real-time
PCR cyclers (1)
real-time
PCR cyclers (2)
real-time
PCR cyclers (3)
real-time
PCR cyclers (4)
On
this page the most prominent real-time PCR cycler
are described. In the cycler descriptions the
specifications and the advantages of the displayed
systems are shown. Which real-time platform meets
your requirements best, depends on your research
application. Some of the systems are designed for
research with low capacities and others are for
high-throughput applications, most in combination
with pipetting robots. A lot of the displayed
cyclers use solid-block for thermal cycling, other
use hot- and cooled-air. Most differences are
obviously in the application software, especially
in the way of data analysis and how the derived
cycle of quantification (Cq is MIQE compliant)
crossing points (CP) or threshold levels (Ct) are
computed. Each of these systems employs either one
of several general types of fluorescent probes for
detection. There are also big differences how data
are displayed and reported. Some of the
limitations of end-point detection in (RT-) PCR
have been assuaged in real-time PCR systems, a
number of which are now on the market. These
systems offer many general technical advantages,
including reduced probabilities of variability and
contamination, as well as online monitoring and
the lack of need for post reaction analyses.
Further, some of these systems were developed with
contemporary applications such as quantitative
PCR, multiplexing, HRM (high resolution melting)
and high-throughput analysis in mind. Initial
template levels can be calculated by analysing the
shape of the curve or by determining when the
signal rises above some threshold value.
A hopefully
complete list of the commercially available
real-time PCR systems are overviewed on this
page and/or summarized below:
WEBINAR --
Characterizing the Performance of qPCR Instruments
– Approaches for Assessment and Comparison
The breadth of
instruments available for quantitative PCR (qPCR)
has continued to grow in the past 5-10 years. With
older platforms now being retired and an abundance
of new technologies available to replace them, lab
managers, technicians, and researchers will need to
effectively compare and evaluate the performance of
these platforms. While new features such as
multiplexing, microfluidics, and integration with
liquid handling automation have enabled higher
throughput and lower operating costs, it has made it
increasing complex to readily compare different
types of instruments and their respective
performance characteristics.
As the list of
features and specifications grows, understanding
some of the key metrics of instrument performance
will become critical for evaluating platforms that
will best meet the needs of a laboratory’s
application focus and assay requirements.
Unfortunately, instrument vendors have not
consistently conformed to any particular standards
for defining and assessing performance
characteristics of qPCR instruments and rarely have
the methods been adequately documented in the
product literature.
In this
webinar, we will define several key performance
metrics of qPCR instruments such as dynamic range,
Cq uniformity, sensitivity, and resolution, and
further discuss their importance in practical terms.
Using data from characterization and verification
studies performed on the IntelliQube instrument from
Douglas Scientific, we will also review approaches
to evaluating these metrics, including assays and
software tools that streamline the analysis and
interpretation of performance testing results.
Life Technologies™ - Applied
Biosystems®-
Real-Time PCR Instruments
ViiA7,
OpenArray,
StepOne & StepOnePLus
7300, 7500, 7500 FAST, 7900HT
Real-Time PCR System
www.lifetechnologies.com
real-time
PCR
cycler portfolio (PDF)
The StepOne™ Real-Time PCR System combines plug and
play convenience and uncompromising performance that
is tailor-made for both first-time users and
real-time PCR experts. By utilizing the full range
of TaqMan® gene
expression and genotyping assays, the StepOne System
delivers the kind of high-quality results you've
come to expect from the leader in real-time PCR. The
StepOne System provides the power and flexibility
experienced users demand, while its intuitive
software guides new users through experimental
design, operation, and analysis. Part of an elegant,
optimized system solution for real-time PCR that
includes software, reagents, and instrumentation,
the StepOne System delivers remarkable performance
with remarkable ease-of-use, at a price that can
only be described as...remarkable.
- Easy to use software helps you set up
your experiments and get results quickly
- Fast runs (<40 minutes) and standard
runs (<2 hours) with one block
- Flexible configurations for PC-free or
networked environments
- Preloaded and precalibrated to get you up
and running fast
- Small, space-saving footprint
- Supports real-time PCR applications
* The StepOnePlus™ Real-Time PCR System
Upgrade is an easy upgrade solution for your
StepOne™ System. You can go from 3 colors and 48
wells to 4 colors and 96 wells in no time at all.
StepOnePlus™ Real-Time
PCR System
The Applied Biosystems®
StepOnePlus™ Real-Time PCR System, makes it simple
and easy to get high-quality real-time PCR results.
This remarkably simple 96 well, 4 color, real-time
PCR system is designed with a user-friendly, yet
powerful, interface for researchers of all
experience levels.
- Intuitive, flexible software and wizards
guide new users through their real-time PCR
experiments in three easy-to follow steps
- 4-color/96-well format delivers precise,
quantitative real-time PCR results
- Long-life LED-based optical system
records fluorescence from FAM™/SYBR® Green,
VIC®/JOE™, ROX™ and NED/TAMRA™ dyes for gene
expression analysis, pathogen detection, SNP
genotyping, and presence/absence assays
- One block performs both standard runs in
under 2 hours and fast PCR reactions in less
than 40 minutes
- Ultra-compact footprint fits any
laboratory setting
- LCD touchscreen and USB drive provide
configuration flexibility and enable PC-free
operation
- Remote monitoring and email notification
for convenience and time-savings
- VeriFlex™ Block technology brings six
independently controlled peltier blocks together
for precise temperature control and enhanced PCR
functionality
Remarkably Simple System
The StepOnePlus™ system brings advanced
real-time PCR technology to a new level of
accessibility. Beginning at the StepOnePlus software
homepage, you can seamlessly navigate through all
aspects of the real-time PCR method including sample
and reaction set-up, thermal cycling, and
fluorescent detection. Focused application software
analyzes and interprets experimental results.
Depending on the experimental design, the system can
even help you select and order real-time PCR
reagents online by means of convenient links in the
Design Wizard.
Simply Remarkable Results - Because
the StepOnePlus system is factory-calibrated for
optical and thermal accuracy, simply remarkable
real-time PCR results are available right out of the
box. It can discriminate between 2 populations of
5,000 and 10,000 template copies of a TaqMan® Assay
with 99.7% confidence.
Applications and Software Analysis
The StepOnePlus System supports any real-time
PCR application.
- SNP Genotyping
- Gene Expression Profiling
- MicroRNA Expression
- Translocation Analysis
- Gene Detection
- Viral Load Analysis
Software for StepOne and StepOnePlus systems
supports a variety of analysis methods, including:
- Absolute Quantitation
- Standard Curve
- Relative Quantitation
- Relative Standard Curve
- Comparative CT (∆∆ CT)
- Presence/absence (Plus/Minus) assays with
an internal positive control
- Melt curve analysis
- Genotyping (including real-time
amplification)
Software
Instrument software for the Applied Biosystems®
StepOne Real-Time PCR System runs on the Windows XP®
operating system and provides instrument control,
data collection, and data analysis. This
user-friendly and intuitive software package
includes the following features:
- Experimental design wizards to help you
design and set up experiments.
- Pipetting protocols and recipes to
quickly set up experiments.
- Advanced setup for expert users who
require flexibility for more complex
applications, such as multiplexing.
- QuickStart setup so that you start a run
immediately and enter plate information at a
later time.
- Real-time monitoring of amplification
growth curves enables you to view run progress.
- Remote real-time monitoring so that you
can monitor progress from a remote PC.
- Email notifications to alert you when a
run has started or ended.
- Auto-baseline and auto-threshold for
simplified data analysis.
- Automated SNP genotype calling capability
with intuitive graphical output and
quality-value assignment.
- Tool tips for easy identification of
sample wells when viewing amplification curves
or SNP genotyping plots.
- Troubleshooting flags to help you
diagnose and solve problematic experiments.
- Multiple plots view so that you can
simultaneously assess data from four different
perspectives.
- Easy cut and paste functionality.
- Export easily to PowerPoint, Excel, and
graphical images
read
more
download
StepOnePlus brochure
The
7500
Fast Real-Time PCR System
The Applied Biosystems 7500 FAST Real-Time
PCR System is a versatile, leading edge platform
offering enhanced performance capabilities and a
future upgrade to high speed thermal cycling.
- Variable excitation and five-color
detection enable you to use a broad range of
fluorophores including FAM™/SYBR® Green I,
VIC®/JOE, NED™/ TAMRA™/ Cy3™, ROX™/Texas Red®,
and Cy5™ dyes for precise results
- Supports 96-well format plates and 0.2 mL
tubes.
- Powerful, versatile software including
plate set-up wizards and automated analysis
tools make data processing simple and
straightforward
- Advanced data viewing capabilities and
automated analysis tools enable simple and
straightforward data processing
The ViiA™ 7 Dx Instrument puts high-productivity qPCR
at your fingertips. With the new OptiFlex™ optical
system and 4 interchangeable block formats from
96-well to 384-well to TaqMan® Array Micro Fludic
Card, the ViiA™ 7 is available for in-vitro
diagnostics use.
Key
product
features:
- Proven Applied Biosystems reliability and
accuracy.
- Using with TaqMan® Array Micro Fluidic
Cards provides an integrated workflow and faster
results.
- Easy to use—intuitive software, responsive
touch-screen, effortless block exchange without
the need for any tools.
Productivity
Ideal for performing medium- to high-throughput
real-time PCR, the ViiA™ 7 Dx Instrument enhances your
lab’s productivity.
- Quick block changes: Front access makes it
easy to change thermal cycling block formats
without having to move attached peripherals such
as robots or computers.
- Easy touch-screen interface: Instrument
touch screen provides one-touch protocols for fast
and easy assay setup for a broad range of
applications.
- Peace of mind: Data recovery capability for
100+ runs.
Performance
The ViiA™ 7 Dx Instrument features the new
OptiFlex™ System, which provides enhanced fluorescence
detection.
- Maximum multiplexing: Six decoupled
excitation and emission filter channels for the
greatest number of dye combinations and maximum
multiplexing capabilities.
- Flexible data collection: Multiple ramp
method detection formats provide more flexibility
for collecting data during a ramp stage.
- Precise quantification: Detect as small as
1.5–fold changes in target quantities in
singleplex reactions.
ViiA™
7 Software
ViiA™ 7 software drives value in a number of
ways, offering:
- Intuitive interface and innovative design
- Convenient walk-away operation
- Improved data analysis
- Fully compatible with high-throughput
environments
QuantStudio® real-time PCR & digital
PCR systems
Flexibility. Versatility. Speed. Precision. Everyone’s
needs are unique and that’s why we have expanded the
QuantStudio® family of real-time PCR &
digital PCR systems. Now you can pick the qPCR
platform that best fits your research
requirements—find your fit today.
The QuantStudio® 6
Flex Real-Time PCR System is ideal for
laboratories with multiple applications and end users
on a limited budget. With a planned upgrade path to a
QuantStudio® 7 Flex System that accommodates
automation or TaqMan® Array Cards, the QuantStudio® 6
Flex System is an ideal qPCR platform to accommodate
changing future needs.
The QuantStudio® 7
Flex Real-Time PCR System delivers the proven
reliability, sensitivity, and accuracy of the ViiA™ 7
System in a new industrial design. The QuantStudio® 7
Flex System has been optimized to enable the broadest
range of quantitative PCR applications, with
additional dyes, formats, and automation options.
Combining flexible throughput capabilities with a
streamlined workflow, the QuantStudio® 12K Flex system takes you
from targeted discovery through confirmation and
screening, all on a single platform. Increase your
throughput by as much as 32-fold by running 4
OpenArray® plates in a single run on the QuantStudio®
12K Flex system. It's the equivalent of 32 traditional
384-well qPCR plates or 12,000 data points. When
equipped with the OpenArray® block, a single 9700
thermal cycler and the QuantStudio® 12K Flex
OpenArray® AccuFill™ System, the QuantStudio®
12K Flex system can produce up to 110,000 data points
or more in an eight-hour day. For those that need the
greatest throughput, add the QuantStudio™ 12K Flex
Automation Robot and multiple 9700 thermal cyclers,
and you can achieve over 2,000,000 data points in a
day. Start a 12,000 data point experiment typically in
20 minutes or less.
Now, you can go beyond the limits of real-time PCR
with the new QuantStudio®
3D Digital PCR System. A simple and
affordable platform, the QuantStudio® 3D Digital
PCR System produces absolute quantification data with
the precision and sensitivity you need for your more
demanding applications. The QuantStudio® 3D
Digital PCR System uses a sealed chip technology,
providing a streamlined, reliable, and robust method
for performing digital PCR. An affordable platform
where you can just load and go—digital PCR is now
absolutely attainable.
LightCycler Nano
& LC2.0 &
LC96 & LC480 &
LC1536
The LightCycler™ from Roche Molecular
Biochemicals of Indianapolis harnesses light
technology licensed from Idaho Technology Inc. of
Idaho Falls, and then adds some additional bells and
whistles, such as a built-in microvolume
fluorimetric detection system that enables real-time
quantitative PCR. This system employs thin-walled
glass capillary tubes, and typical PCR experiments
can be performed in less than 30 minutes. Currently,
this system supports two fluorescence-based methods
for the detection of amplification products: the
"general" DNA stain SYBR Green I (a product of
Molecular Probes of Eugene, Ore.), or
sequence-specific hybridization probe pairs. SYBR
Green I exhibits very little fluorescence when free
in solution; emission is greatly enhanced when it
binds to the minor groove of the DNA double helix.
Prior to amplification, the reaction mixture
contains the denatured DNA, the primers, and the
dye. The low-level background fluorescence signal
generated by the unbound dye molecules is subtracted
during computer analysis. After annealing of the
primers, a few dye molecules can bind to the double
strand. During elongation, more and more dye
molecules bind to the newly synthesized DNA,
resulting in dramatically increased light emission.
If the reaction is monitored continuously, this
increase in fluorescence can be viewed in real time.
After denaturation of the DNA during the next
heating cycle, the dye molecules are released and
the fluorescence signal falls. A fluorescence
measurement is performed at the end of the
elongation step of every PCR cycle to monitor the
increasing amount of amplified DNA. The
hybridization probe format employs two specially
designed, sequence-specificoligonucleotides lab-eled
with fluorescent dyes. One oligonucleotide probe
carries a fluorescein label at its 3' end; the
other probe carries a different label (LC Red 640 or
LC Red 705) at its 5' end. The chemical nature of
the hybridization probes prevents their extension:
one probe contains fluorescein at the 3' end,
whereas the 5'-labeled probe contains a 3' phosphate
moiety. The sequences of the two oligonucleotides
are selected so that they hybridize to the amplified
DNA fragment in a head-to-tail arrangement. When the
oligonucleotides hybridize in this orientation, the
two fluorescent dyes are positioned in close
proximity to each other. The first dye (fluorescein)
is excited by the LightCycler's light emitting diode
(LED) filtered light source, and emits green
fluorescent light at a slightly longer wavelength.
When the two dyes are in close proximity, the
emitted energy excites the dye attached to the
second hybridization probe, which subsequently emits
red fluorescent light at an even longer wavelength.
This energy transfer, referred to as fluorescence
resonance energy transfer (FRET), occurs efficiently
only when the dyes are in close proximity (a
distance between 1-5 nucleotides). Thus, in this
type of assay, fluorescent intensity measurements
are made after the annealing steps. The increasing
amount of emitted fluorescence is proportional to
the increasing amount of DNA generated during the
linear phase of the ongoing PCR process.
LightCycler 480 System
Roche
Applied Science’s cutting-edge real-time
PCR technology - now available for
high-throughput applications
The
LightCycler
480 Real-Time PCR System is a fully integrated
multiwell-plate based real-time PCR platform for
highly accurate qualitative and quantitative
detection of nucleic acids. Building on the benefits
of Roche's capillary-based LightCycler® Systems, it
goes one step further in offering enhanced
throughput, compatibility with automation equipment
and maximum flexibility regarding hard- and
software.
Providing novel ways to combine speed and accuracy
without compromises, the LightCycler® 480 Real-Time
PCR System meets the needs of a broad range of
applications in research fields such as gene
expression studies, discovery and analysis of
genetic variation or array data validation.
LightCycler® 480 Real-Time PCR System benefits
SPEED & ACCURACY
- Benefit from novel thermal cycling and
data capture technologies to achieve outstanding
temperature homogeneity and assay
reproducibility.
- Increase the sensitivity and yield of
your real-time PCR applications, with robust
LightCycler® 480 reagents and specially
engineered clear or white consumables.
- Analyze true raw data, breaking free from
the need to use passive reference dyes or
normalization plates to get accurate results.
VERSATILITY & CONVENIENCE
- Flexibly switch between 96- or 384-well
plate formats, exchanging thermal block cyclers
in just a few minutes with no recalibration
time.
- Select from numerous assay formats and
detection dyes, expanding the range of real-time
PCR applications in your lab.
- Benefit from the intuitive and
user-friendly Roche software interface.
COMPATIBILITY & SECURITY
- Take advantage of the automation
capabilities of the LightCycler® 480 System,
integrating it as part of a LIMS in combination
with robotic pipetting and plate loading.
- Conveniently analyze gene expression or
genotyping data using a broad range of basic and
advanced methods.
- Know that your data are protected, using
a system compatible with 21 CFR part 11
requirements
Gene Scanning by High
Resolution Melting Curve Analysis generally
requires the use of:
- a special generic DNA dye that works at
high, saturating concentrations without
inhibiting PCR and therefore leads to
homogeneous staining of homo-or heteroduplex DNA
- an instrument with suitable
excitation/emmission wavelengths, high data
acquisition rates, and outstanding temperature
homogeneity
- a software algorithm that analyzes the
shape of the melting curves and groups those
that are similar.
In a Gene Scanning
experiment, sample DNA is first amplified via
real-time PCR in the presence of a proprietary
saturating DNA dye. A melting curve is then
performed using high data acquisition rates, and
data are finally analyzed using a Gene Scanning
Software, by three basic steps:
- Normalization: the
pre-melt (initial fluorescence) and post-melt
(final fluorescence) signals of all samples are
set to uniform, relative values from 100% to 0%
- Temperature
shifting: the temperature axis of the
normalized melting curves is shifted to the
point where the entire double-stranded DNA is
completely denatured. Samples with heterozygous
SNPs can then be easily be distinguished from
the wild type by the different shapes of their
melting curves.
- Difference
Plot: the differences in melting
curve shape are further analyzed by subtracting
the curves from a reference curve. This helps
cluster samples automatically into groups that
have similar melting curves (e.g., those who are
heterozygote as opposed to homozygotes).
High-resolution
melting curve analysis on the LightCycler 480
PCR system (presented by
Roche Aplied Science)
Roche Applied Science´s LightCycler® family of
real-time PCR systems offer fast, accurate and
versatile platforms for genetic
variation research. The new plate-based LightCycler®
480 System provides the temperature
homogeneity and optical characteristics required for
high-performance melting-curve analysis
(MCA). On the level of data acquisition and
available detection channels, this new instrument opens
the way to more advanced applications in the
emerging field of gene scanning where amplicons can
be screened for unknown sequence variations with low
efforts in time and cost.
The LightCycler®
480 real-time PCR system: a versatile platform
for genetic variation research
Real-time PCR is a well established technique for
studying genetic variation using various probe-based
methods for genotyping as well as high-resolution
analysis of whole amplicons melted in the presence
of saturating DNA dyes. The latter, relatively new,
method allows screening for unknown mutations or DNA
modifications. The LightCycler® 480 real-time PCR
system is a multiwell plate–based instrument that
provides integrated applications for detecting and
characterizing genetic variation using all these
methodological approaches.
Transfering
PCRs
to
HRM-assays on the LightCycler 480 System- Examples
for BRCA1
High-resolution melting curve analysis (hrMCA) is an
attractive technique to scan for unknown mutations
in genes. To evaluate how easy or difficult it is to
design hrMCA assays using the LightCycler® 480
Instrument, we selected 3 different fragments in
exon 11 of the BRCA1 gene, designed an MCA assay,
and tested its sensitivity to detect known variants.
Rapid
high-throughput Methylation analysis using the
LightCycler 480 system (presented by Roche Aplied Science)
Large-scale, PCR-based gene analysis can only be
performed if signals are generated, captured and
analyzed in a highly reproducible manner. More
precisely, thermal control, optical readout and the
algorithms used to characterize genes qualitatively
and quantitatively have to be highly precise and
reliable. The LightCycler® 1536 System from Roche
Applied Science meets these requirements. The novel
platform, which utilizes a proprietary 1536-well
plate, is capable of performing high-speed,
qPCR-based DNA/RNA analyses in an array-like format.
High Throughput — Redefined
Break through to a new era in high-throughput
real-time PCR with the powerful LightCycler® 1536
System, precisely engineered for miniaturization and
parallelization.
- Increase throughput fourfold - Generate
1,536 data points in a single run in less than
50 minutes.
- Make the most of your resources - Use
significantly less reagent and sample with
reaction volumes of just 0.5-2.0 µl.
- Generate PCR data you can trust - Ensure
research continuity with this extension of
proven plate-based technology.
- Easily integrate into your existing
workflow - Take advantage of this streamlined
system, specifically designed for automation and
high-throughput.
For life science research only. Not for use in
diagnostic procedures.
LightCycler
Nano system - Serious PCR. So much Fun!
A small yet
complete system with all features you've come to
expect from LightCycler® Instruments
1. The LightCycler® Nano Instrument
produces high target specificity with high
sensitivity characteristic of all LightCycler®
Systems.
2. Fast protocols use state-of-the-art,
32-well thermal cycler technology for excellent
thermal precision.
3. Robust solid-state optics provide
complete spectral information.
Learn
more
about LightCycler® Nano System features
Sleek, built to
enjoy in every lab, on every bench
1. Small enough for plenty of space on
your benchtop.
2. Experience ease-of-use with flexible
workflows.
3. Easily install using plug and play.
4. So quiet. You won't know it's
running if it wasn't for the light show.
5. Intuitive software from assay setup
to analysis.
See
the
LightCycler® Nano System Gallery
Great looks meets
fast, sensitive and accurate qPCR
1. The LightCycler® Nano System
embodies experimental freedom.
2. The instrument uses standard 8-tube
PCR strips that come with caps.
3. Flexible reaction volumes permit
different levels of sensitivity.
4. Proven reagents for SYBR Green or
probe-based assays are available.
5. Use different methods for
quantification and mutation analysis, including HRM.
6. Use your preferred operating system,
Mac OS or Windows, or go standalone with a USB flash
drive.
See
the
LightCycler® Nano System performance data
LightCycler
96
The
LightCycler®
96 Instrument is a real-time PCR
system for rapid cycling up to 96 samples.
Applications include absolute and relative
quantification, melting curve analysis, and
endpoint genotyping. Precise LightCycler® 96
Instrument thermal homogeneity and cycling
speed produce accurate and reproducible
results in a very short time.
The LightCycler® 96 Instrument’s optical
detection system flexibly detects
sequence-dependent probes, such as
hydrolysis probes and sequence-independent
dyes (i.e., SYBR Green I). Multiplex and
multicolor capabilities permit the use of up
to four different fluorescent dyes. New
innovative LightCycler® 96 Application and
Instrument Software creates a simple
analysis workflow with easy import and
export functions, email notifications after
each run, online monitoring flexibility, and
server-based network interfacing.
Features:
- Plate-based real-time PCR system
with 96-well block
- Temperature gradient (assay
optimization)
- Standalone system (integrated PC)
- Touchscreen with separate
instrument software (free to load on any
PC)
- Dynamic range of 10 log
- Sensitivity of one copy
- 4-plex multicolor
- Runtime of less than 1 hour
- Applications: Absolute
Quantification, Relative Quantification,
Endpoint Genotyping, Melting Curve
Analysis
- Intuitive state-of-the-art
software
- PC analysis software can be
loaded free of charge on any PC
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Obtain fast,
highly sensitive, and reproducible results
for qualitative and quantitative detection
of nucleic acids and SNP analysis with the
versatile, plate-based LightCycler® 96
System:
- Benefit from a cutting-edge,
low-mass thermal block design that
offers excellent well-to-well
homogeneity for a broad range of
temperatures, and access to gradient
features. The electroforming production
process allows a perfect fit of the
96-well plate (negative structure) to
the block (positive structure, formed by
a galvanic reaction) and avoids air
cushions in between both.
- Maximize sensitivity and speed
using novel optics (combining sturdy
glass fibers with high-intensity
broad-spectrum LEDs), and obtain
simultaneous detection of all wells
within milliseconds.
- Install the software on any PC
for free, with no license requirements,
and run the system according to your
specific needs:
- Standalone, using a flash drive
to transfer data
- Connected to a PC
- Connected to a PC network via
Ethernet
- Experience advanced software
features, such as on-line real-time
remote monitoring, e-mail notification,
heat-maps, wizards, and many more
options to operate the intuitive and
easy-to-use software.
- Extract meaningful data via
state-of-the-art analysis methods, then
easily export results in a
ready-to-publish format (RDML).
- Choose the optimal type of
LightCycler® 480 Multiwell Plate or
8-Tube strips (white, recommended) or
clear to best fit your assay format,
application, and workflow.
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Idaho Technology
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LightScanner®
32
System
- Highest temperature control Hi-Res
Melting® Instrument
- qPCR results in under 30 minutes
from those who pioneered qPCR
- Dual fluorimeter
- 2nd fluorimeter is for Hi-Res
Melting and optimized for LCGreen® Plus
- 3 channel qPCR fluorimeter
- 32 sample carousel using standard
Roche glass capillaries for fastest
chamber-to-sample temperature transition
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RapidCycler® 2
System
This instrument was the world’s first rapid
cycling PCR machine and was a collaboration
with the University of Utah and Idaho
Technology. While not a real-time PCR
instrument itself, the success of its rapid
cycling technology led to the original
LightCycler® with thousands of air-based rapid
qPCR machines still in use today. For more
info on the theory behind rapid cycling see
this link http://dna.utah.edu/RapidPCR/Top_Rapid_PCR.html
The RapidCycler 2 uses 1.5 mm Roche
LightCycler® capillary tubes which are ideally
suited for high-speed temperature cycling due
to their thin walls and extremely high
surface-are-to-volume ratio.
By combining glass capillary tubes and air as
the cycling medium we have cut sample
temperature lag to less than a second,
therefore yielding high temperature ramp
rates. Inside RapidCycler's cylindrical
reaction chamber, tornado-like conditions
ensure both temperature uniformity and rapid
heat exchange within the sample. this allows
the RapidCycler to spend less than one second
at the high and low temperatures and still be
certain that each sample has reached the
target temperature.
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LightCycler
The original LightCycler was
licensed to Roche and is no longer sold by
Idaho Technology.
LightCycler Software
For use with Idaho Technology's LightCycler
Instrument only
Contact us for support or information.
Instructions: To obtain a copy of our latest
LightCycler 24 & 32 software, contact us
directly by e-mail or phone (801) 736-6354 x
349. Please have the serial number of your
machine ready.
For a history of the exciting University of
Utah / Idaho Technology partnership that
brought you rapid real-time PCR in the same
year as the “big guys” see this link. http://dna.utah.edu/LightCycler/Top_LightCycler.html
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