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www.microchip.com/lighting
Intelligent Lighting and Control Solutions
Enabling Innovation in Lighting
Intelligent Lighting Solutions

2 Intelligent Lighting and Control Solutions
Intelligent Lighting and Control
Summary
Microchip can meet the technical needs of lighting engineers with its large array of 8-, 16-, 32-bit
PIC®microcontrollers, analog, wireless, and human interface products. With advanced peripheral
integration and support for all lighting technologies, a scalable Microchip solution provides
significant flexibility versus that of a pure analog or ASIC implementation. Designing with
Microchip-based intelligent lighting solutions and control enables innovation that expands lighting
product capabilities and provides product differentiation.
Light-emitting diode (LED) and fluorescent technologies are currently at the forefront of delivering
the most efficient alternatives to incandescent lighting. Although both pose technical challenges,
they also offer significant advantages beyond simple incandescent light bulb replacement,
including improved efficacy (lumens/watt), reduced energy consumption and the ability to
add intelligence.
Because the light quality of these alternate lighting technologies is perceived
to be similar to that of incandescent lighting, the benefits of longer life and
increased energy savings may not always be considered significant enough
to motivate changes in the market. Microchip’s advanced lighting solutions
offer you the opportunity to incorporate non-traditional capabilities into your
lighting designs. Features such as predictive failure and maintenance, energy
monitoring, color and temperature maintenance and remote communications
and control are just some of the advanced capabilities that can make intelligent
lighting solutions more attractive. These advanced capabilities—along with
reduced operating, maintenance and energy costs—can quickly translate to
significant savings, particularly for corporate and commercial facilities.
Value Proposition
Microchip-based lighting solutions provide opportunities to further enhance any lighting application through product
differentiation and an improved user experience.
Learn More
Microchip offers various resources to assist you in your
next product design. Learn more about Intelligent Lighting
and Control solutions from Microchip by visiting us on
the web at: www.microchip.com/lighting or emailing us
at: lighting@microchip.com.
Intelligence
■ Communication and networking
■ Lumen and color control
■ Environmental sensing
■ Thermal management
■ Predictive failure and maintenance
■ Daylight harvesting
■ Smooth dimming control
■ Color mixing
■ Closed loop lighting control
■ Remote fault detection
■ User interface and control
Flexible Power
■ Flexible power topology support
■ High efficiency power conversion
■ Failsafe monitoring
■ Energy monitoring and control
■ Energy harvesting (e.g. solar)
■ Battery management and charging
Scalable Design
■ Scalable performance
• 8-, 16-, 32-bit PIC MCUs
• Analog products
• Wireless ICs and modules
• Human interface products
■ Customizable solutions
■ Ease of use
• Easy-to-use development tools
• Reference designs and collateral
• Lighting design
partner specialists

3Intelligent Lighting and Control Solutions
Lighting Technology Basics
Incandescent Lighting Technology
Advantages Disadvantages
■ Cheap
■ Large amounts of visible light
■ No electronics required
■ Poor efficiency
• ~10% input energy = light
• ~90% input energy = radiated heat
• 10–30 lumens/watt (efficacy)
■ Short life: 1,000–2,000 hours
Incandescent light sources are good at creating large amounts of visible light and even greater
amounts of heat. As a result, a typical light bulb is not very efficient—only about 10% of the
input energy is output as light with the remaining 90% being wasted as radiated heat. The
typical light bulb has a relatively short lifetime—ranging from several hundred to a couple
thousand hours—as the extreme heat of the tungsten causes it to evaporate and eventually fail.
Fluorescent Lighting and HID Technology
■ Relatively inexpensive
• ~75% less energy than incandescent
• More than 70 lumens/watt (efficacy)
■ Increased life: > 8,000 hours
■ Typically requires “warm up”
■ Can contain mercury
■ Sensitive to environment and orientation
■ Moderate light quality
Typical fluorescent lighting operates by driving a current through a glass enclosure
containing an inert gas and mercury. With the help of phosphors, these elements
create visible light when they are excited by electricity. High intensity discharge (HID) lamps or arc lamps are similar in
function but create visible light through electrically excited gases (plasma) without the use of phosphors. In both glow-
discharge lamps and HID lamps, a ballast is required to initiate and maintain this electrical reaction. The ballast kick-
starts the electrical-gas reaction with a large amount of energy and then regulates the current back down to a normalized
operating current. High-resolution PWM control is required to accurately control this reaction as well as provide smooth
dimming control.
LED Lighting Technology
■ Best overall efficiency
• ~25–50% less energy than fluorescent
• More than 100 lumens/watt (efficacy)
■ Longest life: > 50,000 hours
■ No “warm up”, no radiated heat
■ Good in indoor and outdoor applications
■ Requires active or passive thermal
solution to remove conducted heat
Similar to a traditional LED, a High Brightness Light Emitting Diode (HBLED) produces light
when forward biased, enabling the electron-hole recombination that releases light photons.
LED light output is a direct function of the current flow—too little current and the light
will dim, too much current and lifetimes will be shortened. A typical LED driver is a DC power supply providing converted
AC or DC power to directly control the LED via constant current, Pulse Width Modulation (PWM), or other variations. The
LED driver must also provide high efficiencies and power factor correction (PFC) while providing protection from AC line
voltage fluctuations.
LED drivers can be designed to offer dimming and RGBW color mixing capabilities by either providing a high resolution PWM
(or variants such as VFM—Variable Frequency Modulation) signal or varying the constant current.
Constant Current Method
■ Light output maintained by constant current level
■ Dimming control via varying current level
■ Requires high resolution current control
Modulated Current Method
■ Fixed current drive chopped by PWM
■ Dimming control via varying PWM duty cycle
Power
Conversion
and Control
Current Control
0%
50%
100%
Current
LightOutput
Power
Conversion
and Control
PWM Control
Variable PWM Duty Cycle

Efficient Power Conversion for Ballasts and Drivers
Microchip-based solutions can support any lighting technology as well as add capabilities beyond those of traditional
lighting solutions. The flexibility of these solutions allows for simplified attachment to existing designs or the development
of full Switch Mode Power Supply (SMPS) based intelligent solutions—and everything in between.
PIC MCU Attached to Basic Power Supply
■ ■ Simplified design-in
■ ■ Customizable features
■ ■ Simplified modifications via firmware updates
■ ■ Intelligent control capabilities
SMPS with PIC MCU and Microchip Analog
■ ■ Increased MCU integration
■ ■ Fully customizable
■ ■ Increased efficiency
■ ■ Power Factor Correction (PFC)
■ ■ Flexible topologies
■ ■ Simplified modifications via firmware updates
■ ■ Closed loop control
■ ■ High performance PWM and current control
Energy Harvesting and Battery Charging
■ ■ PIC MCU controlled power conversion
and battery storage
■ ■ Peak power tracking control, charging and power delivery
■ ■ Customizable Maximum Power Point Tracking (MPPT)
and battery charging algorithms
■ ■ Support for various power supply topologies
The SMPS topologies utilized to regulate the power within lighting applications are the same used within a power supply
application. Each SMPS topology has its advantages and determining the proper topology is dependent upon the specific
application requirements.
SMPS Topologies
Topology Vin vs. Vout Relationship Maximum Power Range Peak Efficiency
Buck Vin Vout 1000W 90%
Boost Vin Vout 150W 90%
Buck/Boost Vout Vin Vout 150W 80%
SEPIC. Cuk. Zeta Vout Vin Vout 150W 90%
Flyback Vout Vin Vout 150W 80%
Resonant Vout Vin Vout 500W 90%
Push-Pull Vout Vin Vout 1000W 90%
Current/PWM
AC/DC or DC/DC
Power Conversion
PIC®
MCU
Current
AC or DC
Power Source
Voltage
Regulator
FETs
Drivers
PWM
Controller
Rectifier
EMI Filter Transformer
Current
Feedback
User
Interface
Sensor
Interface
Thermal
Monitor
System
Monitor
Custom
Communication
Current/PWM
AC/DC or DC/DC
Power Conversion
PIC®
MCU
Current
AC or DC
Power Source
FETs
Drivers
Voltage
Regulators
Temp.
Sensors
Rectifier
EMI Filter
Transformer
User
Interface
PWM
Controller
Thermal
Monitor
System
Monitor
Current
Feedback
Custom
Communication
Sensor
Interface
Current/PWM
CurrentSolar panel
Solar
Charging Delivery
DC/DC
Power Conversion
Rectifier
EMI Filter
Transformer
PIC®
MCU
FETs
Drivers
Voltage
Regulators
Temp.
Sensors
Battery
Charging MPPT
Thermal
Monitor
System
Monitor
Current
Feedback
Custom
Communication
Sensor
Interface

Intelligent Lighting Controls
No matter which lighting technology is used, the ability to effectively control the light source is essential. Replacing a simple on/off
switch, advanced lighting control provides the opportunity to incorporate additional intelligence and increase energy savings.
The ability to dim any light source is the most common requirement of a light controller, but it is also a potential design
obstacle. Most legacy dimmers are simple TRIAC dimmers that can vary the light output of an incandescent light source
from 0–100%. These vary the brightness by “chopping” the AC line voltage and controlling the effective power to the lamp,
thereby varying the light output. This method functions well with incandescent sources, as well as with some specially
designed CFL ballasts, but does not function properly with most conventional drivers or ballasts. In order to effectively
dim LED and fluorescent light, specialized methods such as varying PWM frequency or variable current is required. This is
easily implemented with electronic dimming controllers.
Functions such as dimming and timers are becomming commonplace, but intelligent control provides opportunities to
enrich the user experience and increase value. Incremental energy savings can be provided by integrating elements such
as energy management and harvesting (ie. solar), ambient light compensation (reducing light output based on other
localized light sources) and occupancy or motion sensing. Intelligent control enables the creation of lighting networks that
communicate locally as well as to remote locations to increase energy savings further and reduce maintenance cost via
items such as fixed light output in lighting arrays (ie. street lamps, large rooms, etc.), monitoring light output and providing
real-time operating issues. Lighting can also be integrated into other system topologies including security systems or
automation and control. Aesthetically, lighting control supports custom mood lighting designs which can vary brightness,
color and color temperature across large lighting arrays.
Using Microchip’s intelligent light and control solutions, you can integrate a variety of enhanced capabilities into the
luminaire ballast/driver, wall controller or remotes to create additional product differentiation. You are limited only by your
creativity in designing differentiated products that offer customizable user interfaces and improved user experience.
Legacy Control
Non-Intelligent Lighting Control
■ Mechanical interface
■ Limited luminaire control
■ No user feedback
■ No communication
■ No product differentiation
Intelligent Control
mTouch™ Capacitive Touch (all PIC MCU families)
■ Metal over cap capability
■ Projected capacitive capability
Segmented LCD (PIC16, PIC18, PIC24)
■ Up to 480 segments
■ Low power display modes
■ Contrast control
Graphics (PIC24, PIC32, dsPIC DSC)
■ Integrated graphics controllers
■ Direct drive for QVGA and W-QVGA
Audio (PIC18, PIC24, PIC32, dsPIC DSC)
■ Mode for iPod® and Android™ accessories
Communication (all PIC MCU families)
■ Intelligent luminaire control
■ DALI, DMX512, LIN/CAN, wireless, others...
■ FREE code libraries
Gesture Control (GestIC®Technoogy)
■ Recognition of 3D hand gestures

Communications and Networking
Microchip solutions provide the versatility to support legacy lighting communications protocols as well as protocols that are
just emerging in the lighting industry. Our FREE code libraries and examples for PIC MCUs help you quickly add a wide array
of communication options to any lighting application. The versatility of a Microchip-based solution enables the creation of
customized communications gateways and networks that allow for interoperability of multiple protocols.
Wired Protocols
■ ■ DALI
■ ■ DMX512A
■ ■ 0–10V
■ ■ PLC
■ ■ LIN
■ ■ CAN
■ ■ RS232/RS485
■ ■ USB LS/FS
■ ■ Ethernet
Wireless Protocols
■ ■ Wi-Fi 802.11 modules
■ ■ Bluetooth®
■ ■ ZigBee®
■ ■ MiWi™ wireless networking
protocol 802.15.4 modules
■ ■ Stacks for PIC MCUs
■ ■ Infrared/IrDA®
0–10V
0–10V is the simplest and most prevalent lighting
communication protocol. Scaling from 0 to 10V,
communication is based on varying the voltage levels. This
is useful for dimming, as well as responding to external
input sources, such as sensors, remotes, wall-box controls
and automation.
Digital Addressable Lighting Interface (DALI)
DALI is a standard lighting control protocol for large
networked lighting systems. DALI provides bi-directional
communications with uniquely addressed light sources.
This allows for customized lighting schemes and the ability
for the light source to relay output level, color and other
information back to the controller. Microchip offers FREE
DALI code libraries to simplify development—available at
www.microchip.com/lightingcomms.
Digital Multiplex 512 bytes (DMX512)
DMX512A is another successor to 0–10V which provides
dimming communication. Used heavily within stage
and theatrical lighting applications, DMX512A provides
unidirectional lighting communication and control of
various stage effects. Microchip offers FREE DMX512A
code libraries to simplify development—available at
www.microchip.com/lightingcomms.
CAN and LIN
CAN and LIN protocols were originally created for the
automotive market. CAN was designed as a high-reliability
and high-speed protocol (up to 1 Mbit/s) for the harsh
environment of the car electrical bus. LIN was later added
as a simple low-cost alternative for the control of non-critical
modules on a vehicle. Due to their inherent robustness,
these protocols are becoming more commonly used in
non-automotive applications, specifically within industrial
and commercial lighting environments. Learn more at
www.microchip.com/LIN and www.microchip.com/CAN.
Ethernet
Ethernet connectivity is becoming ubiquitous. As lower-cost
solutions are now more available, it is becoming easier to
use Ethernet for even the simplest control and diagnostic
applications. Learn more at www.microchip.com/ethernet.
ZigBee
ZigBee is an industry standard protocol for wireless
networking. Specifically designed for low-cost and
relatively low-bandwidth automation applications, it
allows for quick deployment of flexible network topologies
including star, cluster and mesh. Learn more at
www.microchip.com/zigbee.
MiWi Wireless Networking Protocol
The MiWi wireless networking protocol is the most
cost-effective wireless protocol designed for low-data-
rate, short-distance, low-cost networks. Fundamentally
based on IEEE 802.15.4™ for wireless personal area
networks (WPANs), the MiWi wireless networking protocol
is Microchip’s proprietary RF protocol with FCC-certified
modules—providing an easy-to-use and low-cost
alternative for wireless communication. Learn more at
www.microchip.com/miwi.
Wi-Fi
Wi-Fi is the most common of all wireless protocols.
Microchip’s Wi-Fi modules have been architected to ease
integration at minimum system cost. FCC-certified modules
are readily available to minimize design effort and time.
Learn more at www.microchip.com/wireless.

Scalable Product Solutions
8-bit PIC®Microcontrollers
(PIC18, PIC16, PIC12, PIC10)
16-bit/32-bit PIC Microcontrollers
(PIC32, dsPIC® DSC, PIC24)
Analog Wireless
■ ■ Luminaire ballast
and LED drivers
■ ■ Wall and remote controls
■ ■ Communication
and networking
■ ■ 100W Optimized
power conversion
■ ■ Lowest cost
■ ■ Smallest form factors
■ ■ Advanced controllers and
luminaires
■ ■ Advanced communication
and networking
• RF gateway and translators
• Power line carrier (PLC)
■ ■ Advanced intelligent
control capabilities
■ ■ 100W Advanced
power conversion
■ ■ Increased performance
■ ■ Increased lighting channels
■ ■ High-voltage offline
LED driver ICs
■ ■ Broad portfolio
of DC/DC power
conversion solutions
■ ■ SMBus and I2C™
temperature sensors
■ ■ Highly configurable
PWM controllers
■ ■ Complementary PIC
MCU compatible
regulators, drivers
and sensors
■ ■ Wi-Fi®802.11
modules
■ ■ ZigBee®RF4CE
■ ■ MiWi™ Wireless
Networking Protocol
802.15.4 modules
■ ■ Infrared/IrDA®
Focus Peripherals Integration
Microchip is a leading provider of microcontrollers by continually investing and expanding upon its extensive line of PIC
microcontrollers. Emphasis is constantly focused on reducing costs while developing products with a strong mix of digital
and analog peripherals such as LCD drive, DACs, op amps, PWMs, ADCs, comparators, timers and communication. In
addition to the standard peripherals, Microchip continuously brings additional value to PIC microcontrollers by developing
unique and exclusive peripherals. These unique peripherals allow you to simplify you embedded lighting designs and
develop more creative applications and products. The following PIC microcontroller’s integrated peripherals are available
to assist you in designing innovative lighting products. Learn more about Microchip’s “Core Independent Peripherals” at
www.microchip.com/CIP.
Peripheral Summary
Peripheral Capability Product Integration
High Resolution PWM
(HRPWM)
Smooth dimming, accurate color mixing
All PIC®micrcontrollers with
NCO and CLC
Programmable Switch Mode Controller
(PSMC)
Efficient, autonomous power conversion PIC16F178X Family
Complementary Output Generator
(COG)
Automated complementary output for simplified
design of high-efficency LED drive circuits
PIC12F752, PIC16F785
Complementary Waveform Generator
(CWG)
Non-overlapping waveform generator for versatile
lighting control
PIC10F32X Family, PIC16F150X Family
Numerically Controller Oscillator
(NCO)
Precision linear frequency generator for building
power conversion function
Configurable Logic Cell
(CLC)
Configurable combinational and sequential logic for
combining functional blocks in lighting driver and
control systems
Hardware Limit Timer
Hardware monitoring for fault detection in
lighting systems
PIC16F161X Family, PIC12F752,
PIC12F753
Zero Crossing Detect (ZCD) Precise dimming and switching control
PIC16161X Family, PIC16170X Family,
PIC16171X Family
Slope Compensation
Performs slope compensation function for Peak
Current Mode LED drivers
PIC16F753
MiWi™

High Resolution PWM (HRPWM)
■ ■  16-bit effective PWM resolution at high frequency (eg. ~ 16-bit @ 500 kHz)
■ ■ Requires Numerically Controlled Oscillator (NCO) and Configurable Logic Cell (CLC)
■ ■ Improved EMI performance
■ ■ Higher frequency operation
■ ■ Results in reduced sizing of inductors and capacitors
■ ■ Application Note: AN1476 – Combining the CLC and NCO to Implement a High Resolution PWM
Conventional PWM vs. HRPWM
Conventional PWM HRPWM
PWM Resolution 16-bit variable
PWM Clock Frequency 16 MHz 16 MHz
Target Switching Frequency 500 kHz 500 kHz
Target Period Width 1+ 500 kHz = 2 µs 1+ 500 kHz = 2 µs
Best PWM Pulse Adjustment 1+ 16 MHz = 62.5 ns 15.26 ps**
Maximum # of Steps per Period 2 µs + 62.5 ns = 32 2 µs + 15.26 ps = 131,072
Effective Full Range PWM Resolution log232 = 5 bits log2131,072 = 17 bits
**Reference Application Note AN1476
Programmable Switch Mode Controller (PSMC)
■ ■ Single 16-bit PWM with up to six steerable outputs
■ ■ Complementary 16-bit PWM with up to three steerable output pairs
■ ■ Clock sources: external, system clock, independent 64 MHz oscillator
■ ■ Input sources: comparators, external pins
■ ■ Blanking control for transient filtering 1
■ ■ Independent rising/falling edge control 2
■ ■ Dead band with independent rise and fall control 3 / 4
■ ■ Polarity control/auto shutdown and restart
■ ■ Flexible PWM output modes
■ ■ Burst Mode: externally control activate/deactivate
NCOCLC
System Clock
PWM
Comparator
External Pin
Input Sources HRPWM Output
17-bit PWM
Max # Steps = 217
= 131,072
Clock Period
Variable PWM
Duty Cycle
0Max Steps
Input Source
1 - Blanking control
Electrical
Transient






Up to 6 single PWM Outputs or
Up to 3 Complimentary Pair Outputs
2 - Independent rising/falling output control
3 - Rising edge deadband control
4 - Falling edge deadband control
1
2
3 4
PSMC
Out0
Source
Input
Clock
Out1
Out2
Out3
Out4
Out5
Comparator
External
64 MHz
Clock

Complementary Waveform Generator (CWG)/Complementary Output Generator (COG)
■ ■ Provides non-overlapping complementary waveform
■ ■ Various input sources including comparators, PWM, CLC, NCO
■ ■ Blanking control for transient filtering 1 (COG only)
■ ■ Phase control for output delay 2 (COG only)
■ ■ Independent rise and fall 3 / 4
■ ■ Dead band control
■ ■ Auto shutdown/restart
■ ■ Polarity control
Numerically Controlled Oscillator (NCO)
Oscillator Capabilities with True Linear Frequency Control
Configurable Logic Cell (CLC)
■ ■ User-configurable real-time logic control
• CLC configuration GUI for quick turn development
■ ■ Combinational logic functions
• AND/OR/XOR/NOT/NAND/NOR/XNOR
■ ■ State Functions/Clock
• D Flip-Flop, JK Flip-Flop D Latch, SR Latch
■ ■ Input source from external pins and peripherals
■ ■ Output available to external pins and peripherals
■ ■ Operation while in Sleep
Input Source
1 - Blanking control, for transient filtering
Electrical
Transient






Complementary Outputs
2 - Phase control
3 - Rising edge deadband control
4 - Falling edge deadband control
1
2
3 4
CWG/COG
Out0
Source
Input
Out1
Comparator
PWM
External
Input
Key Features
■ ■ Up to 20-bit frequency resolution
■ ■ Multiple internal and external clock sources available
■ ■ 16-bit numeric frequency control
• 625 kHz max output with 20 MHz oscillator
• 0.03 Hz min step size with 31 kHz internal oscillator
■ ■ Two Output modes
• Fixed 50% duty cycle 1
• Pulse Frequency Modulation (PFM) 2
Benefits
■ ■ True linear frequency control
■ ■ Increased frequency resolution
■ ■ Smooth fluorescent ballast dimming control
FDC
PFM
1
2
PIC®
Microcontroller
Light Output
BulbVoltage
Frequency
Max.
Brightness
Min.
Brightness
NCO provides linear
control over entire range
NCO
ADC

Focus Microchip Products
Focus PIC®Microcontrollers
8-bit PIC® Microcontrollers
Device
FlashMemory(B)
Pins
ADC
Comparator
OpAmps
DAC
(5b/8b/9b/10b)
PWM(10b/16b)
CLC
NCO
CWG/COG
PSMC
HRPWM
Slope
Compensation
ZCD
High-CurrentDrive
(50mA/100mA)
PIC10F320 448 6 3 × 8-bit – – – 2/0 1 ü ü – ü – – –
PIC10F322 896 6 3 × 8-bit – – – 2/0 1 ü ü – ü – – –
PIC12F1501 1.75K 8 4 × 10-bit 1 – 1/0/0/0 4/0 2 ü ü – ü – – –
PIC16F1503 3.5K 14 8 × 10-bit 2 – 1/0/0/0 4/0 2 ü ü – ü – – –
PIC16F1507 3.5K 20 12 × 10-bit – – 1/0/0/0 4/0 2 ü ü – ü – – –
PIC16F1508 7K 20 12 × 10-bit 2 – 1/0/0/0 4/0 4 ü ü – ü – – –
PIC16F1509 14K 20 12 × 10-bit 2 – 1/0/0/0 4/0 4 ü ü – ü – – –
PIC12F1571 1.75K 8 4 × 10-bit 1 – 1/0/0/0 0/3 – – ü – – – – –
PIC12F1572 3.5K 8 4 × 10-bit 1 – 1/0/0/0 0/3 – – ü – – – – –
PIC12F(HV)752 1.75K 8 4 × 10-bit 2 – 1/0/0/0 1/0 – – ü – – – – ü
PIC16F(HV)753 3.5K 14 8 × 10-bit 2 1 0/0/1/0 1/0 – – ü – – ü – ü
PIC12F1612 3.5K 8 4 × 10-bit 1 – 0/1/0/0 2/0 – – ü – – – ü –
PIC16F1613 3.5K 14 8 × 10-bit 2 – 0/1/0/0 2/0 – – ü – – – ü –
PIC16F1614 7K 14 8 × 10-bit 2 – 0/1/0/0 2/0 2 – ü – – – ü ü
PIC16F1615 14K 14 8 × 10-bit 2 – 0/1/0/0 2/0 2 – ü – – – ü ü
PIC16F1618 7K 20 12 × 10-bit 2 – 0/1/0/0 2/0 4 – ü – – – ü ü
PIC16F1619 14K 20 12 × 10-bit 2 – 0/1/0/0 2/0 4 – ü – – – ü ü
PIC16F1703 3.5K 14 12 × 10-bit – 2 – 2/0 – – – – – – ü –
PIC16F1704 7K 14 12 × 10-bit 2 2 0/1/0/0 4/0 3 – ü – – – ü –
PIC16F1705 14K 14 12 × 10-bit 2 2 0/1/0/0 4/0 3 – ü – – – ü –
PIC16F1707 3.5K 20 12 × 10-bit – 2 – 2/0 – – – – – – ü –
PIC16F1708 7K 20 12 × 10-bit 2 2 0/1/0/0 4/0 3 – ü – – – ü –
PIC16F1709 14K 20 12 × 10-bit 2 2 0/1/0/0 4/0 3 – ü – – – ü –
PIC16F1713 7K 28 17 × 10-bit 2 2 1/1/0/0 4/0 4 ü ü – ü – ü –
PIC16F1716 14K 28 17 × 10-bit 2 2 1/1/0/0 4/0 4 ü ü – ü – ü –
PIC16F1718 28K 28 17 × 10-bit 2 2 1/1/0/0 4/0 4 ü ü – – – ü –
PIC16F1717 14K 40 28 × 10-bit 2 2 1/1/0/0 4/0 4 ü ü – ü – ü –
PIC16F1719 28K 40 28 × 10-bit 2 2 1/1/0/0 4/0 4 ü ü – ü – ü –
PIC16F1782 3.5 28 11 × 12-bit 3 2 0/1/0/0 0/2 – – – 2 – – – –
PIC16F1783 7K 28 11 × 12-bit 3 2 0/1/0/0 0/2 – – – 2 – – – –
PIC16F1784 7K 40 14 × 12-bit 4 3 0/1/0/0 0/3 – – – 3 – – – –
PIC16F1786 14K 28 11 × 12-bit 4 2 0/1/0/0 0/3 – – – 2 – – – –
PIC16F1787 14K 40 14 × 12-bit 4 3 0/1/0/0 0/3 – – – 3 – – – –
PIC16F1788 28K 28 11 × 12-bit 4 2 3/1/0/0 0/3 – – – 3 – – – –
PIC16F1789 28K 40 14 × 12-bit 4 3 3/1/0/0 0/3 – – – 3 – – – –

16-bit PIC® Microcontrollers
Device
FlashMemory(B)
Pins
ADC
Comparator
OpAmps
DAC
(5b/8b/9b/10b)
PWM(10b/16b)
CLC
NCO
CWG/COG
PSMC
HRPWM
Slope
Compensation
ZCD
High-CurrentDrive
(50mA/100mA)
dsPIC33FJ64GS610 64K 100 24 × 10-bit 4 – 0/0/0/1 9 × 2 – – – – – – – –
dsPIC33FJ64GS608 64K 80 16 × 10-bit 4 – 0/0/0/1 8 × 2 – – – – – – – –
dsPIC33FJ64GS606 64K 64 16 × 10-bit 4 – 0/0/0/1 6 × 2 – – – – – – – –
dsPIC33FJ64GS406 64K 64 16 × 10-bit 0 – – 6 × 2 – – – – – – – –
dsPIC33FJ32GS610 32K 100 24 × 10-bit 4 – 0/0/0/1 9 × 2 – – – – – – – –
dsPIC33FJ32GS608 32K 80 16 × 10-bit 4 – 0/0/0/1 8 × 2 – – – – – – – –
dsPIC33FJ32GS606 32K 64 16 × 10-bit 4 – 0/0/0/1 6 × 2 – – – – – – – –
dsPIC33FJ32GS406 32K 64 16 × 10-bit – – – 6 × 2 – – – – – – – –
dsPIC33FJ16GS504 16K 44 12 × 10-bit 4 – 0/0/0/1 4 × 2 – – – – – – – –
dsPIC33FJ16GS502 16K 28 8 × 10-bit 4 – 0/0/0/1 4 × 2 – – – – – – – –
dsPIC33FJ16GS404 16K 44 8 × 10-bit – – – 3 × 2 – – – – – – – –
dsPIC33FJ16GS402 16K 28 8 × 10-bit – – – 3 × 2 – – – – – – – –
dsPIC33FJ06GS202 6K 28 6 × 10-bit 2 – 0/0/0/1 2 × 2 – – – – – – – –
dsPIC33FJ06GS102 6K 28 6 × 10-bit – – – 2 × 2 – – – – – – – –
dsPIC33FJ06GS101 6K 18 6 × 10-bit – – – 2 × 2 – – – – – – – –
dsPIC33FJ09GS302 9K 28/36 8 × 10-bit 2 – 0/0/0/1 3 × 2 – – – – – – – –
dsPIC33FJ06GS202A 6K 28/36 6 × 10-bit 2 – 0/0/0/1 2 × 2 – – – – – – – –
dsPIC33FJ06GS102A 6K 28/36 6 × 10-bit – – – 2 × 2 – – – – – – – –
dsPIC33FJ06GS101A 6K 18/20 6 × 10-bit – – – 2 × 2 – – – – – – – –
dsPIC33FJ06GS001 6K 18/20 6 × 10-bit 2 – – 2 × 2 – – – – – – – –
Focus Analog Products
Digitally-Enhanced PWM Controllers with Integrated MCU
Device Description
Toplogy
Support
Vsupply (V)
Fsw
(Max)
Program Memory
Size (k words)
RAM
(bytes)
Operating
Temperature (°C)
MCP19110/1
Synchronous buck controller, integrated MCU, LDO and
synchronous MOSFET driver, user configurable/programmable
Buck 4.5–32 1600 4 256 −40 to +125
MCP19114/5
Low-side drive PWM controller offers multiple power conversion
topology support, integrated MCU, LDO and synchronous low-
side MOSFET driver, user configurable/programmable
Boost,
Flyback,
SEPIC,
Cu´ k
4.5–42 2000 4 256 −40 to +125
Analog PWM Controller with Integrated MOSFET Driver
Device Description Toplogy Support
Vsupply
(V)
Iq
(mA)
Fsw (kHz)
(Max)
Operating
Temperature (°C)
MCP1630 Current-mode PWM controller with integrated low-side MOSFET driver Boost, SEPIC, Flyback 2.7–5.5 2.8 1000 −40 to +125
MCP1631/
MCP1631HV
Current-mode PWM controller with integrated low-side MOSFET
driver, integrated 16V LDC
Boost, SEPIC, Flyback 3-16 3.7 2000 −40 to +125
MCP1632
Current- or voltage-mode PWM controller with integrated low-side
MOSFET driver
Boost, Buck-Boost, Flyback,
SEPIC,Cu´ k
3.0–5.5 5 600 −40 to +125
Sequential Linear LED Driver
Device Vin (VAC) Vout (VDC)
Ouput Current
(peak)
Dimming Parallelable Packages Features
CL8800 90–275 70–350 115 mA External dimmer ü 33-pin QFN 6-Stage
CL8801 90–275 70–350 200 mA External dimmer ü 33-pin QFN 4-Stage
Voltage Regulators
Device Toplogy Support Vsupply (V) Output Voltage (V) Output Current (mA) Iq (Typical) (μA) Fsw (kHz) Operating Temperature (°C)
MCP1623/4 Boost 0.35–5.5 2.0–5.5 175 19 500 −40 to +85
MCP16251/2 Boost 0.82–5.5 1.8–5.5 225 14 500 −40 to +125
MCP1640 Boost 0.65–5.5 2.0–5.5 350 19 500 −40 to +85
MCP1643 Boost 0.5–5.0 (HV: 36V) 0.6–5.0 550 30 1000 −40 to +85
MCP16301/HV Buck 4.0–30 2.0–15 600 2000 500 −40 to +125
MCP16311/2 Buck 4.4–30 2.0–24 1000 85 500 −40 to +125

Focus Analog Products
Power MOSFET Driver
Device Description
Number of
Channels
Vsupply
(V)
Peak Drive
Strength (A)
Output Resistance
(Rh/Rl, Ω-max)
Input/Output Delay
(ns)
Operating
Temperature (°C)
MCP1401/
MCP1402
Low-side MOSFET Drivers,
0.5A Peak Output Current
Single 18 0.5 12/10 35/35 −40 to +125
MCP1415/
MCP1416
Low-Side MOSFET Drivers,
Single 18 1.5 6/4 41/48 −40 to +125
MCP14E6/7/8
Dual 18 2.0 5/5 45/45 −40 to +125
MCP14E9/10/11
Dual 18 3.0 4/4 45/45 −40 to +125
MCP14E3/4/5
Dual 18 4.0 2.5/2.5 56/50 −40 to +125
MCP14628
Synchronous (High-Side/Low-
Side) MOSFET Driver
Dual
(high/low)
5
2.0, 3.5 (low
side sink only)
1.0/1.0 (high side)
1.0/0.5 (low side)
15/18 (high side)
16/22 (low side)
−40 to +85
MCP14700
Synchronous (High-Side/Low-
Side) MOSFET Driver
Dual
(high/low)
5
2.0, 3.5 (low
side sink only)
1.0/1.0 (high side)
1.0/0.5 (low side)
27/27 (high side)
17/17 (low side)
−40 to +125
High-voltage, Low-side Buck LED Driver ICs
Device Internal Reference External Reference Control Algorithm Mode Input Voltage Packages
HV9910B 250 mV ± 10% Vld ± 12 mV Peak-current mode controller Fixed freq./Fixed Toff 8–450V 8-pin SO, 16-pin SO
HV9910C 250 mV ± 10% Vld ± 12 mV Peak-current mode controller Fixed freq./Fixed Toff 15–450V 8-pin SO, 16-pin SO
HV9961 275 mV ± 3% 0.182–0.188 Vld ± 10 mV Average-current mode controller Fixed Toff 8–450V 8-pin SO, 16-pin SO
HV9861A 270 mV ± 3% 0.175–0.182 Vld ± 10 mV Average-current mode controller Fixed Toff 15–450V 8-pin SO, 16-pin SO
HV9803 – 0.49 Vld ± 16 mV Average-current mode controller Fixed Toff 8–16V 8-pin SO
HV9803B – 0.495 Vld ± 16 mV Average-current mode controller Fixed Toff 8–16V 8-pin SO
Boost/SEPIC LED Drivers
Device
Number of
Channels
Input Voltage Main Features Packages
HV9911 1 9–250V Latched mode output short circuit and open circuit protection 16-pin SO
HV9912 1 9–90V Hiccup mode output short circuit and open circuit protection 16-pin SO
HV9964 1 8–40V High PWM dimming ratio ( 10,1000:1), Latched mode open-loop protection 16-pin SO
HV9982 3 10–40V Three channel LED driver, Hiccup mode output short circuit and open circuit protection 40-pin QFN
HV9985 3 10–40V Three channel LED driver optimized for driving logic level FETs 40-pin QFN
HV9986 3 10–40V Independent open circuit and short circuit protection for each channel 40-pin QFN
DC/DC LED Driver ICs
Device Input Voltage Topology Support
Control
Algorithm
Main Features
Automotive
Qualified
Packages
HV9918 4.5–40V Buck Hysteretic Integrated 40V, 1Ω switching FET, On-board Analog-to-PWM conversion – 8-pin DFN
HV9919B 4.5–40V Buck Hysteretic
0.5A source and 1A sink gate driver for logic level FETs, On-board
Analog-to-PWM conversion
– 8-pin DFN
HV9930 8–200V Boost-Buck (Cúk) Hysteretic Programmable input current limit, Excellent input voltage transient rejection – 8-pin SO
HV9967B 8–60V Buck
Average
mode
Integrated 60V, 0.8Ω switching FET, Output short circuit and over
temperature protection
–
8-pin MSOP,
8-pin DFN
AT9917 5.3–40V Boost/SEPIC
Closed loop/
Fixed Freq.
Programmable thermal fold back profile, low shutdown quiescent current ü 24-pin TSSOP
AT9919B 4.5–40V Buck Hysteretic
0.5A source and 1A sink gate driver for logic level FETs, On-board
Analog-to-PWM conversion
ü 8-pin DFN
AT9932 5.3–40V Boost-Buck (Cúk)
Closed loop/
Fixed Freq.
Excellent input voltage transient rejection, Programmable thermal
fold back profile
ü 24-pin TSSOP
AT9933 8–75V Boost-Buck (Cúk) Hysteretic Programmable input current limit, Excellent input voltage transient rejection ü 8-pin SO
Thermal Management: Temperature Sensors
Device Description
# Temps
Monitored
Typical/Max
Accuracy (°C)
Operating
Temperature (°C)
Vcc Range
(V)
Typical Supply Current
(µA)
MCP9800/1/2/3 SMBus/I2
C™ temperature sensor 1 0.5/1.0 −40 to +125 2.8–5.5 200
TCN75A SMBus/I2
C temperature sensor 1 0.5/3.0 −40 to +125 2.8–5.5 200
MCP9700/01 Voltage output temperature sensor 1 1.0/4.0 −40 to +125 2.3–5.5 200
EMC1412/3/4 SMBus/I2
C multi temperature sensor 2/3/4 0.25/1/0 −40 to +125 3.0–3.6 430
MCP9808 SMBus/I2
C temperature sensor 1 0.25/5.0 −40 to +125 2.7–5.5 200
MCP9501/2/3/4 Factory programmed termperature switch 1 1/6 −40 to +125 2.7–5.5 25
MCP9509/10 Resistor programmable temperature switch 1 0.5/2 −40 to +125 2.7–5.5 30

Focus Communication Products
Wireless products
Product Pins
Frequency
Range (GHz)
Sensitivity
(dBm)
Power
Output
(dBm)
MAC Protocols Encryption
IEEE 802.11 Modules
RN171 49 2.412–2.484 −83 0 to +12 Yes
DHCP, DNS, ARP, ICMP, FTP client, HTTP client,
TCP, UDP
WEP, WPA,
WPA2, EAP
MRF24WG0MA 36 2.412–2.484 −95 18 Yes
Wi-Fi®Connection Manager, Announce, DNS, DDNS,
DHCP, FTP, HTTP, NBNS, SNMP, SNTP, SSL,
TCP, UDP, ZeroConf(1)
WPA2-PSK, WPA-
PSK, WEP, WPA2-
ENTERPRISE
MRF24WG0MB 36 2.412–2.484 −95 18 Yes
Wi-Fi Connection Manager, Announce, DNS, DDNS,
DHCP, FTP, HTTP, NBNS, SNMP, SNTP, SSL, TCP, UDP,
ZeroConf(1)
WPA2-PSK,
WPA-PSK, WEP,
WPA2-ENTERPRISE
RN131 44 2.412–2.484 −85 18 Yes
DHCP, DNS, ARP, ICMP, FTP client,
HTTP client, TCP, UDP
WEP, WPA,
WPA2, EAP
IEEE 802.15.4 Transceivers/Modules
MRF24J40 40 2.405–2.48 −95 0 Yes ZigBee®, MiWi™ wireless networking protocol AES128
MRF24J40MA 12 2.405–2.48 −95 0 Yes ZigBee, MiWi wireless networking protocol AES128
MRF24J40MD 12 2.405–2.48 −104 20 Yes ZigBee, MiWi wireless networking protocol AES128
MRF24J40MC 12 2.405–2.48 −108 20 Yes ZigBee, MiWi wireless networking protocol AES128
1. Supported in the provided stack.
Bluetooth®
Product Pins Frequency Range (GHz) Sensitivity (dBm) Power Output (dBm) MAC Profiles
RN42 35 2.4 to 2.48 −80 4 Yes SPP, DUN, HID, iAP, HCI, RFCOMM, L2CAP, SDP
RN41 35 2.4 to 2.48 −80 15 Yes SPP, DUN, HID, iAP, HCI, RFCOMM, L2CAP, SDP
Sub-GHz Transceivers/Modules
Product Pins
Frequency Range
(MHz)
Sensitivity
(dBm)
Power Output
(dBm)
RSSI Clock Interface
MRF49XA 16 433/868/915 −110 7 Yes 10 MHz 4-wire SPI
MRF89XA 32 868/915/950 −113 12.5 Yes 12.8 MHz 4-wire SPI
MRF89XAM8A 12 868 −113 12.5 Yes 12.8 MHz 4-wire SPI
MRF89XAM9A 12 915 −113 12.5 Yes 12.8 MHz 4-wire SPI
Ethernet Products
Device Family Pins
MCU +
Ethernet
Integrated MAC + PHY Interface Hardware Security
Pre-programmed
MAC
Additional Features
PIC18F97J90 64–100 ü ü (10Base-T) – – –
IEEE 802.3™
compliant,
Auto-negotiation,
Configurable buffer
PIC32MX795F512 64–100 ü ü (10/100Base-T) – – ü
ENC28J60 28 – ü (10Base-T) SPI – –
ENC624J600 44–64 – ü (10/100Base-T) SPI/Parallel ü ü
USB Products
Device Family Pins Flash (KB) Voltage (V) Crystal-Free Additional Features
PIC16(L)F1459 14–20 7–14 1.8–5.5 ü CWG, 10-bit ADC, DAC, I2
C™, SPI, UART
PIC18(L)F45K50 28–44 16–32 1.8–5.5 ü 10-bit ADC, Comparators, ECCP, UART, SPI, I2
C
PIC18F97J94 64–100 32–128 2–3.6 ü Vbat, 12-bit ADC, LCD, ECCP, UART, I2
C, SPI, Comparators
PIC32MX220F032 28–44 16–32 2.3–3.6 – PWM, 10-bit ADC, SPI, UART, I2
C, I2
S™
CAN and LIN Products
Device Family Pins Flash (KB) CAN Tx Buffers CAN Rx Buffers LIN Tx Rx Voltage (V) Additional Features
PIC18F4685 28–44 16–96 3 2 – 2–5.5 LIN USART
PIC18F66K80 28–64 32–64 3 2 – 1.8–5.5 LIN USART
PIC16F1829LIN 14 8K – – Integrated 2.3–5.5 LIN USART
PIC32MX564F128 64–100 16–128 32 32 – 2.3–3.6 LIN USART

Reference Designs and Proofs-of-Concepts
Go to www.microchip.com/lighting and select ‘Tools → Development Reference Designs’ to download the latest design
schematics, firmware, application notes and collateral. Contact your local sales representative to evaluate working
demonstration platforms.
PIC16F1947 mTouch Technology Intelligent Lighting Controller
Highlights
■ PIC16F1947-based design with AC/DC power conversion
■ Panel technology and backlighting provided by Lumvatech
■ Wall controller
• Backlit buttons wake up with mTouch technology
■ mTouch technology capacitive sensing
through light buttons
• Visually interactive buttons and slider
• Varying light intensity to indicate pressure
■ Variable luminaire control
• DALI
• MiWi wireless networking protocol
• Phase-cut (TRIAC)
■ Customizable
• Buttons, graphics, operating modes
• Communication (DALI, DMX512A, RF, etc.)

PIC12F1572 RGB Color Mixing Demonstration
Highlights
■ High-resolution color mix with Cree RGB LED
PIC12F1572 Controlled Topology
• Three standalone 16-bit PWMs with
independent time base
• 4 channel 10-bit ADC with voltage reference
• 5-bit DAC
• Comparator
• Complementary Waveform Generator (CWG)
• EUSART
■ PIC16F1455 integrated USB and Active Clock
Tuning MCP1640 bost DC/DC regulator
Two Modes of Operation
■ Mode 1: PIC12F1572 with MCP1640
• mTouch technology color control slider
• Auto rotation of custom color mix
• Battery system power
■ Mode 2: PIC12F1572 with PIC16F1455
• USB connectivity for chromaticity selector GUI
• USB system power
Block Diagram
PC GUI
CREE
RGB LED
mTouch™
Technology
Slider Control
Color Mixing
Control
• Auto Rotation
• Slider Input
• PC Input
EUSART
Interface
EUSART
Interface
USB
Interface
PIC16F1455
Microcontroller
PIC12F1572
Microcontroller
USB to USART
Communication
Conversion
10-bit ADC
5-bit DAC
3 × 16-bit PWM
Coin Cell or
AAAA Battery
MCP1640
Boost Regulator
mTouch Technology
Capacitive Color
Control Slider (Mode 1)
Optional Battery Source
5V DC USB
Power Supply
(Mode 2)
Battery Supply
Boost Power Regulator
(Mode 1)
3V DC Stable Output
0.35V to 5.5V DC Input
PC Chromaticity
Selector GUI
(Mode 2)

PIC12F752 High Power LED Flashlight
Highlights
■ DC/DC Buck Power Conversion
• 90% efficient buck power supply
■ PIC12F752-based design
■ Over temperature monitoring
■ Upwards of 1000 lumen output at 10W
■ Anodized aluminum enclosure
■ Magnetic rotational mode selector
■ Multiple operating modes
• Low power (60 lumens @ 0.6W)
• Medium power (200 lumens @ 2W)
• High power (1000 lumens @ 10W)
• SOS (customized lighting sequence)
■ Long life operation
• Low power = 31 hours @ 0.6W
• Medium power = 8.5 hours @ 2W
• High power = 1.5 hours @ 10W
Block Diagram
Mechanics, Optics,
and Thermal Solution
Provided by AirSpeed
1000 Lumen
XM-L LED
Provided by
CREE®
LED
Ultimate Lithium Batteries
Provided by
Energizer®
PIC12F752, MCP1703, MCP14628,
and Reference Design
Provided by Microchip
LED drive and closed loop
control determined by current
sense and temperature
**(4) AA Ultimate
lithium batteries in
series supplying 7.2V
*Multiple Hall effect sensors to
determine position of magnetic ring
*Magnetic selector ring
Controls operational modes
based on position of
selector ring
Synchronous Buck Regulator
controlled by PIC12F752 microcontroller
for maximum efficiency
1000 lumen
output at 10W
Real-time temperature
monitoring of LED for
fail-safe operation
LED current
sense and
feedback to
sustain constant
light output
Complementary Output Generator (COG)
1 of 2 available outputs utilized
Frequency determined by PWM
Provides dead-band control for the synchronous switches
Provides blanking control to prevent transient behavior
5b Digital Analog Converter (DAC)
Allows the use of smaller current sense resistor
High resolution eliminates external op amp
Less power consumption and better efficiency
High-Performance Comparators
40 ns response time
PWM Output to
MOSFET Driver
Input From Current
Sense Resistor
Comparator Input
ADC Input
PWM
Output
ADC
Input
Interrupt on
Change
7.2V
5V
CREE
XM-L LEDMCP14628
MOSFET
Driver
MCP1703
LDO
LEDCurrent
Lower Average Current
t
PIC12F752
Microcontroller
Resistive
Temperature
Sensor
Complimentary
Output
Generator
(COG)
PWM
5 bit
DAC
V-
V+
Comparator
PIC12F752

PIC12F752 AC/DC LED Driver
Highlights
■ AC/DC flyback power supply
• ~85% Efficiency
• Active 0.95 Power Factor Correction (PFC)
• 90–240 VaC input
◦ Single hardware platform
◦ Firmware based configuration
• 20 VdC/375 mA output
■ PIC12F752-controlled topology
• Core independent peripheral integration
◦ 5-bit DAC
◦ Complementary Output Generator (COG)
◦ High performance comparators
◦ Hardware Limit Timer (HLT)
■ MCP1416 FET Driver
■ TRIAC dimmable
Block Diagram
PIC12F752
Microcontroller
90–240 VAC Input
RESET
5V
~20 VDC/375 mA Output
Primary Stage Secondary Stage
Bootstrap
Voltage Regulator
–
+
–
+
HLT
@
50 kHz
5-bit
DAC
Complimentary
Output
Generator
(COG)
MCP1416
MOSFET
Driver
Firmware 10-bit ADC

PIC16F1788 Wireless DC/DC LED Driver
Highlights
■ DC/DC SEPIC power supply
• ~90% Efficiency
• 9–24 VdC input
• 24 VdC output
• Core independent peripheral integration
◦ Programmable Switch Mode Controller (PSMC)
◦ High-performance 16-bit PWM
◦ 10/12-bit ADC
◦ High-performance comparators
◦ 8-bit DAC
◦ Op amps
■ Current mode control
■ Software PI control
■ Variable frequency: 400–700 kHz
■ MCP1416 FET driver
■ MCP16301 voltage regulator
■ Wireless communications
• MRF24J40MA MiWi wireless networking
protocol module
■ Dimming support
• 0–10V control
• MiWi wireless networking protocol radio control
Block Diagram
Example Wi-Fi to MiWi Wireless Networking
Protocol Topology
MiWi™ Wireless Networking Protocol
to Wi-Fi®
Gateway Demo Kit
(DM182018)
PIC16F1788
Wireless LED Driver
MiWi Wireless
Networking Protocol
W-Fi
W-Fi
W-Fi
MiWi Wireless
Networking Protocol
PIC16F1788
Wireless LED Driver
MiWi Wireless
Networking Protocol
PIC16F1788
Microcontroller
9–24 VDC Input
Average current sense and feedback
to sustain constant current
Peak current
mode control
Voltage divider
to prevent
over-voltage
of load
SEPIC LED Drive
≈ 500 mA
Regulated Output
3.3 VDC
–
+
Op Amp
Comp.
–
+
Op Amp
Programmable
Switch Mode
Controller
(PSMC)
MCP1416
MOSFET
Driver
SPI
Interface
0–10V
Input
MRF24J40MA
MiWi™ Wireless
Networking
Protocol
Module
MCP16301
Regulator
Lumen
Set Point
Control
Firmware
PID Control
10/12-bit
ADC
8-bit
DAC
10/12-bit
ADC

PIC16F1509 Solar Powered LED Security Lamp
Highlights
■ DC/DC SEPIC power supply
• ~ 85% Efficiency @ 500 mA charging current
(compatible with 30–36 cell panels)
• 6.8–7.2 VdC @ 500 mA DC output
for battery charging
• 9–24 VdC @ 350 mA DC output
for LED driving
■ Core independent peripheral integration
• Numerically Controlled Oscillator (NCO)
• 10-bit Analog-to-Digital Converter (ADC)
■ Maximum power point tracking (MPPT) solar
charging to battery
■ Night sensing via solar panel
■ MCP6V02 op amp for current shunt
amplification and motion sensing via Passive
Infrared (PIR) sensor
■ MCP1790 High Voltage Regulator
■ Boost LED drive
Block Diagram
PIC16F1509
Microcontroller
Boost LED Drive
MCP6V02
MCP6V02PIR Raw Input
Passive
Infrared (PIR)
Motion Sensing
Conditioning
Solar Panel
Solar DC/DC
Buck/Boost
Power Supply,
MPPT Battery
Charging and
Regulation
MCP1790
Regulator
Firmware
10-bit ADC10-bit ADC
10-bit ADC
Lead
Acid Cell
Numerically
Controlled
Oscillator
(NCO)
–
+
Op Amp
–
+
Op Amp

PIC16F1508 DALI Dimmable Fluorescent Ballast
Highlights
■ AC/DC resonant power supply
• Active Power Factor Correction (PFC)
• ~90% Efficiency
• 50 kHz Switching frequency
• 120–240 VaC input
◦ Single hardware platform
◦ Firmware based configuration
• Core independent peripheral
integration
◦ 5-bit DAC, CLC, PWM, NCO and comparators
■ DALI communications
■ Smooth dimming control
• Linear frequency control using NCO
■ MCP1416 FET Driver
Block Diagram
PIC16F1508
Microcontroller
90–240 VAC Input
PFC Boost
Regulator
LCC Resonant
Fluorescent Drive
Peak Current
Mode Control
5-bit
DAC
–
+
Comp.
PWM/
Timer
Numerically
Controlled
Oscillator
(NCO)
Configurable
Logic Cell
(CLC)
10-bit ADC
High
Voltage
MOSFET
Driver
Firmware
S
R
MCP1416
MOSFET
Driver

Digital HID Ballast Reference Design
Highlights
■ dsPIC33FJ06GS202-based design
■ Xenon HID lamp
■ Full digital control HID ballast
• Ignites HID bulb then transitions to
steady-state operation
• Less than 150 seconds to steady-state light output
■ Flyback DC/DC boost converter
• Greater than 85% efficiency
■ Planar magnetic used to achieve small size
• 9 mm × 60 mm × 80 mm
• Commonly referred to as a “slim” ballast form factor
■ Under voltage, over voltage, and over current protection
Block Diagram
High Resolution PWM Proof of Concept
Highlights
■ High Resolution PWM (HRPWM)
■ 16-bit effective PWM resolution at high
frequency (eg. ~16-bit @ 500 kHz)
• Required peripherals: Numerically
Controlled Oscillator (NCO)
and Configurable Logic Cell (CLC)
• Improved EMI performance
■ RGBW color mixing control with four
PIC microcontrollers with NCO/CLC
• Single PIC16F1509 for RED and
high-resolution color processing
• Single PIC10F322 per GREEN, BLUE,
WHITE channel
• Variable LED frequency based on
brightness: 500 Hz to 64 kHz
◦ 16 to 21-bits effective PWM resolution
■ USB and DMX512A capable via PIC16F1455
Note: See Application Note AN1476
3.3V
VIN VFD IFD
Q1 Q3
Q4Q2
T1
12V
+
Battery
Boost
FB
Power
Converter
Driver
Op Amp
Driver
Igniter
dsPIC33FJ06GS202
AN1/CMP2AN0/CMP1PWM1HAN2
I/O

Development Tools and Demonstration Platforms
Go to www.microchip.com/lighting and select ‘Tools → Development Reference Designs’ to purchase as well as
download the latest design schematics, firmware, application notes, and collateral.
Lighting Communications Development PlatformLighting Communications Development Platform
■ Universal lighting protocol development
■ FREE ‘C’ library stack (DALI, DMX512A)
■ Dimming and color mixing control
■ Customizable capabilities
Main Communication Board Highlights (DM160214)
■ Populated with PIC16F1947 controlling:
• Communications
• User interface: LCD, buttons, slider
• LED constant current drive
■ Populated with Cree XLamp MC-E Color LED
■ Populated with the LEDnLIGHT optic and holder
Prototyping Communication Board Highlights
(AC160214)
■ Populated with PIC16F1947 for user interface
and communications
■ Breadboarding space for customized
lighting development
Universal Communications Adapter Interface
■ DALI adapter (DM160214-1)
■ DMX512A adapter (DM160214-2)
Available for purchase separately or as a kit
DALI Starter Kit (DV160214-1)
DMX512A Starter Kit (DV160214-2)
■ Two DALI or (two) DMX512A adapters
■ Two Main communication boards
■ Prototyping communication board
■ 9V international power supply
■ RJ45 patch cable
For more information, visit www.microchip.com/lightingcomms.
MCP16301 LED Driver Demonstration Board
(MCP16301 – ARD00410)
■ MCP16301 Cuk-based LED driver
demonstration
■ 300 mA constant current source
■ Input operating voltage from 6–18 VdC
MCP1630 Boost Mode LED Driver Demonstration
Board (MCP1630DM-LED2)
■ MCP1630 Boost LED driver demo
■ 350 or 700 mA constant current source
■ Input operating voltage range of 9–16 VdC
■ Maximum power output of 30W
MCP1631HV Digitally Controlled Programmable Current
Source Reference Design (MCP1631RD-DCPC1)
■ MCP1631 SEPIC LED
driver demonstration
■ Input voltage range of 3.5–16 VdC
■ Maximum power output of 8.5W
MCP1650 Multiple White LED Demonstration
Board (MCP1650DM-LED2)
■ MCP1650 Boost LED driver demo
■ Nine LED string in series
■ PIC10F202 controlled
• Enable control of MCP1650
• Push-button input for LED
intensity adjustment
MCP1252 Charge Pump Backlight Demonstration
Board (MCP1252DM-BKLT)
■ LED backlighting demonstration
■ MCP1252 evaluation platform
■ Light intensity controlled
via ballast resistors
• Push-button input for LED intensity adjustment
Digital LED Lighting Development Kit (DM330014)
■ 100% digitally controlled LED driver
■ Fully controlled with a single
dsPIC33FJ16GS504 DSC
■ RGB LED driver with DMX512
support for brightness control
■ Dimming and color hue control
■ Flexible input voltage support, including buck and
boost topologies
■ Fully dimmable, full digital control, Fault protection
■ Advanced features implemented in software
MCP1650 3W White LED Demonstration Board
(MCP1650DM-LED1)
■ MCP1650 Boost LED
driver demonstration
■ Nine LED string in series
• Push-button input for LED intensity adjustment
PIC10F206 controlled
■ PIC10F202

Microchip’s Partner Network
Leveraging the expertise and products from Microchip’s lighting partners further ensures quick development of quality
advanced lighting products.
Interested in becoming a collaborative or design partner? Let us know at lighting@microchip.com.
Design Partners
Microchip recognizes the challenges involved in developing advanced lighting solutions
and has created a Design Partner network to ease your development efforts. Microchip's
Intelligent Lighting and Control Design Partner Specialists have proven lighting design
expertise and can reduce your time to market.
Go to www.microchip.com/lighting and select ‘Resources Support’ for a full list
of companies offering design services and support for your intelligent lighting
development needs.
Collaborative Partners
To ensure the development of the most innovative lighting solutions, Microchip works with industry leaders to collaborate
on various reference designs, demonstrations, and development tools. Creating the most effective lighting solution requires
products—from integrated circuits, to light sources, optics, thermals and mechanics—expertise and services from a
multitude of sources.
Collaborative Partners
Cree, Inc leads the industry through performance and application optimized lighting-class
LEDs that simplify design and lower system costs to obsolete energy-wasting traditional
lighting. Cree’s relentless innovation drives the LED lighting revolution with products
designed to accelerate LED adoption and push the boundaries of what’s possible with LED
lighting. Cree’s LED product families include XLamp®and High Brightness LEDs.
LEDnLIGHT optics are made by Gaggione SAS the—Montréal La Cluse, France, plastic
optics manufacturer—who produces the very narrow beam collimator providing excellent
color mixing properties to address stage lighting, entertainment lighting and architectural
lighting applications, to name a few. Gaggione is an ISO 9001 and ISO TS 16949 certified
company and a leader in producing solutions using polymers for customers around the
world. The company provides comprehensive design, development and manufacturing
capabilities for the production of standardized and customized polymer optics at their
state-of-the-art production technologies and facilities in France, Switzerland and Canada.
Lumvatech is a cutting-edge manufacturer of LED light panels and complete backlighting
solutions. Lumvatech specializes in thin and flexible applications. From light panels to
complete interactive capacitive touch solutions, Lumvatech manufactures a wide variety of
standard or custom products and solutions.
An experienced provider of innovative product solutions, Airspeed specializes in the design
and manufacturing of complete mechanical packages. The company’s many years of
experience in plastics, metal fabrication, die cast, cable assemblies and global logistics
management ensures that customers can offer the most competitive product to the market.
Energizer Holdings, Inc., headquartered in St. Louis, MO, is one of the world’s largest
manufacturers of primary batteries, portable flashlights and lanterns. Energizer®Ultimate
Lithium batteries deliver long-lasting power to keep up with today’s high-tech devices like
digital cameras, LED flashlights and handheld GPS devices.
L I G H T I N G

Microchip Technology Inc.
2355 W. Chandler Blvd.
Chandler, AZ 85224-6199
www.microchip.com
Support
Microchip is committed to supporting its customers
in developing products faster and more efficiently. We
maintain a worldwide network of field applications
engineers and technical support ready to provide product
and system assistance. In addition, the following service
areas are available at www.microchip.com:
■ Support link provides a way to get questions
answered fast: http://support.microchip.com
■ Sample link offers evaluation samples of any
Microchip device: http://sample.microchip.com
■ Forum link provides access to knowledge base and
peer help: http://forum.microchip.com
■ Buy link provides locations of Microchip Sales Channel
Partners: www.microchip.com/sales
Training
If additional training interests you, then Microchip can
help. We continue to expand our technical training options,
offering a growing list of courses and in-depth curriculum
locally, as well as significant online resources – whenever
you want to use them.
■ Technical Training Centers and Other Resources:
www.microchip.com/training
■ MASTERs Conferences: www.microchip.com/masters
■ Worldwide Seminars: www.microchip.com/seminars
■ eLearning: www.microchip.com/webseminars
AMERICAS
Atlanta
Tel: 678-957-9614
Austin
Tel: 512-257-3370
Boston
Tel: 774-760-0087
Chandler
Tel: 480-792-7200
Chicago
Tel: 630-285-0071
Cleveland
Tel: 216-447-0464
Dallas
Tel: 972-818-7423
Detroit
Tel: 248-538-2250
Houston
Tel: 281-894-5983
Indianapolis
Tel: 317-773-8323
Los Angeles
Tel: 949-462-9523
New York
Tel: 631-435-6000
San Jose
Tel: 408-735-9110
Toronto
Tel: 905-673-0699
EUROPE
Austria - Wels
Tel: 43-7242-2244-39
Denmark - Copenhagen
Tel: 45-4450-2828
France - Paris
Tel: 33-1-69-53-63-20
Germany - Dusseldorf
Tel: 49-2129-3766400
Germany - Munich
Tel: 49-89-627-144-0
Germany - Pforzheim
Tel: 49-7231-424750
Italy - Milan
Tel: 39-0331-742611
Italy - Venice
Tel: 39-049-7625286
Netherlands - Drunen
Tel: 31-416-690399
Poland - Warsaw
Tel: 48-22-3325737
Spain - Madrid
Tel: 34-91-708-08-90
Sweden - Stockholm
Tel: 46-8-5090-4654
UK - Wokingham
Tel: 44-118-921-5800
ASIA/PACIFIC
Australia - Sydney
Tel: 61-2-9868-6733
China - Beijing
Tel: 86-10-8569-7000
China - Chengdu
Tel: 86-28-8665-5511
China - Chongqing
Tel: 86-23-8980-9588
China - Hangzhou
Tel: 86-571-87928115
China - Hong Kong SAR
Tel: 852-2943-5100
China - Nanjing
Tel: 86-25-8473-2460
China - Qingdao
Tel: 86-532-8502-7355
China - Shanghai
Tel: 86-21-5407-5533
China - Shenyang
Tel: 86-24-2334-2829
China - Shenzhen
Tel: 86-755-8864-2200
China - Wuhan
Tel: 86-27-5980-5300
China - Xiamen
Tel: 86-592-2388138
China - Xian
Tel: 86-29-8833-7252
China - Zhuhai
Tel: 86-756-3210040
Sales Office Listing
ASIA/PACIFIC
India - Bangalore
Tel: 91-80-3090-4444
India - New Delhi
Tel: 91-11-4160-8631
India - Pune
Tel: 91-20-3019-1500
Japan - Osaka
Tel: 81-6-6152-7160
Japan - Tokyo
Tel: 81-3-6880-3770
Korea - Daegu
Tel: 82-53-744-4301
Korea - Seoul
Tel: 82-2-554-7200
Malaysia - Kuala Lumpur
Tel: 60-3-6201-9857
Malaysia - Penang
Tel: 60-4-227-8870
Philippines - Manila
Tel: 63-2-634-9065
Singapore
Tel: 65-6334-8870
Taiwan - Hsin Chu
Tel: 886-3-5778-366
Taiwan - Kaohsiung
Tel: 886-7-213-7830
Taiwan - Taipei
Tel: 886-2-2508-8600
Thailand - Bangkok
Tel: 66-2-694-1351
3/12/14
Information subject to change. The Microchip name and logo, the Microchip logo, dsPIC, GestIC and PIC are registered trademarks
and MiWi and mTouch are trademarks of Microchip Technology Incorporated in the U.S.A. and other countries. All other
trademarks mentioned herein are property of their respective companies. © 2014, Microchip Technology Incorporated. All Rights
Reserved. Printed in the U.S.A. 04/14
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