100% (rated current) / ± 10000
(value multiplied by 100)
Output frequency R M09
100=1.00Hz
(Value multiplied by 100; special additional
data: sign)
The current output frequency is returned.
Motor output
(power
consumption)
R M10
100% (rated output) / ± 10000
(value multiplied by 100)
Output current R M11
100 = 1% of rated inverter current
The current output current is returned in the
ratio to the rated current.
Output voltage R M12 10=1V
Operation command R M13
bit15:RESET 1:ON,0:OFF
bits 14 to 5: Fixed to 0
bit6:X5 1:ON, 0:OFF
bit5:X4 1:ON, 0:OFF
bit4:X3 1:ON, 0:OFF
bit3:X2 1:ON, 0:OFF
bit2:X1 1:ON, 0:OFF
bit 1: REV (reverse rotation command)
1:ON,0:OFF
bit 0: FWD (forward rotation command)
1:ON,0:OFF
The final command value including the state of
the actual control terminal of the inverter is
returned.
Operation status R M14
bit 15: Function code data being written
bit 12: 1: Communication valid
bit 11: 1: Batch failure (tripping)
bit 10: 1: During deceleration
bit 9: 1: During acceleration
bit 8: 1: Current limit operation
bit 7: 1: Voltage limit operation
bit 6: 1: Torque limit operation
bit 5: 1: DC link voltage established
bit 4: 1: During braking
bit 3: 1: During output shutoff
bit 2: 1: During DC braking
bit 1: 1: During reverse rotation
bit 0: 1: During forward rotation
General purpose
output terminal
R M15
bit 1: Y2; active upon "1"
bit 0: Y1; active upon "1"

9-22
Name Command
type
character
Function type
character and
number
Data and operation
Failure description;
current one
R M16
previous one
R M17
one before previous
one
R M18
one before two
previous ones
R M19
Refer to (4) Alarm display data
Total operation time R M20 0 to 65535 / 0 to 65535 hours
DC link voltage
monitor
R M21
0 to 500 / 0 to 500V (200V class)
0 to 1000 / 0 to 1000V (400V class)
Function code R M23
4112H = E11S single-phase 200V
4113H = E11S 3-phase 200V
4114H = E11S 3-phase 400V
Capacity code R M24 1=0.01kW
ROM version R M25 0 to 99: Standard, > 100: Non-standard
Transmission error
handling code
R M26
Refer to section 9-4-9. The latest error is
returned. The communication error is initialized
when the power is turned off.
Main circuit
capacitor life
R M46 1=0.1%
Cooling fan life R M48 1 = 1 hour
Note)
1) Output frequency monitoring (M09, M35) adds an ASCII code for forward rotation (space), reverse
rotation (minus) and stop (space) as direction of rotation data, and handled as 5-byte data.

9-23
(3) Functions for short frame
Table 9-4-7 Short frame
Function
Command
type
character
Data direction
Data range; transmission
data / actual data
Change
during
operation
Frequency command a Selecting Same as S01 ○
Frequency command e Selecting Same as S05 ○
Operation command f Selecting Same as S06 ○
Reset command m Selecting 4 spaces －
Calculated torque
value monitor
h Polling Same as M07 －
Torque current
monitor
I Polling Same as M08 －
Output frequency
monitor
j Polling
Same as M09; no sign is
attached.
－
Operation state
monitor
k Polling Same as M14 －
(4) Alarm display data
The failure description (alarm description) is as shown in the table below. The failure code is in the
hexadecimal notation.
Table 9-4-8 Failure description
Failure
code
Description Indication
on panel
Failure
code
Description Indication
on panel
0000 No alarm --- 0012 External alarm OH2
0001 Overcurrent, during
acceleration
OC1 0016 Braking resistor overheat dbH
deceleration
OC2 0017 Motor 1 overload, OL1
constant speed
operation
OC3 0018 Motor 2 overload, OL2
0006 Overvoltage, during
acceleration
OU1 0019 Inverter overload OLU
deceleration
OU2 001F Memory error Er1
constant speed
operation
OU3 0020 Keypad panel
communication error
Er2
000A Undervoltage LU 0021 CPU error Er3
000B Input phase loss Lin 0025 Output phase loss error Er7
0011 Heat sink overheat OH1 0026 RS485 communication
error
Er8

9-24
9-4-12 Data format
The data format of each piece of function code data of the inverter is defined here.
Prepare data according to the format numbered in the data format for each function code. (Refer to
section 5-1 Function Setting List and section 9-4-11 Function Code List for the data format.)
The data field of the transmission frame except for data format 10 consists of a 4-digit ASCII code
converted from a 4-digit hexadecimal data as shown in the figure below. For details of each format,
refer to the following data formats (1) through (11).
15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0
4-digit hexadecimal data => 4-digit ASCII code
(1) Data format 0
16-bit binary code, least increment 1, positive value only.
Example) In the case that F15: (frequency limiter, upper limit) = 60 Hz
60 x 1 = 60 (dec.) = 003C (hex.), hence: 003C ⇒
(2) Data format 1
16-bit binary code, least increment 1, positive/negative value
The negative value is expressed in 2's complement. -1 -> FFFF (hex.)
Example: In the case that F18: (bias frequency) = -20 Hz
-20 x 1 = -20 (dec.) = FFEC (hex.), hence: FFEC ⇒
(3) Data format 2
16-bit binary code, least increment 0.1, positive value only
Example) In the case that F17: (gain frequency setting signal) = 100.0%
100.0 x 10 = 1000 (dec.) = 03E8 (hex.), hence: 03E8 ⇒
(4) Data format 3
16-bit binary code, least increment 0.1, positive/negative value
The negative value is expressed in 2's complement. -1→ FFFF (hex.)
Example: In the case that C31: (analog input offset adjustment, terminal 12) = -5.0%
-5.0 × 10 = -50 （dec.） = FFCE （2's complement） ⇒
(5) Data format 4
16-bit binary code, least increment 0.01, positive value only
Example) In the case that C05: (multistep frequency 1) = 50.25 Hz
50.25 x 100 = 5025 (dec.) = 13A1 (hex.), hence: 13A1 ⇒
0 0 3 C
F F E C
0 3 E 8
F F C E
1 3 A 1

9-25
(6) Data format 5
16-bit binary code, least increment 0.01, positive/negative value
The negative data is expressed in 2's complement. -1 -> FFFF (hex.)
Example: In the case that M07: (actual torque) = -85.38%
-85.38 x 100 = -8538 (dec.) = DEA6 (hex.), hence: DEA6 ⇒
(7) Data format 6
Acceleration/deceleration time, amperage data
15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0
0 0 0 0 Index Data field
0 : 0.01 × 001～999 (0.01～9.99)
1 : 0.1 × 100～999 (10.0～99.9)
2 : 1 × 100～999 (100～999)
3 : 10 × 100～360 (1000～3600)
0: Positive (+), 1: Negative (-)
Example: In the case that F07: communication No. (acceleration time 1) = 20.0 seconds
20.0 = 0.1 x 200, hence: 04C8 ⇒
(8) Data format 8
Operation command
15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0
RESET
００００００００ X5 X4 X3 X2 X1
REV
FWD
General-purpose input FWD: forward rotation command,
REV: reverse rotation command
(All bits: "1" when turned on)
Example: In the case that M13: (operation command) = 0000 0000 0100 0101 (bin.): FWD, X1, X5 =
ON
M13 = 0045 (hex.), hence: 0045 ⇒
D E A 6
0 4 C 8
0 0 4 5
Polarity Unused
Unused

9-26
(9) Data format 9
General-purpose output terminal
15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0
００００００００００００００ Y2 Y1
General-purpose output
(All bits: "1" when turned on)
Example: In the case that M15: (general-purpose output terminal) = 0000 0000 0000 0001 (bin.): Y1 =
ON
M15 = 0001 (hex.), hence: 0001 ⇒
(10) Data format 10
Operation state
15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0
BUSY
―
RL
ALM
DEC
ACC
IL
VL
TL
NUV
BRK
INT
EXT
REV
FWD
(All bits: "1" when turned on or active)
FWD: During forward rotation
REV: During reverse rotation
EXT: During DC braking
INT: Inverter shutdown
BRK: During braking
NUV: DC link established
TL: Torque limit operation
VL: Voltage limit operation
IL: Current limit operation
ACC: During acceleration
DEC: During deceleration
ALM: Batch alarm
RL: Transmission valid/invalid
BUSY: During data writing (processing)
Example) ... Omitted (The monitoring method is similar to format 8.)
0 0 0 １
Unused

9-27
(11) Data format 11
16-bit binary code, least increment 0.01, positive/negative data (5-byte ASCII code)
19 18 17 16 15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0
ASCII code (of
minus sign)
4-digit hexadecimal data ⇒ 4-digit ASCII code
Example: In the case that M09 (output frequency) = +60.00 Hz
60.00 × 100 = 6000 (dec.) = 1770 (hex.), hence: ⇒
Positive data is handled in a 4-byte ASCII code similarly to data format 0.
・In the case that M09 (output frequency) = -60.00 Hz
60.00 x 100 = 6000 (dec.) = 1770 (hex.). An ASCII code of the minus sign is added at the top.:
-1770
⇒
(12) Data format 12
Data format for P04, A13 (auto tuning)
15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0
００００００
Ｒ
Ｅ
Ｖ
Ｆ
Ｗ
Ｄ００００００＊＊
H30 setting
0 or 1 2 or 3
Operation command
Communication
data
(P04 or A13)
Keypad panel Terminal block RS485
0000H ACK: However, no operation ACK: However, no
operation
NAK
0100H NAK NAK ACK: However, no
operation
0200H NAK NAK ACK: However, no
operation
0300H NAK NAK NAK
0001H NAK Note 1 NAK
0101H NAK NAK Note 2
0301H NAK NAK NAK
0002H NAK Note 1 NAK
0302H NAK NAK NAK
Note 1: Tuning is started upon a terminal block operation command. After tuning is completed, an ACK
response is given. (The ACK response is given before the terminal block is turned off.)
Note 2: After data is written via RS485, tuning is started. After tuning is completed, an ACK response is
given. (The operation command is automatically turned off.)
1 7 7 0
－ 1 7 7 0
Unused (fixed to "0") Unused (fixed to "0") Data field

10-1
10.Options
10-1 External Options
Table 10-1-1 External options
Molded case circuit
breaker
The molded case circuit breaker (MCCB) is connected for the protection of
the main circuit wiring up to the inverter and for turning the power on and off.
The rated current or the rated interrupting capacity varies according to the
power supply specifications.
DC reactor (DCR) Connect in the following cases.
(1)When the power supply transformer capacity exceeds 500 kVA.
(2)When a thyristor load is connected to the same power supply or when the
capacitor for power factor improvement is turned on or off.
(3)When the unbalance rate between phases of the source voltage exceeds
2%.
(4)To reduce the harmonic current in the input.
The input power factor can be improved to 0.9 to 0.95.
Magnetic contactor
(MC)
The inverter can be operated without an electromagnetic contactor. Connect
one to turn the power off for the safety after the protective function of the
inverter is activated.
Surge absorber Connect to suppress the surge generated when the electromagnetic
contactors, control relays or other exciting coils are opened or closed.
S2-A-0 (for electromagnetic contactors), S1-B-0 (for miniature control relays)
Reactor for radio noise
reduction
Use for noise reduction when electric noise interference is caused to radios
or electronic devices near the inverter.
Frequency setting unit Connect to set the frequency from the control circuit terminals using the
inverter power supply.
Unbalance rate
between phases =
(Average voltage of three phases [V])
(Max. voltage [V]) - (Min. voltage [V])
×67 [%]

11-1
11.Applicable Reactor
The DC reactors are recommended to reduce inverter input harmonic current or to correct inverter
input power factor.
Table 11-1-1 List of applicable reactor
Applicable inverter model DC reactor (DCR)
FVR0.1E11S-7EN DCR2-0.2
Fig. 11-1-1 Connection method of DC reactor (DCR)
Connection
method
P1
DC reactor
P(+)
Motor
Three-phase power supply
~
P(+)
P1
L3/T
L2/S
L1/R
W
V
U
M
3 ~
E
G G
Single-phase power supply
~
L2/N
L1/L

12-1
12. Electromagnetic Compatibility (EMC) [Available only inverter for with CE mark ]
12-1General
In accordance with the provisions described in the European Commission Guidelines
Document on Council Directive 89/336/EEC,Fuji Electric Co., Ltd. has chosen to classify the
FVR-E11S range of inverters as "Complex Components".
Classification as a "Complex Components" allows a product to be treated as an "apparatus", and
thus permits compliance with the essential requirements of the EMC Directive to be demonstrated
to both an integrator of FVR inverters and to his customer or the installer and the user.
FVR inverters is supplied `CE-marked', signifying compliance with EC Directive 89/336/EEC
when fitted with specified filter units installed and earthed in accordance with this sheet.
This Specification requires the following performance criteria to be met.
EMC product standard EN61800-3/1997
Immunity : Second environment ( Industrial environment )
Emission : First environment ( Domestic environment )
Finally, it is customer’s responsibility to check whether the equipment conforms to EMC
directive.
12-2 Recommended Installation Instructions
It is necessary that to conformed to EMC Directive, these instructions must be followed.
Follow the usual safety procedures when working with electrical equipment. All electrical
connections to the filter, Inverter and motor must be made by a qualified electrical technician.
1) Use the correct filter according to Table 12-2-1.
2) Install the Inverter and filter in the electrically shielded metal wiring cabinet.
3) The back panel of the wiring cabinet of board should be prepared for the mounting
dimensions of the filter. Care should be taken to remove any paint etc. from the mounting
holes and face area of the panel. This will ensure the best possible earthing of the filter.
4) Use the screened cable for the control , motor and other main wiring which are connected to
the inverter, and these screens should be securely earthed.
5) It is important that all wire lengths are kept as short as possible and that incoming mains and
outgoing motor cables are kept well separated.
" To minimize the conducted radio disturbance in the power distribution system, the length
of the motor-cable should be as short as possible. "
Table 12-2-1 RFI filters
Max. motor cable length
Applied
Inverter
Filter Type
Rated
Current
Max.
Rated
Voltage
EN55011
Class B
EN55011
Class A
FVR0.1E11S-7EN
FVR0.2E11S-7EN
FVR0.4E11S-7EN
EFL-0.4E11-7 6.5A
FVR0.75E11S-7EN EFL-0.75E11-7 18A
FVR1.5E11S-7EN
FVR2.2E11S-7EN
EFL-2.2E11-7 29A
1ph
240Vac
FVR0.4E11S-4EN
FVR0.75E11S-4EN
EFL-0.75E11-4 5A
FVR1.5E11S-4EN
FVR2.2E11S-4EN
EFL-2.2E11-4 10A
FVR4.0E11S-4EN EFL-4.0E11-4 15A
FVR5.5E11S-4EN
FVR7.5E11S-4EN
EFL-7.5E11-4 30A
3ph
480Vac
10m 50m
Note : For detail, refer to the instruction manual that came with the RFI filters.

12-2
Fig.12-2-1 Recommended installation
Three-phase power supply
Metal wiring cabinet
Screened Motor Cable
Screening must be electrically
continuous and earthed at the
cabinet and the motor.
M
3~
W
V
U
L3
L2
L1
G
L3’
L2’
L1’
G
L3/T
L2/S
L1/R
G
InverterRFI filter
MCCB or ELCB
Single-phase power supply
Metal wiring cabinet
Screened Motor Cable
Screening must be electrically
continuous and earthed at the
cabinet and the motor.
M
3~
W
V
U
N
L
G
N’
L’
G
L2/N
L1/L
G
InverterRFI filter
MCCB or ELCB
G
G

Fvr e11 manual

More Related Content

What's hot (20)

Similar to Fvr e11 manual (20)

More from Toàn Huỳnh (20)

Recently uploaded (20)

Fvr e11 manual