Economical Gradient Thermal Cycler with Versatile Capabilities
TurboCycler Lite thermal cycler offers versatile capabilities at an affordable price, making it an ideal choice for routine PCR tasks. TurboCycler Lite comes with impressive features, including intuitive operation interface, gradient optimization, advanced slow-ramp temperature control and adjustable lid temperature.
Intuitive Operation ExperienceA sensitive capacitive touch keypad and an intuitive graphical interface
Gradient OptimizationThe thermal gradient function allows fast PCR optimization for new experiments
Advanced Slow-Ramp Temperature ControlThe ramp rate can be precisely controlled down to 0.1 °C/sec to meet the need for the CRISPR/Cas related assays
Fully Adjustable Lid TemperatureThe temperature can be set between 35 and 120 °C for virtually any type of experiment including NGS pre-treatment
Easy DisinfectionThe dust and aerosol proof keypad can be easily disinfected
Auto RestartPower failure recovery keeps the experiment safe
* Specifications are subject to change without prior notice.
Presence of quorum sensing system, virulence genes, biofilm formation and relationship among them and class 1 integron in carbapenem-resistant clinical Pseudomonas aeruginosa isolates
HGF/heparin-immobilized decellularized liver matrices as novel hepatic patches for hepatocyte regeneration in an acute liver injury model
Conductive Polymer PEDOT:PSS-Based Platform for Embryonic Stem-Cell Differentiation
The low-profile PCR vessel design reduces the overhead space above the reaction solution inside the vessel.
During thermal cycling, water in the solutions evaporates and fills the overhead space. This causes a concentration increase in the reacting solution.
The smaller the overhead space, the smaller the amount of evaporated water and concentration change in the solution. This is especially helpful when low volume reaction mixtures are being used.
In general, the low-profile PCR vessels are 5 mm shorter in height than the regular PCR vessels.
Use the compressor mat and set the lid heat to 120°C to maintain the pressure in the vessels.
Lid heating is used to avoid severe condensation in the PCR tubes during the reaction.
The amount of evaporation is related to the sealing of the PCR vessels. A firm pressure on the lid will help maintain the integrity of the seal and prevent evaporation.
The Lid heating does not cycle and the competitive units do not cycle either.
When the block temperature drops below 30°C, lid heating is turned off and the temperature of lid decreases gradually. Competitive units also do this.
Condensation inside the tube is caused by the temperature difference between the tube and the cycler. The tube temperature might remain at 4°C for a long time at the end of a run. This happens with all cyclers. It is like a bottle of water being put into a refrigerator; water always condenses in the neck.
The amount of water lost to the environment from a reaction vessel by evaporation depends on the integrity of the seal.
If the seal or the vessel cannot withstand the temperature cycling during the run, there may be deformation. This deformation may be serious enough to tear off the seal. Plates and seals of poor quality may deform enough to disrupt the seal. Low quality consumables should be avoided. It is essential that the plates and seals remain undeformed for the entire run.
The lid of the cycler needs to be heated to the proper temperature before the block starts to heat.
The delay will depend on the lid temperature setting, the room temperature, and how the compression mat has been used. Heating of the lid usually takes between 2 to 8 minutes.
When the power comes back on again after a “power-failure-during-a-run” event, the unit will start up and continue where it had stopped and run until the end of the protocol. This will happen as long as the power switch has not been touched in the meantime.
Also, if the power stays off for a long time, there will be a short delay (after the power comes back on) before the unit starts again. This is because it might take a minute or two for the lid to get back up to the right temperature.
After the lid module reaches its setting temperature, the protocol will be continued. This “Auto-restart after power outage” function has been specifically designed to protect the PCR experiment.
Yes! But we do not recommend this be done very often.
Running your cycler overnight at 4°C can potentially reduce the life cycle of the instrument. In most applications, 16°C instead of 4°C for overnight storage can protect your DNA sample very well.
Yes! There are two ramping rate options for the TurboCycler Lite, High and Low.
Hi for the full ramping power that will speed up your experiment and Low for 50% ramping power that can mimic the running conditions on some of the older generation cyclers.
There are three different temperature settings for the lid:
1. 120°C (for use with low-profile vessel + compression mat), with an extra 3 minutes of pre-heat
3. Heater off
There is only one block configuration for the TurboCycler Lite and TurboCycler 2 so far. They are not interchangeable.
However, if the block needs to be serviced it can removed and sent back to our factory for service.
The storage limits are:
-Protocol: 200 sets
-History: 50 sets
-User folder: 50 sets
When the storage of protocols has reached the limit, a message will remind the user to delete some protocols. The system will not overwrite existing protocols. However, when history storage reaches the limit, new histories will over-write the oldest.
-Block mode: Enables system operation with maximum temperature control based on the actual block temperature regardless of the sample temperature. This mode is designed to mimic the control algorithm used in most early model thermal cyclers.
-Sample mode: Enables system operation with simulated temperature control. Users are required to input the sample volume: 10-100μl. In this mode, the temperature control algorithm will estimate the sample temperature based on the block temperature and sample volume. This is the mode recommended for normal operation.