Eppendorf and UVette are either trademarks or registred trademarks of Eppendorf AG aktiengesellschaft.
BrandTech is a trademark of BrandTech Scientific, Inc. Beckman is a trademark of BECKMAN COULTER,
INC. All other trademarks are the property of Thermo Fisher Scientific Inc. and its subsidiaries.
For technical support, please contact: www.thermofisher.com
Thermo Fisher Scientific Inc. provides this document to its customers with a product purchase to use in the
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document is strictly prohibited, except with the written authorization of Thermo Fisher Scientific Inc.
The contents of this document are subject to change without notice. All technical information in this
document is for reference purposes only. System configurations and specifications in this document supersede
all previous information received by the purchaser.
Thermo Fisher Scientific Inc. makes no representations that this document is complete, accurate or errorfree and assumes no responsibility and will not be liable for any errors, omissions, damage or loss that might
result from any use of this document, even if the information in the document is followed properly.
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For Research Use Only. This instrument or accessory is not a medical device and is not intended to be used
for the prevention, diagnosis, treatment or cure of disease.
WARNING Avoid an explosion or fire hazard. This instrument or accessory is not
designed for use in an explosive atmosphere.
Thermo ScientificGENEYS Family Spectrophotometersiii
Page 6
Contents
ivGENEYS Family SpectrophotometersThermo Scientific
Page 7
1
GENESYS Spectrophotometers
This user guide applies to the following spectrophotometers:
• Intermediate capability models – the Thermo Scientific™ GENESYS™ 50 platform – with
sample compartments configured for single samples only:
–GENESYS™ 40 Vis
–GENESYS 50 UV-Vis
• Advanced capability models – the GENESYS™ 150 platform – with sample
compartments configured for:
–single samples
–multi-cell changer option
–Peltier thermostatted cell holder option
–fiber optic probe option
• GENESYS™ 140 Vis
• GENESYS 150 UV-Vis
• GENESYS™ 180 UV-Vis
•BioMate™ 160
Note There is also a GENESYS™ 30 Vis that shares the sample compartment
configuration of the GENESYS 50 platform but offers a user experience with a tactile
rubber keypad, high resolution non-touch color 5-inch screen and simplified software.
The GENESYS 30 has a separate dedicated user guide
Thermo ScientificGENEYS Family Spectrophotometers1
Page 8
1
GENESYS Spectrophotometers
Considerations
Considerations
This document uses the following conditions:
DANGER Indicates a hazardous situation which, if not avoided, will result in death or
serious injury.
WARNING Indicates a hazardous situation which, if not avoided, could result in death or
serious injury.
CAUTION Indicates a hazardous situation which, if not avoided, could result in minor or
moderate injury.
NOTICE Follow instructions with this label to avoid damaging the system hardware or
losing data.
Note Contains helpful supplementary information.
Site Preparation and Safety
Before using the system, read the site preparation and safety manual on the documentation
media provided. Always follow the safety precautions in that manual and in this document
when using the system.
Operating Precautions
WARNING Do not operate this system without following the safety precautions described
in this manual and the documentation that came with your system.
The spectrophotometer contains precise optical components. Handle it carefully and follow
these precautions.
• Do not allow moisture to leak into the instrument interior
• Wipe off spilled chemicals immediately
• Do not drop the instrument
• Protect the instrument from mechanical shock
• Protect the instrument from dust
2GENEYS Family SpectrophotometersThermo Scientific
Page 9
1
Lift here
Closure magnet
Light beam path
Detector lens
Monochromator
window
Tray alignment
posts
Drain
GENESYS Spectrophotometers
Spectrophotometer Basics - GENESYS 40 and GENESYS 50
Spectrophotometer Basics - GENESYS 40 and GENESYS 50
Remove all tape from the exterior of the instrument and inside the sample compartment.
Sample Compartment - GENESYS 40 and GENESYS 50
Thermo ScientificGENEYS Family Spectrophotometers3
High durability constant torque hinges hold
the lid at any angle
Window and lens protect interior optics from spills and
vapors.
Magnet at front holds lid closed to exclude
light when door is lowered
Sample holder tray aligns to posts on baseplate.
Excess spills drain to benchtop.
Page 10
1
Locater pin
Magnets
GENESYS Spectrophotometers
Spectrophotometer Basics - GENESYS 40 and GENESYS 50
Single Cell Holder - GENESYS 40 and GENESYS 50
Standard 10 mm cuvette holderUnderside of a single cell holder
Tray features
• Able to contain spills up to 150 mL
• Can be removed by pulling up on the cell holder
• Can be washed in the sink or a dishwasher - dry promptly!
NOTICE
• Clean the tray with water and mild detergent. Ethanol and iso-propyl alcohol can be
used if necessary but do not soak the tray in alcohols.
• Do not allow acetone, chlorocarbons or other aggressive organic solvents to contact
the tray. The PC-ABS plastic will soften and discolor.
Removal – grasp cell holder and lift up and forward
Insertion – allow front magnet to engage. Lower cell holder into place, allowing back
magnet to guide and engage
4GENEYS Family SpectrophotometersThermo Scientific
Page 11
Optional Sample Holders - GENESYS 40 and 50
Cell holder trays equipped to position other kinds of cells and samples are available. They
insert and remove in the same way as the standard cell holder.
Te st tu b e h o ld e r
Tall test tube adapter
1
GENESYS Spectrophotometers
Spectrophotometer Basics - GENESYS 40 and GENESYS 50
Long path rectangular cell
holder
Long path cylindrical cell
holder
Filter holder
Accessory kit for hose
entry/exit
Thermo ScientificGENEYS Family Spectrophotometers5
Thermostatted cell holder and Adjustable filter holder accessories are supplied without a tray.
Loosen the captive screw at the base of the cell holder to remove it. Attach the new sample
holder in the same way.
Note The Accessory Kit for Hose Entry/Exit is required to support use of the
thermostatted cell holder. See Lid Removal and Replacement for additional installation
instructions.
• Clean cell holders by wiping with a solution of mild detergent. Ethanol and isopropyl
alcohol can be used if necessary but do not submerge the cell holder in liquid.
• Do not allow acetone, chlorocarbons or other aggressive organic solvents to contact
the cell holder or base. The PC-ABS plastic will soften and discolor.
Removal—grasp blue knob and lift straight upInsertion—align arrow on left side of sample
compartment with arrow on sample holder
accessory. Lower cell holder into place.
Magnet holds accessory down. Pin under
accessory base aligns cell holder in beam and
prevents rotation.
8GENEYS Family SpectrophotometersThermo Scientific
Optional Single Sample Holders - GENESYS 140, GENESYS 150, GENESYS 180 and
BioMate 160
Cell holder trays equipped to position other kinds of cells and samples are available. They
insert and remove in the same way as the standard cell holder.
Long path rectangular cell holder
Long path cylindrical cell holder
Filter holder
Disposable 50 μL Microcell Holder
Beckman cell holder
Peltier Thermostatted cell holder
Note Water thermostatted cell holders are not supported on this platform. See the Peltier
Thermostatted Cell Holder accessory.
Thermo ScientificGENEYS Family Spectrophotometers9
Disposable 50 mL Microcell Holder – GENESYS 140, GENESYS 150, GENESYS 180
and BioMate 160
Disposable plastic microcells with 50 μL chambers located at a Z-height of 8.5 mm and
centered on the cell are supported by this accessory. At time of writing of this user guide, the
Eppendorf™ UVette™ is the only brand supported, but see the insert with the accessory for
updates. Cuvettes made by BrandTech™ are not supported because of poor manufacturing
reproducibility in these cells.
Note Plastic microcells are not as transparent as quartz, especially at very short
wavelengths. The combination of absorption by the cell and masking of the
spectrophotometer beam required to restrict it to the 2.5 mm tall cell window reduces the
energy passing through these cells. Photometric performance will be lower with these cells
than with full size quartz cells.
Beckman™ pioneered the use of a special type of microcell with volumes of 100 μL or less.
These very short cells require a special holder to accommodate them at the appropriate
Z-height for the cell and to mask off part of the spectrophotometer beam to ensure that light
only passes though the sample, and not over it.
10GENEYS Family SpectrophotometersThermo Scientific
Peltier Thermostatted Single Cell Holder – GENESYS 140, GENESYS 150,
GENESYS 180 and BioMate 160
The accessory holds a single cell at a temperature between 20° and 60 °C with a precision of
≤0.2 °C and an absolute accuracy of ±0.5 °C.
Note The specification for absolute accuracy is limited by the accuracy of the
thermocouple used in construction of the device. ±0.3° C is the specification of a superior
quality thermocouple. Beyond this specification the cost of the thermocouple becomes
exponentially higher and use of a calibrated thermocouple becomes a necessity if
exceptionally high accuracy is a requirement.
In our tests, using a calibrated thermocouple probe, we generally find the temperature of the
solution in the cuvette to fall within ±0.3 °C of the programmed absolute temperature.
The temperature measured and reported by the device is the temperature of the metal
cell-holder block. The temperature of stirred liquid in a full size quartz cell will reach the same
temperature as the cell holder block after approximately 6 minutes when heating from 23 °C
to 35 °C. This is only a guide. Performance will vary if:
• The initial temperature is different
• The final temperature is below room temperature
• The cuvette is not stirred
• The cuvette is not made of glass or quartz
• The cuvette is a micro-cuvette
Thermo ScientificGENEYS Family Spectrophotometers11
The experimental parameters for controlling the Peltier thermostatted cell holder include an
equilibration time. This is a “wait time” between when the cell holder block reaches the target
temperature and when the absorbance measurement is made. We strongly recommend that
you place the probe of a digital thermometer or thermocouple of sufficient accuracy and
precision in the liquid in a cell under what will be normal experimental conditions, and bring
a quantity of appropriate matrix (solvent or buffer) to temperature in the cell holder while
monitoring the temperature to determine performance under your experimental conditions.
A white paper describing important considerations and limitations in thermostatting
experiments is included with this documentation set. Refer to Introduction to Temperature Control for additional details.
In brief, however:
• Quartz conducts heat six times faster than plastic – samples in quartz cells come to
temperature much faster than they do in plastic cells.
• A full size cell takes approximately 66% more time to reach equilibrium temperature if it
is not stirred.
Installing the Accessory
Align white arrows as shown.
• Liquid in unstirred plastic cells did not heat to within 0.6 °C of the cell holder block
temperature when heating in our experiments.
• Plastic microcells and semi-microcells have significantly reduced surface contact with the
walls of the cell holder block compared to full size plastic cells or glass/quartz reduced
volume cells. If using a reduced volume plastic cell it is essential that you perform some
experiments to determine the appropriate equilibration time setting.
12GENEYS Family SpectrophotometersThermo Scientific
Lower the cell holder into the sample compartment so that the V engages with the groove on
the side of the sample compartment and the hold-down magnet engages
Connect cables as shown.
• The power supply is identical to the instrument power supply
• Operate this accessory with the sample compartment lid open
• Do not close the sample compartment lid while the accessory is running
• Optional – the sample compartment lid can be removed while using this accessory
See “Peltier Configuration” on page 69 of this guide for instructions on configuring your
method to use this accessory.
Thermo ScientificGENEYS Family Spectrophotometers13
A detailed introduction to sippers and how they can be used to get the best results in different
situations is provided in a separate document (English language only) included in the
documentation media with this user guide.
Components of the Sipper System
Complete sipper systems come with the following components
ItemPhotograph
Sipper pump
Sample compartment insert with
gooseneck
14GENEYS Family SpectrophotometersThermo Scientific
1 Flow cell, 160 µL volume
with screw connector set
Smaller volume flow cells are available but the smaller window size cuts off some of the spectrophotometer beam, reducing photometric performance. If the absorbance values measured
are below 1.0, however, this will not make a noticeable impact on data quality.
Connector package
The connectors supplied are designed for use with the # 16 tubing supplied. They can also
be used with smaller # 14 tubing with extra effort. To use larger # 25 tubing please purchase
a larger connector separately.
ItemPhotograph
30 cm Silicone pump tubing
(#16 size – 1.6 mm wall,
1.6 mm inside diameter)
1
GENESYS Spectrophotometers
Thermo ScientificGENEYS Family Spectrophotometers15
3. Lower the cell holder into the sample compartment so that the V engages with the groove
on the side of the sample compartment and the hold-down magnet engages.
4. Position sipper pump and connect cables.
Note The power supply for the pump is identical to the power supply for the
spectrophotometer. There is no risk or danger to connecting “the wrong one”.
Thermo ScientificGENEYS Family Spectrophotometers17
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1
Pump head connection taking
silicone tubing to waste
Program a custom sequence to sip at the chosen speed for 60 seconds, or longer if
necessary. Place the inlet tube in a beaker of clean solvent and pump for long enough to
completely fill the system with solvent and deliver it to the waste container.
Repeat the sip sequence while observing the PTFE tubing between the flow cell and the
pump. There should be no bubbles in the tubing. If there are, check the tubing
connections to the flow cell.
Remove the flow cell from the cell holder and check it for solvent leaks.
Check the connections between the PTFE tubing and the pump-head tubing for solvent
leaks.
16. Follow the process to calibrate the sipper.
Failure to deliver a consistent volume can be an indicator of an air leak at the connection
between the cell outlet tubing and the pump-head tubing.
Controlling the Sipper from Software
Two sipper control modes:
1. Uncalibrated – Define pump time at all stages.
2. Calibrated – Define pump volume at each pumping stage.
Sipper parameters are stored in the experimental method. Sipper control is supported only in
Quant, Fixed and Scan modes.
See “Sipper Configuration” on page 63 for instructions on programming the sipper.
Sipper setup controls
SelectionDefinition
SipPump in the forward direction
(from the inlet tube towards the
flow cell and pump)
SettleTime to wait for the liquid to stop
moving before making a
measurement
Air gapPump air in the forward direction
to push liquid through the system
RinsePump rinse solution in the forward
direction
ReturnPump in the reverse direction (from
the pump and flow cell towards the
inlet tube)
20GENEYS Family SpectrophotometersThermo Scientific
the user what to place at inlet tube
for the next step in the sequence
Uncalibrated vs. calibrated sipper operation
Customers whose existing SOPs are based on a prior sipper system that did not support
calibration for volume pumped can continue to use time-based pumping in uncalibrated
methods.
In general, calibrating the system for volume delivered is the preferred method. Once
calibrated, the system will pump the specified volume at each step.
Fiber Optic Coupler and Probe (UV Vis systems only)
1
GENESYS Spectrophotometers
NOTICE Fiber optic cables can suffer damage when bent with too small a radius. A small
radius can also lead to light loss and reduction of performance even if it does not lead to
physical damage. The recommended minimum bend radius when working is 20cm.
Note The fiber optic probes that we supply are equipped with a shorter than normal
collar at the SMA connector. This helps to maximize the bend radius of the input fiber.
Probes purchased from other vendors will generally have a 25 mm long collar at the SMA
connector. This will make them difficult to install and may result in an unacceptably small
bend radius to the fiber as it exits the collar. If you wish to use a third-party probe, we
recommend that you specify a 13 mm collar.
Assembly
Assemble the fibers to the coupler as shown in the photograph.
1. Loosen the three thumb screws on the top cover and remove it from the coupler.
Thermo ScientificGENEYS Family Spectrophotometers21
2. Remove the protective plastic covers from the ends of the fibers.
Save these covers and re-attach them if you remove the probe.
3. Slide the tips of the SMA connector into the receivers and tighten the nuts hand tight.
Do not use tools to tighten the nuts further.
4. Loosen the hold-down thumb-screw, place the fibers under it, and tighten it down to
hold the fibers in place.
Do not over-tighten. Be sure to route the cables as shown in the photograph above. This
routing pattern maximizes the bend radius.
Note The routing distance for the input and output fibers is slightly different so there
will be a small excess loop between the junction nut and the coupler. This is normal
and correct.
5. Re-attach the top cover to the coupler.
6. Remove the black rubber cover from the pick-up lens. Be careful not to touch the lens
with your fingers.
7. Lower the coupler into the sample compartment with the white arrows aligned.
8. Ensure that the probe tip is tight. It screws on and off in the expected way.
22GENEYS Family SpectrophotometersThermo Scientific
The recommended operation wavelength range is from 220 nm to 1100 nm. Although the
fibers are solarization resistant they can suffer cumulative damage (they become opaque) when
used at very short wavelengths. Damage to the fibers due to solarization is not covered under
warranty.
Two configurations are recommended:
1.Place the probe in a clamp and bring the container with the solution up to it.
2.Hold the probe in your hand and place it into the container with the solution.
Measure the blank solution first and then measure the sample(s) – exactly as you would if
you were making measurements with cuvettes.
It is VERY important to avoid having an air bubble in the tip when making a
measurement. Air bubbles will result in completely incorrect measurement values. Tap the
probe with your finger to knock air bubbles out if using configuration 1. “Shake” the
probe back and forth quickly and/or tap it with your finger to knock air bubbles loose if
using configuration 2. Do not tap the probe on the side of the container. This could
damage the tip or the container.
Probe Tips with Different Pathlengths
While tips with other pathlengths can be purchased for the dip probe we do not recommend
their use with the GENESYS systems and have not tested other configurations. Longer
pathlengths typically lead to greater light-loss in the tip, reducing photometric range. Shorter
pathlengths are more prone to trapping air bubbles in the tip and it is more difficult to shake
them loose.
Performance
Fiber optic couplers and probes “cost” light in a spectrophotometer system. Having less light
intensity in the system means not being able to deliver the same photometric performance
with the fiber probe system that the instrument can deliver with cuvettes in a dark sample
compartment. Do not perform the performance verification tests when using the fiber optic
probe system.
Thermo ScientificGENEYS Family Spectrophotometers23
As a guide, in our tests, we found the system to very resistant to room lighting conditions and
to deliver good linearity to approx. 1.8A and an upper limit of measurement of 2.2A. If
performing quantitative analysis with this accessory and measuring above 1A we recommend
that users choose a quadratic (second order) fit for the curve and work in an operational range
below 1.8A.
Troubleshooting
ProblemCauseSolution
Readings are unexpectedly high or low
with no consistency to the error
All readings are “off” by a uniform
amount
Change in photometric performance –
depressed ABS readings or maximum
ABS reading
Air bubbles in the tip during
sample measurement
Inspect the gap in the tip prior to
making a measurement. Take steps to
remove any bubbles.
Inconsistent small bend radiusUse a large bend radius and keep it
consistent
Air bubble in the tip during blank
measurement
Inspect the gap in the tip prior to
making the blank measurement. Take
steps to remove any bubbles.
Bend radius too smallConfigure your experimental setup to
use a large and consistent bend radius
Damaged optical fiberFollow the recommendations above.
Record a blank and scan from
1100 nm to 220 nm with deionized
water. Save the spectrum. The
spectrum should be essentially flat
with < ±0.05A baseline noise. Large
spikes or discontinuities are common
signs of fiber damage.
Try using a different probe if you have
one available.
Contact Us
Probe does not work at all – no signalCover over pick-up lens on couplerRemove the lens cover.
Broken fiberReplace the probe.
Tip loose, damaged or missingRemove and inspect the tip. Ensure
that the mirror is present and clean.
Attach the tip and re-test the system.
Coupler not inserted correctlyRemove and re-insert the coupler
SMA connector not properly
secured
Remove and re-attach the SMA
connectors inside the fiber coupler.
Ensure that the nuts are not cross
threaded.
24GENEYS Family SpectrophotometersThermo Scientific
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Spectrophotometer Basics – All Models
On/OffAccessory
connector
USB-A
ports
Network/Ethernet
port
Electrical Connections
• Power toggle switch
• 12V DC—connect the cable from the power supply here
• Accessory connector—connect the data cable from the Peltier Thermostatted Cell Holder
or Sipper Pump (optional accessories) here
• USB-A ports—see Optional Accessories below
1
GENESYS Spectrophotometers
Spectrophotometer Basics – All Models
Optional Accessories
• Network/Ethernet port—connect a standard Ethernet (RJ45-RJ45) cable between this
port and a network port to communicate with the building network
A single USB-A port is located on the front (GENESYS 40 or GENESYS 50) or the side
(GENESYS 140, GENESYS 150, GENESYS 180 and BioMate 160) and a pair of USB-A
ports is located on the main connector panel (pictured).
The USB ports support the following peripheral devices:
• Special cable to PC to run the instrument from VISIONlite software
• Standard keyboard
• Mouse or touchpad
• Dongle for wireless keyboard/mouse
•Printer
• USB flash memory device
• Barcode reader
Thermo ScientificGENEYS Family Spectrophotometers25
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1
Finger hold
Printer housing
Lift
12
3
4
5
6
GENESYS Spectrophotometers
Spectrophotometer Basics – All Models
Printer
1. Remove the printer housing cover.
2. Load paper into the optional printer.
Use the finger hold, pull towards you and lift.
26GENEYS Family SpectrophotometersThermo Scientific
Page 33
3. Insert printer into GENESYS spectrophotometer.
Guide rails
Guide rails
Connector
Connector
Bottom of printer
Release lever
Back of GENESYS
Serial Number
1
GENESYS Spectrophotometers
Spectrophotometer Basics – All Models
a.Align the guide rail on the printer with the guide rail on the GENESYS
spectrophotometer.
Thermo ScientificGENEYS Family Spectrophotometers27
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1
Slide forwardPrinter fully engaged
GENESYS Spectrophotometers
Spectrophotometer Basics – All Models
b.Push the printer forward until the connectors are fully connected.
You will hear a snap when the connectors have engaged properly.
28GENEYS Family SpectrophotometersThermo Scientific
Page 35
Halogen Lamp
Lamp housing
connector
Lamp housing
guide rail
Lamp
connector
Lamp
guide rail
12
3
4
Bottom of lamp
Back right corner
The lamp source lifetime is approximately 1,000 hours.
To replace the halogen lamp
1
GENESYS Spectrophotometers
Spectrophotometer Basics – All Models
Thermo ScientificGENEYS Family Spectrophotometers29
GENESYS 40 shown. GENESYS 140 is similar.
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1
1
2
3
4
5
GENESYS Spectrophotometers
Spectrophotometer Basics – All Models
WiFi Transmitter
1. Print to a wireless printer in the room.
2. Connect to a WiFi router.
NOTICE Prevent damage to the instrument. Remove the WiFi Transmitter from the
instrument and package it separately when shipping the instrument – for example to our
depot for service.
30GENEYS Family SpectrophotometersThermo Scientific
Page 37
Lid Removal and Replacement
Loosen single Phillips/Cross screw as shown and lift lid assembly upwards. Attach new lid in
same way.
Lid removal may be required or desired when:
• Installing the Accessory Kit for Hose Entry/Exit on GENESYS 40 or GENESYS 50
1
GENESYS Spectrophotometers
Spectrophotometer Basics – All Models
• Using the Peltier Thermostatted Cell Holder accessory for the 100 series models
• Using the sipper accessory for the 100 series models
• Using the fiber optic probe accessory for the 100 series models
• Using the 8-cell changer for the 100 series models
• Replacing a damaged lid
Thermo ScientificGENEYS Family Spectrophotometers31
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GENESYS Spectrophotometers
Spectrophotometer Basics – All Models
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32GENEYS Family SpectrophotometersThermo Scientific
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2
GENESYS On-board Software
Settings menu
to view
experiment data
to view
applications
GENESYS On-board Software Home Screen and Navigation
See Performance Verification Tests
and Reports
When an application is selected, the user is directed to an “Application Home” screen.
Thermo ScientificGENEYS Family Spectrophotometers33
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2
GENESYS On-board Software
Getting Started
Getting Started
On this screen, when available, existing methods can be loaded, new methods created or
existing methods modified or edited.
This section provides an overview of the basic operations within an application.
For detailed explanation of parameters within each application and advanced functionality,
please see the appropriate section in this manual.
Typically, the Thermo Scientific™ GENESYS™ On-board applications have the following
structure and workflows:
•Application Home
–View and select methods
–Export/Import/Data methods
–Select for Smart mode
•Setup
–Setup parameters
–Configure accessories
–Perform calibration for Quant
• Experiment Execution
–Perform Blank, begin measurement
–Edit sample names
–Select sample-specific actions, where applicable
• Data Analysis and Actions
–View and analyze data
–Export/print
–Save/discard
34GENEYS Family SpectrophotometersThermo Scientific
Page 41
Viewing Saved Experiment Data
Data Viewer
Select experiment
data by name
2
GENESYS On-board Software
Viewing Saved Experiment Data
Thermo ScientificGENEYS Family Spectrophotometers35
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2
Select
method to
view details
‘3-dot’ menu
presents
more
method
options
Review and use method
Import from
network or USB
Sort by name
Select a
method as a
Smart Method.
See SmartStart
Edit to modify the selected
method
Create a copy of the
selected method and
modify parameters
See Importing Methods
GENESYS On-board Software
Viewing Saved Experiment Data
Application Home
This section uses the Scan application as an example. See the specific application section for
detailed explanation of parameters and options.
36GENEYS Family SpectrophotometersThermo Scientific
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2
Long tap to select
multiple methods
Delete
Create new method
Edit method name
GENESYS On-board Software
Viewing Saved Experiment Data
Creating A New Method
Thermo ScientificGENEYS Family Spectrophotometers37
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2
All blue text and
buttons are
editable
See
Accessory
Setup
Blue save icon
indicates unsaved
changes.
Go to previous page
to save
All parameter
options are
presented in a
slide up menu
Follow prompts
to begin experiment
GENESYS On-board Software
Viewing Saved Experiment Data
Experiment Execution
38GENEYS Family SpectrophotometersThermo Scientific
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2
Swipe right to view
method parameters
All measurements
are displayed
Print or export
Rename experiment
before saving (or use
default name)
All experiment data
must be saved.
GENESYS On-board Software
Viewing Saved Experiment Data
Example of a printed report. See Printer Setup and Wi-Fi
Printing for details.
Thermo ScientificGENEYS Family Spectrophotometers39
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2
Swipe cursors to points of
interest
View values
3-dot for advanced analysis
Scan samples have peak
pick options
Tap to edit sample name
Tap sample to highlight in
spectrum
Long tap to select multiple
for fine cursor
adjustment
to show/hide
cursor
GENESYS On-board Software
Viewing Saved Experiment Data
Data Analysis and Actions
40GENEYS Family SpectrophotometersThermo Scientific
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2
Select Peak Pick
Peaks, Valleys
or both
Adjust ABS
scale to
specify
lower limit
Adjust Lambda cursors to specify
peak detect range
GENESYS On-board Software
Viewing Saved Experiment Data
Thermo ScientificGENEYS Family Spectrophotometers41
See Scan Application for detailed
information on options and parameters.
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2
The instrument must be blanked first
GENESYS On-board Software
Live Display Application
Live Display Application
In the live display mode, the instrument performs continuous absorbance measurements
automatically.
42GENEYS Family SpectrophotometersThermo Scientific
Page 49
Fixed Application
Measure
absorbance
Measure
transmittance
Select
equation
template
2
GENESYS On-board Software
Fixed Application
Thermo ScientificGENEYS Family Spectrophotometers43
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2
Selected units will be displayed on the
measurement screen and print out.
At most two wavelengths and two factors
are supported
Factor values are substituted in the equation and ABS values at defined wavelengths
are substituted after measurement
GENESYS On-board Software
Fixed Application
Follow the prompts to complete measurement. When an equation type with two wavelengths is
selected, the instrument will acquire measurements at the two selected wavelengths.
44GENEYS Family SpectrophotometersThermo Scientific
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Scan Application
Scan range:
Between 190 nm and 1100 nm for UV-Vis
Between 325 nm and 1100 nm for Vis
instruments
Interval:
Specifies how frequently the instrument will
acquire a measurement.
In this illustration, data will be captured every
2nm.
Fast, Medium, Slow scan speeds limit the number of
data interval options offered
2
GENESYS On-board Software
Scan Application
SpeedInterval Options
Fast5nm, 2nm
Medium5nm, 2nm, 1nm
Slow
a
0.1 nm interval option is available only on GENESYS 180
instruments
5nm, 2nm, 1nm, 0.5nm, 0.2nm,
a
0.1 nm
Thermo ScientificGENEYS Family Spectrophotometers45
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2
To view more sample data
options
to run Peak Pick
Three peaks found in the
region above the ABS cursor
and between wavelength
cursors
Adjust
wavelength
cursors to
narrow
regions of
interest
Adjust ABS cursor to
narrow region of interest
Show
peaks,
valleys or
both
Rename data
All data must be saved for data integrity. If a
custom name is not provided, the software
assigns a default name.
Find the experiment in
the Data Viewer using
this name
GENESYS On-board Software
Scan Application
Analyzing First Sample
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Quant Application
Add standards and
select curve type
The equation type used
to fit the standard
measurement data is
determined by this
equation
Selects units in which the
sample measurements are
displayed and printed
Select if 1 or 2 replicates
are needed
Save method
Once sufficient unique standard concentration
values are provided, the calibrate button is enabled.
The number of unique standard concentration
values are determined from the equation of the
curve type.
Calibrated and Uncalibrated Quant Methods
When method is saved after a standard curve is calibrated, the method is saved as a calibrated
method. Since the standard curve is already available, it is possible to proceed directly to the
sample measurement screen
2
GENESYS On-board Software
Quant Application
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2
Equation and r-square
calculated
Measure is enabled after all
standards are measured
Change curve type to find new fit. R-squared
value is re-calculated
after sample measurement is
complete
New sample
Add standards and select curve type
GENESYS On-board Software
Quant Application
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Cell Changer Setup in Quant
Cell changer with standards
When configuring the cell changer in Quant, the first cell changer will always be configured
with standards. The number of standards can only be configured on the Quant Home page.
The first cell in the standards cell changer will always be blank.
2
GENESYS On-board Software
Quant Application
For details on how to setup a cell-changer, see Cell Changer Configuration.
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2
GENESYS On-board Software
C-Mode
C-Mode
50GENEYS Family SpectrophotometersThermo Scientific
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Kinetics Application
Create new method with
settings as shown
12
Notice measurements are measured
every “interval” time
Operation of the Kinetics Application is best explained by walking through an example.
2
GENESYS On-board Software
Kinetics Application
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2
clock to add more time
to update experiment run time
The experiment run time is updated and
chart scaled
Experiment run time may be extended any
number of times before experiment run
time expires
Complete popup is visible after every
measurement is complete
Extend again
Experiment time and chart are updated
again
GENESYS On-board Software
Kinetics Application
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2
Stops the experiment
immediately
Adjust cursors
After data acquisition is
complete, the Results
page is displayed. The
linear rate of reaction is
calculated.
Slide the cursors to
adjust the region where
rate is calculated.
Export
Select USB port with flash drive
GENESYS On-board Software
Importing Methods
Importing Methods
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Select location
New folder on
USB
New method
file on USB
GENESYS On-board Software
Exporting Data and Methods
Exporting Data and Methods
Performance Verification Tests and Reports
Running Performance Verification Tests
Customized Performance Verification Tests
54GENEYS Family SpectrophotometersThermo Scientific
GENESYS instruments are preconfigured with default Performance Verification Tests. These
tests cannot be deleted or edited.
Running a performance verification test is similar to running any other experiment method.
Follow the on-screen instructions.
Some Performance Verification Tests can be customized to meet specific verification
requirements of users. To customize a test, it must first be duplicated.
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GENESYS On-board Software
Performance Verification Tests and Reports
Often, standard operating procedures require performance verification of instruments
periodically. Test such as Stray Light, Wavelength Accuracy and Photometric Accuracy require
specific sets of filters and standards. The default performance verification tests are designed to
work with specific standards and filters See Table1. However, these tests can be duplicated and
customized to work with standards of choice.
Table 1.Description of each test and if it may be duplicated
Performance Verification TestDescription
Wavelength Accuracy XenonThis test verifies the wavelength axis performance of the
spectrophotometer.
Scans and locates known xenon emission peaks and
verifies that they are found accurately to within the
specification for the instrument.
Drift at 500 nmMeasures absorbance at 500 nm at 1 minute intervals
for an hour. Measured at 0A (open beam). Blanks and
reports maximum deviation from zero. Compares result
to specification for the instrument.
Result should be less than the specification.
Noise 0A at 500nm
Records 60 ABS measurements at 1 second intervals.
Returns RMS (root mean square) of data set as noise
Noise 1.0A at 500 nm
Noise 2.0A at 500 nm
value and compares specification for the instrument.
Insert 1A or 2A nominal absorbance neutral density
glass filter for those measurements.
Result should be less than the specification.
Can
Duplicate?
No
No
No
Note: Noise in the GENESYS instruments is so low that
the result is reported with more than the usual 3 decimal
digits.
Baseline Flatness 1000 to 200 nmMeasures any systematic deviation from perfect zero
No
when scanning across the common wavelength range.
Data is smoothed to remove the impact of noise (noise
can be measured separately). Result is the maximum
deviation from zero and is compared to the specification
for the instrument.
Result should be less than the specification.
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GENESYS On-board Software
Performance Verification Tests and Reports
Performance Verification TestDescription
Stray Light SRE 220 filter (UV-Vis models)
Stray Light SRE 400 Filter (Vis models)
Measures stray light at the specified wavelength.
The filter is a long pass filter that cuts on slightly above
the test wavelength. At the test wavelength it should be
entirely dark – i.e. 0%T. Longer wavelengths pass
through the filter, therefore any transmittance measured
at 220 nm is actually photons of longer wavelength that
are “stray light”. Sources of stray light include second
order effects imperfections in the grating, and
imperfections or dirt on mirrors.
The measured transmittance is compared to the
specification for the instrument.
Test measures transmittance at the specified wavelength.
Result should be less than the specification.
Can
Duplicate?
Yes
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2
GENESYS On-board Software
Performance Verification Tests and Reports
Performance Verification TestDescription
Wavelength AccuracyThis test verifies the wavelength axis performance of the
spectrophotometer.
Use this test with a calibrated wavelength filter such as
the
filter from the SPECTRONIC Standards 2 Kit or
a holmium or didymium glass filter.
User enters the peak wavelengths and calibration
uncertainty from the calibration certificate.
The instrument scans across the relevant wavelength
range and locates the center of the peak.
Reported wavelength should agree with certificate
wavelength to within the sum of the instrument
specification and the calibration uncertainty.
Photometric AccuracyThis test verifies the photometric (absorbance)
performance of the spectrophotometer.
Use this test with one or more calibrated absorbance
filter(s) such as those found in the SPECTRONIC
Standards 2 Kit to test accuracy in the visible region. Use
calibrated potassium dichromate solution cells, metal on
quartz filters, or other recognized calibrated standard
a
materials for the UV region.
Multiple filters calibrated
at the same wavelengths but different absorbance values
can be configured in a single test.
Can
Duplicate?
Yes
Yes
User enters
•calibration wavelengths
• certificate absorbance values
• calibration uncertainty value
from the calibration certificate. User also enters the
performance specification for the absorbance value being
tested from the specification sheet for the instrument.
b
The instrument measures and reports the absorbance at
each specified wavelength. A 1s integration time is used.
Reported absorbance should agree with certificate
absorbance to within the sum of the instrument
specification for that absorbance level and the
calibration uncertainty.
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GENESYS On-board Software
Performance Verification Tests and Reports
a
We recommend against use of didymium glass “dual standard” filters calibrated for both wavelength peaks and photometric accuracy. Customers
have reported difficulty in reproducing calibration values for this type of standard although their instruments do reproduce the calibration values
for other, more widely accepted and recognized standards. Customers who call for support because an instrument fails a photometric accuracy
test with a didymium photometric standard may be required to verify photometric accuracy with a different standard before return shipment for
warranty service is authorized.
b
Future releases of software may include a look-up table that populates the instrument specification based on the user-entered certificate
absorbance value.
Customizing Stray Light Test
58GENEYS Family SpectrophotometersThermo Scientific
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2
Save
Set up wavelength
Select target
tolerance
Rename
Custom Stray Light performance
verification test is created
GENESYS On-board Software
Performance Verification Tests and Reports
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2
Toggle to perform wavelength
repeatability test
GENESYS On-board Software
Performance Verification Tests and Reports
Customizing Wavelength Accuracy Test
60GENEYS Family SpectrophotometersThermo Scientific
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Customizing Photometric Accuracy Test
A typical standards kit for photometric accuracy comes with a Certificate of Calibration. This
section illustrates how to configure a photometric accuracy test for custom standard kits.
2
GENESYS On-board Software
Performance Verification Tests and Reports
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2
Standard ID may be
used to identify the
corresponding filter
in a filter set
Standard ID may be used to identify the
corresponding filter in a filter set
GENESYS On-board Software
Accessory Setup
Accessory Setup
Cell Changer Configuration
Cell changer setup in the Scan Application is used as an example in this section. However, the
same steps can be followed for all other applications.
Cell changer setup in Quant requires a few extra steps. See Cell Changer Configuration.
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Sipper Configuration
Fast, Medium, Slow
Set up the speed of the sipper for an
uncalibrated sipper.
These parameter set the time for which the
sipper performs this step.
The parameters are applied only when the
corresponding step is used in a workflow.
See “Custom Workflows” on page 68
2
GENESYS On-board Software
Accessory Setup
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After configuration,
Configured workflow is Sip, Measure and
Rinse
Always blank first
Sipper prompts to
allow setting up the
blank
when
ready
GENESYS On-board Software
Accessory Setup
Measurements
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2
After sipping, a measurement is made
and the rinse stage begins.
GENESYS On-board Software
Accessory Setup
Message provides information and next
steps of current state
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2
Select a speed,
Enter a target value
After sipper completes sipping, measure the
sipped volume and enter here.
GENESYS On-board Software
Accessory Setup
Calibrated Sipper
By default, the sipper is configured in an uncalibrated mode. Calibrating a sipper allows
precise control over the volume of the liquid drawn.
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2
New estimated sipping time is
calculated from the actual
sipped volume
The sipper may be re-calibrated multiple
times
Enter new measured volume
1
after calibration is satisfactory
Estimated time is
re-calculated
Volume values may be used for setting
stage parameters
Parameters can now be set in volume
A rate is calculated
GENESYS On-board Software
Accessory Setup
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2
1
2
to add new stage
after calibration is satisfactory
GENESYS On-board Software
Accessory Setup
Calibrating the Sipper
The sipper calibration aims to pump 10 mL or a different volume that you specify. We
recommend 10 mL as a good choice for most applications. You will require a method to
determine how much volume has been pumped. We suggest one of two:
• Pump out of a filled 25 mL graduated cylinder. Note the volume on the scale before and
• Pump out of a weighed beaker or flask. Weigh the beaker again after pumping and
Custom Workflows
If an SOP calls for a specific workflow, the sipper configuration offers customization of
workflow.
after pumping. Calculate the volume pumped by subtraction.
calculate the volume pumped by multiplying the difference in mass by the density of the
solvent. The density of water can be taken as 1.00 g/mL for most purposes. However, if
you require particularly high precision in pumping small volumes you may wish to use
purified water and the literature value for density of water at the temperature used.
The workflow will now be saved with the method and will execute with the method.
68GENEYS Family SpectrophotometersThermo Scientific
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Note If the instrument does not detect a sipper, a warning will be displayed. This warning
after setting parameters
Explanation of parameters is provided
Equilibration time in minutes:
anytime to review configuration
parameters
Peltier is setup
will disappear once a sipper is connected.
Peltier Configuration
2
GENESYS On-board Software
Accessory Setup
Thermo ScientificGENEYS Family Spectrophotometers69
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2
anytimePeltier status
If configured, Equilibration countdown
begins
GENESYS On-board Software
Accessory Setup
Temperature setpoint:
The instrument starts measurement when the block temperature of the Peltier reaches the
temperature setpoint.
Equilibration time in minutes:
Heat transfer from the block to the sample is not instantaneous; the equilibration time acts as
delay between when the block temperature reaches the setpoint and when the instrument
begins measurement.
Temperature tolerance:
The instrument begins measurement as soon as the Peltier block temperature falls within the
temperature tolerance range about the temperature setpoint.
Stir speed:
This parameter ranges from off to 10 and sets the speed at which the stirrer rotates.
70GENEYS Family SpectrophotometersThermo Scientific
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Accessory Configuration in Scan
to set up
Choose accessory type
(in this case, the 8-cell changer)
Prepare cell changer
Match cell configuration to cell changer configuration
Leave blankSkip
Cells 2 through 7 samples
2
GENESYS On-board Software
Accessory Setup
Thermo ScientificGENEYS Family Spectrophotometers71
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2
1
2
3
GENESYS On-board Software
Accessory Setup
Remember, first cell always blankRemember, first cell always blankPerform scan analysis on any sample
72GENEYS Family SpectrophotometersThermo Scientific
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2
Equals number of cell
changers
Always blank
This blank applied to all
subsequent
measurements
Others may be configured
without restrictions
New blanks applied to
subsequent
measurements
after replacing
cell changer
Next cell changer will
start #2 appended
GENESYS On-board Software
Accessory Setup
Measurement will stop after first cell changer.
Thermo ScientificGENEYS Family Spectrophotometers73
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2
to view accessory configuration
GENESYS On-board Software
Accessory Setup
74GENEYS Family SpectrophotometersThermo Scientific
Page 81
SmartStart
Mark method as
Smart Method
Toggle to unselect.
1
Go to Settings
2
SmartStart™ allows creation of shortcuts to favorite methods on the Home screen.
The Home screen will only show favorite methods.
Configuring and Switching to SmartStart Mode
2
GENESYS On-board Software
SmartStart
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2
3
Instrument in Smart
mode
Only Smart Methods
displayed
1
Go to Settings
2
3
Normal Mode
GENESYS On-board Software
SmartStart
Exiting SmartStart Mode
76GENEYS Family SpectrophotometersThermo Scientific
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Connecting to VISIONlite
when ready
12
3
VISIONlite™ is a PC based software developed by Ascanis and provides the ability to control
the GENESYS instruments via a USB cable. VISIONlite needs to be purchased separately and
a quote may be provided <need furl from Manas/Kathy Callaghan>. More information on the
capabilities of the software may be obtained at <need furl from Manas/Kathy Callaghan>.
After installing VISIONlite, connect the special cable provided with the VISIONlite for
GENESYS package between a USB port on the instrument and one on the PC.
Enable the VISIONlite Mode
2
GENESYS On-board Software
Connecting to VISIONlite
When in this mode, the PC will display a notification indicating a GENESYS instrument has
been detected. VISIONlite has now connected to the instrument and can be used to capture
data and perform advanced calculations.
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GENESYS On-board Software
Connecting to VISIONlite
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3
Printer Setup and Wi-Fi Printing
1
2
3
Setting Up USB Printer
Thermo ScientificGENEYS Family Spectrophotometers79
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3
5
4
Select USB printer indicated by the USB
symbol
Printer Setup and Wi-Fi Printing
80GENEYS Family SpectrophotometersThermo Scientific
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Settings > Network
Select the printer “SSID”
Connect to printer SSID or SSID of the
network to which the printer is connected.
Set up the printer
Select printer
Select printer model
Printer Setup and Wi-Fi Printing
Thermo ScientificGENEYS Family Spectrophotometers81
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3
Connect
Preview and print
Preview and print
Printer Setup and Wi-Fi Printing
82GENEYS Family SpectrophotometersThermo Scientific
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Setting Up Thermal Printer
1
2
Confirm the Thermal Printer is installed on the instrument. See Printer for installation
instructions.
3
Printer Setup and Wi-Fi Printing
The print option in all applications will only print to the printer configured under settings.
repeat the steps and re-configure the printer.
Thermo ScientificGENEYS Family Spectrophotometers83
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3
to access instrument settings
Configuring Network Paths
Configuring Network Paths
When connected to a Wi-Fi or a wired network connection, the instrument can export
methods and measurement data to a network location. Multiple network paths may be
configured through the Network settings page.
Settings
SettingDescription
Smart StartSee “SmartStart” on page 25
LanguagesSelecting a language will set up the locale settings including
Date-Time format and number format. V1.0 of the software does not
support multiple languages for the applications.
DisplayAdjust brightness and toggle screen saver.“Setting Up USB Printer”
on page 79
SoundsMute or adjust sound volume.
NetworkSet up the network path.
PrinterSet up printing. See “Printer Setup and Wi-Fi Printing” on page 12
84GENEYS Family SpectrophotometersThermo Scientific
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Settings
SettingDescription
Date and Time
Disk SpaceDisplays the remaining available instrument memory.
Lamp StatusProvides the remaining lamp life in percent.
Software Update
LogExport instrument logs to a USB or a network location. Provide these
logs when asked during service or support.
AboutThis screen provides information about the instrument. Provide this
information when requested during service or support.
VISIONliteEnable connection to VISIONlite from this page.
3
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Settings
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4
BioMate 160 Applications
Wavelength fixed at 600 nm
Only Peltier accessory allowed
All applications described here are only available on the BioMate 160 instrument.
OD600
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Baseline Correction
allows
BioMate 160 Applications
dsDNA
The reference wavelength setting allows the user to correct for any baseline shift caused by
scatter from particulates suspended in the sample. This is a relatively common phenomenon
in samples that are derived from lyophilized tissue samples. Choose a reference wavelength
close to the measurement wavelength(s) where the absorbance of the sample is expected to
be zero. The instrument will record the actual absorbance at this wavelength and subtract
that value from the “raw” absorbance at the measurement wavelength(s) before performing
calculations with that/those data. 340 nm is a commonly accepted reference wavelength for
DNA measurements.
Example calculation using a reference wavelength: 260/280 ratio
88GENEYS Family SpectrophotometersThermo Scientific
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RNA
4
BioMate 160 Applications
Protein BCA
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4
BioMate 160 Applications
Protein Bradford
Protein Bradford method is performed at a wavelength of 595 nm. The workflow is similar
to Quant application
90GENEYS Family SpectrophotometersThermo Scientific
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Protein Lowry
4
BioMate 160 Applications
Protein Lowry method is performed at a wavelength of 650 nm. The workflow is similar to
Quant application
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BioMate 160 Applications
Protein Pierce 660
Protein Pierce 660 method is performed at a wavelength of 660 nm. The workflow is similar
to Quant application
92GENEYS Family SpectrophotometersThermo Scientific
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Protein Rapid Gold BCA
Add a new network path
Protein Rapid Gold BCA method is performed at a wavelength of 660 nm. The workflow is
similar to Quant application.
4
BioMate 160 Applications
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Custom name to identify path
Full network path in the format shown
Toggle if the path requires authentication
If network location requires authentication, follow the prompts
Save location after all fields are filled
BioMate 160 Applications
94GENEYS Family SpectrophotometersThermo Scientific
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