SlideShare a Scribd company logo
A Brief Overview of FlowControl Software
www.uniqsis.com
FlowControl software Liquid handler Reagent rack Polar Bear Plus Flow
Binary Pump ModuleFraction collectorSyringe pump FlowSyn
Uniqsis Flow Reactor System …. 4 Pumping Channels, 3 Reactors
3 Flow Reactors – Chip, Coil(1), Coil (2)
4 Pumping Channels - FlowSyn, BPM
Automated Sample
Loop Filling
Uniqsis FlowControl software allows researchers to program Uniqsis flow chemistry
equipment and automate sequences of experiments with a level of freedom and flexibility
not previously possible.
A custom flow reactor system can be built and configured using a range of Uniqsis
pump, reactor and liquid handling modules, including fraction collectors and sampling
robots.
Either chemically resistant PTFE or high pressure stainless steel pumping modules
may be selected and these can be allocated to a specific flow channel without the
inconvenience of having to undo and replumb the system.
The output from individual experiments can be collected either using a fraction
collector or a larger scale experiment can be run collecting the product in a single
vessel.
One particularly useful option is the ability to collect only a small sample of each
experiment at steady-state in order to perform off-line analysis for reaction
optimisation or profiling.
The optional WiFi connection ensures that the PC running FlowControl can be
located in a convenient location outside of the fume cupboard.
The Start Menu gives users 4 options:
Display real time pressure and temperature whilst setting up & priming the system
Reload and analyse previous reaction data (History)
Build new experiment sequences by configuring and programming up to 4
independent pumping channels and 3 independent reactor modules
Build new experiment sequences based upon previously stored experiment set-ups
and conditions
Getting Started with FlowControl …
When building flow experiments FlowControl behaves as a ‘wizard’ that encourages
users to enter the required information in a logical way, and before continuing prompts
them when required parameters have not been specified.
Selecting Start New Experiment the user is first prompted to give the experiment a
unique name.
This is typically a lab notebook number and is used to document and archive all the
information associated with this experiment.
A single experiment is programmed initially as a starting point, which can be
expanded later to produce a series of experiments, each of which can be completely
independent of the previous experiment in the sequence.
Next, it is necessary to define the desired system configuration by moving to the
Configuration control screen
Naming an Experiment …
The next task is to enter the hardware setup (Configuration) required for this particular
experiment.
FlowControl auto-detects which modules are connected.
Just ‘click’ on the tick/cross boxes to select the pump channels and reactor required.
One unique feature of FlowControl is that any pump channel, for example a PTFE
Binary Pump Channel, can be assigned to any flow channel used in an experiment –
A, B, C or D – without needing to replumb the system.
In choosing a reactor, when the type and material of the reactor is selected,
FlowControl automatically assigns safe temperature and pressure limits.
Reactor options include the FlowSyn column/chip and coil reactor modules, a
stadalone Cold Coil (chiller), or up to 2 Polar Bear Plus Flow reactor modules.
FlowControl checks if there are any conflicts or missing parameters before allowing
you to leave the Configuration screen and move to the Experiment Planning
screen.
Defining the Flowpath & Hardware Configuration …
Experiment Planning: Individual experiments are programmed one at a time - although
there are some tools that allow duplicates and series of experiments with, for example a
specific temperature increment, to be created more quickly.
Experiments are planned in a chemically intuitive way that is similar to batch, starting
with the molarity and number of equivalents of each reagent required and then
defining the reactor temperatures and residence times required for each experiment.
FlowControl automatically calculates the correct pump flow rates and reagent
introduction delays, accordingly.
Reagent inputs can be either from reagent stock bottles or from sample loops, the
high pressure chemically resistant injection valves for which are positioned after the
pump heads.
The sample loops can be automatically filled by a liquid handling robot. Because this
is physically separate from the fraction collector, loop filling – which is intrinsically
slow – can be commenced for the next experiment before the current experiment has
actually finished!
A wide range of different reagent inputs can be utilised – thus permitting fully
combinatorial experimentation utilising up to 4 channels.
Planning Experiments (1) – Molarities, Ratios, Temps & Times
Finally, it is necessary to set up fraction collection by entering the collection mode, size
and number of fractions required.
Both simple sequential fraction collection and an ‘optimise’ mode, whereby all the
reaction output is collected in a single larger vial with a small sample being
automatically placed into a LCMS vial at a pre-determined time point, are available.
In addition, a complete system wash at the end of each experiment can be specified
to ensure that there is no cross-contamination between experiments.
Planning Experiments (2) – Setting up Fraction Collection
Finally, the Start Experiment button is pressed. FlowControl first checks that all the
required information has been entered and that adequate volumes of reagents required
are confirmed as being available before saving the experiment(s) and starting the reaction
temperature equilibration process.
As the experiments are run automatically, reactor temperature and channel pressures
are logged in real time. In addition, event markers indicating when valve switches
occur; fraction collection information is also overlaid on the graphs.
A status log records a history of key events. All of this data is automatically archived.
Logger (Status) Screen
A summary of fraction collection progress may be viewed as a pop-up at any time –
the black vial is currently being processed.
Fraction Collection Summary Pop-up
The History button may be pressed at any time – even whilst an experiment is running. It
allows the user to either:
Load and view pressure/temperature plots from a previously run experiment, or
alternatively
Data from the current experiment may be viewed and manipulated. The data may be
refreshed periodically if desired.
History – Pressure Plot
History – Temperature Plot
This brief overview can only scratch the surface of what FlowControl is capable of doing.
It truly unifies the control of all the Uniqsis flow chemistry modules and allows
experiments to be automated and run without the need for manual intervention for
extended periods of time whilst offering an unprecedented degree of flexibility and control.
Please contact feel free to contact Uniqsis if you would like more detailed information.
info@uniqsis.com

More Related Content

PPTX
High performance liquid chromatography (HPLC)
PPTX
PDF
Microsoft Power Point Flow Analysis Webinar April 2009
PPTX
HPLC System Selection
PPTX
ICP software qtegra
PDF
Planning Considerations in Total Automation of Clinical Laboratory
PPTX
Automation in the Clinical Lab
DOCX
Submax lab
High performance liquid chromatography (HPLC)
Microsoft Power Point Flow Analysis Webinar April 2009
HPLC System Selection
ICP software qtegra
Planning Considerations in Total Automation of Clinical Laboratory
Automation in the Clinical Lab
Submax lab

Viewers also liked (18)

PPTX
Principle and application of dsc,dta,ftir and x ray diffraction
PDF
Flow Chemistry Congress Boston April 2011
PDF
Omnitech Brochure
PDF
Primary Continuous Processing Retrofit
PDF
SwagelokTubeFittingAdvantage
PPT
Hypersonic Foundational Research Plan
PDF
Regulators
PPS
ThalesNano Presentation 2013
PPTX
Micro Reaction Technology - Explains Design, Process and Applications of Micr...
PDF
DynoChem_webinar_gsk_nickfalco_10sep2014
PDF
Crystallization process improvement driven by dynochem process modeling. Flav...
PDF
Flow Chemistry Congress Boston 2012 Dh V4
PDF
Dr. Reddy's Development of Kinetic Model and Process Prediction. Keerthi Pemula.
PDF
Using Dynochem to determine a suitable sampling endpoint in a DoE. David Place.
PDF
Development of a high performance company-specific DynoChem font-end
PDF
Scale-up of Safety Data using Dynochem. Tom Vickery.
PDF
DynoChem_webinar_Novartis_Flav_Susanne_11Jun2014
PDF
AiChE National Meeting 2012 Pittsburgh Presentation Flow Continuous
Principle and application of dsc,dta,ftir and x ray diffraction
Flow Chemistry Congress Boston April 2011
Omnitech Brochure
Primary Continuous Processing Retrofit
SwagelokTubeFittingAdvantage
Hypersonic Foundational Research Plan
Regulators
ThalesNano Presentation 2013
Micro Reaction Technology - Explains Design, Process and Applications of Micr...
DynoChem_webinar_gsk_nickfalco_10sep2014
Crystallization process improvement driven by dynochem process modeling. Flav...
Flow Chemistry Congress Boston 2012 Dh V4
Dr. Reddy's Development of Kinetic Model and Process Prediction. Keerthi Pemula.
Using Dynochem to determine a suitable sampling endpoint in a DoE. David Place.
Development of a high performance company-specific DynoChem font-end
Scale-up of Safety Data using Dynochem. Tom Vickery.
DynoChem_webinar_Novartis_Flav_Susanne_11Jun2014
AiChE National Meeting 2012 Pittsburgh Presentation Flow Continuous
Ad

Similar to Flow control software for flow Chemistry overview from Uniqsis (20)

PDF
Quanser coupled tanks_system_specificatons_generic
PDF
19039 automated analyser lect_1__instrumentation lect 2nd yr mt_2nd semester
PDF
Auto analyzer
PDF
Instrumentation & Control Lab Manual.pdf
PPTX
Autoanalyzers in healthcare and lab.pptx
PPTX
Biomedical Instrumentation auto analyser.pptx
PPTX
1675091151425_Process Management Risk.pptx
PPTX
Automatic And Semi Automatic Analyser Biochemistry
PDF
Automatic stationary sampler-Liquistation CSF34
PPT
High throughput nanoparticle synthesis and treatment with combinatorial robot
PPTX
ADVIA Concept & Principles
PDF
DMLT (2nd Year) : Automation in Clinical Biochemistry and POCT - Some basic c...
PDF
gonzales_wesley_ENGR3406_FINAL_PROJECT
PPTX
automation biochemistry by surbhi pictorial .pptx
PDF
ModelicaModeling_final
PPTX
Mechanical unit operation documents for Chemical engineering
PPT
Master-trol | Electronic Water Management System
PDF
helium porosimeter (Reservoir lab)
PPT
Examining the Capabilities & Benefits of UHPLC Method Scouting
PPTX
Automation
Quanser coupled tanks_system_specificatons_generic
19039 automated analyser lect_1__instrumentation lect 2nd yr mt_2nd semester
Auto analyzer
Instrumentation & Control Lab Manual.pdf
Autoanalyzers in healthcare and lab.pptx
Biomedical Instrumentation auto analyser.pptx
1675091151425_Process Management Risk.pptx
Automatic And Semi Automatic Analyser Biochemistry
Automatic stationary sampler-Liquistation CSF34
High throughput nanoparticle synthesis and treatment with combinatorial robot
ADVIA Concept & Principles
DMLT (2nd Year) : Automation in Clinical Biochemistry and POCT - Some basic c...
gonzales_wesley_ENGR3406_FINAL_PROJECT
automation biochemistry by surbhi pictorial .pptx
ModelicaModeling_final
Mechanical unit operation documents for Chemical engineering
Master-trol | Electronic Water Management System
helium porosimeter (Reservoir lab)
Examining the Capabilities & Benefits of UHPLC Method Scouting
Automation
Ad

Recently uploaded (20)

PDF
Hybrid model detection and classification of lung cancer
PDF
NewMind AI Weekly Chronicles - August'25-Week II
PPTX
TechTalks-8-2019-Service-Management-ITIL-Refresh-ITIL-4-Framework-Supports-Ou...
PPTX
KOM of Painting work and Equipment Insulation REV00 update 25-dec.pptx
PDF
Web App vs Mobile App What Should You Build First.pdf
PDF
Mushroom cultivation and it's methods.pdf
PDF
gpt5_lecture_notes_comprehensive_20250812015547.pdf
PDF
DASA ADMISSION 2024_FirstRound_FirstRank_LastRank.pdf
PPTX
Tartificialntelligence_presentation.pptx
PDF
Heart disease approach using modified random forest and particle swarm optimi...
PDF
MIND Revenue Release Quarter 2 2025 Press Release
PDF
A comparative analysis of optical character recognition models for extracting...
PDF
Accuracy of neural networks in brain wave diagnosis of schizophrenia
PPTX
OMC Textile Division Presentation 2021.pptx
PDF
Enhancing emotion recognition model for a student engagement use case through...
PPTX
A Presentation on Touch Screen Technology
PPTX
A Presentation on Artificial Intelligence
PDF
Building Integrated photovoltaic BIPV_UPV.pdf
PPTX
SOPHOS-XG Firewall Administrator PPT.pptx
PPTX
Chapter 5: Probability Theory and Statistics
Hybrid model detection and classification of lung cancer
NewMind AI Weekly Chronicles - August'25-Week II
TechTalks-8-2019-Service-Management-ITIL-Refresh-ITIL-4-Framework-Supports-Ou...
KOM of Painting work and Equipment Insulation REV00 update 25-dec.pptx
Web App vs Mobile App What Should You Build First.pdf
Mushroom cultivation and it's methods.pdf
gpt5_lecture_notes_comprehensive_20250812015547.pdf
DASA ADMISSION 2024_FirstRound_FirstRank_LastRank.pdf
Tartificialntelligence_presentation.pptx
Heart disease approach using modified random forest and particle swarm optimi...
MIND Revenue Release Quarter 2 2025 Press Release
A comparative analysis of optical character recognition models for extracting...
Accuracy of neural networks in brain wave diagnosis of schizophrenia
OMC Textile Division Presentation 2021.pptx
Enhancing emotion recognition model for a student engagement use case through...
A Presentation on Touch Screen Technology
A Presentation on Artificial Intelligence
Building Integrated photovoltaic BIPV_UPV.pdf
SOPHOS-XG Firewall Administrator PPT.pptx
Chapter 5: Probability Theory and Statistics

Flow control software for flow Chemistry overview from Uniqsis

  • 1. A Brief Overview of FlowControl Software www.uniqsis.com
  • 2. FlowControl software Liquid handler Reagent rack Polar Bear Plus Flow Binary Pump ModuleFraction collectorSyringe pump FlowSyn Uniqsis Flow Reactor System …. 4 Pumping Channels, 3 Reactors
  • 3. 3 Flow Reactors – Chip, Coil(1), Coil (2) 4 Pumping Channels - FlowSyn, BPM Automated Sample Loop Filling
  • 4. Uniqsis FlowControl software allows researchers to program Uniqsis flow chemistry equipment and automate sequences of experiments with a level of freedom and flexibility not previously possible. A custom flow reactor system can be built and configured using a range of Uniqsis pump, reactor and liquid handling modules, including fraction collectors and sampling robots. Either chemically resistant PTFE or high pressure stainless steel pumping modules may be selected and these can be allocated to a specific flow channel without the inconvenience of having to undo and replumb the system. The output from individual experiments can be collected either using a fraction collector or a larger scale experiment can be run collecting the product in a single vessel. One particularly useful option is the ability to collect only a small sample of each experiment at steady-state in order to perform off-line analysis for reaction optimisation or profiling. The optional WiFi connection ensures that the PC running FlowControl can be located in a convenient location outside of the fume cupboard.
  • 5. The Start Menu gives users 4 options: Display real time pressure and temperature whilst setting up & priming the system Reload and analyse previous reaction data (History) Build new experiment sequences by configuring and programming up to 4 independent pumping channels and 3 independent reactor modules Build new experiment sequences based upon previously stored experiment set-ups and conditions
  • 6. Getting Started with FlowControl …
  • 7. When building flow experiments FlowControl behaves as a ‘wizard’ that encourages users to enter the required information in a logical way, and before continuing prompts them when required parameters have not been specified. Selecting Start New Experiment the user is first prompted to give the experiment a unique name. This is typically a lab notebook number and is used to document and archive all the information associated with this experiment. A single experiment is programmed initially as a starting point, which can be expanded later to produce a series of experiments, each of which can be completely independent of the previous experiment in the sequence. Next, it is necessary to define the desired system configuration by moving to the Configuration control screen
  • 9. The next task is to enter the hardware setup (Configuration) required for this particular experiment. FlowControl auto-detects which modules are connected. Just ‘click’ on the tick/cross boxes to select the pump channels and reactor required. One unique feature of FlowControl is that any pump channel, for example a PTFE Binary Pump Channel, can be assigned to any flow channel used in an experiment – A, B, C or D – without needing to replumb the system. In choosing a reactor, when the type and material of the reactor is selected, FlowControl automatically assigns safe temperature and pressure limits. Reactor options include the FlowSyn column/chip and coil reactor modules, a stadalone Cold Coil (chiller), or up to 2 Polar Bear Plus Flow reactor modules. FlowControl checks if there are any conflicts or missing parameters before allowing you to leave the Configuration screen and move to the Experiment Planning screen.
  • 10. Defining the Flowpath & Hardware Configuration …
  • 11. Experiment Planning: Individual experiments are programmed one at a time - although there are some tools that allow duplicates and series of experiments with, for example a specific temperature increment, to be created more quickly. Experiments are planned in a chemically intuitive way that is similar to batch, starting with the molarity and number of equivalents of each reagent required and then defining the reactor temperatures and residence times required for each experiment. FlowControl automatically calculates the correct pump flow rates and reagent introduction delays, accordingly. Reagent inputs can be either from reagent stock bottles or from sample loops, the high pressure chemically resistant injection valves for which are positioned after the pump heads. The sample loops can be automatically filled by a liquid handling robot. Because this is physically separate from the fraction collector, loop filling – which is intrinsically slow – can be commenced for the next experiment before the current experiment has actually finished! A wide range of different reagent inputs can be utilised – thus permitting fully combinatorial experimentation utilising up to 4 channels.
  • 12. Planning Experiments (1) – Molarities, Ratios, Temps & Times
  • 13. Finally, it is necessary to set up fraction collection by entering the collection mode, size and number of fractions required. Both simple sequential fraction collection and an ‘optimise’ mode, whereby all the reaction output is collected in a single larger vial with a small sample being automatically placed into a LCMS vial at a pre-determined time point, are available. In addition, a complete system wash at the end of each experiment can be specified to ensure that there is no cross-contamination between experiments.
  • 14. Planning Experiments (2) – Setting up Fraction Collection
  • 15. Finally, the Start Experiment button is pressed. FlowControl first checks that all the required information has been entered and that adequate volumes of reagents required are confirmed as being available before saving the experiment(s) and starting the reaction temperature equilibration process. As the experiments are run automatically, reactor temperature and channel pressures are logged in real time. In addition, event markers indicating when valve switches occur; fraction collection information is also overlaid on the graphs. A status log records a history of key events. All of this data is automatically archived.
  • 17. A summary of fraction collection progress may be viewed as a pop-up at any time – the black vial is currently being processed.
  • 19. The History button may be pressed at any time – even whilst an experiment is running. It allows the user to either: Load and view pressure/temperature plots from a previously run experiment, or alternatively Data from the current experiment may be viewed and manipulated. The data may be refreshed periodically if desired.
  • 22. This brief overview can only scratch the surface of what FlowControl is capable of doing. It truly unifies the control of all the Uniqsis flow chemistry modules and allows experiments to be automated and run without the need for manual intervention for extended periods of time whilst offering an unprecedented degree of flexibility and control. Please contact feel free to contact Uniqsis if you would like more detailed information. info@uniqsis.com