MJ Research PTC-200 DNA-Engine Dual 30 Well Thermal Cycler, -5 to 105C
MJ Research
Details
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CategoryMolecular Biology
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Dimension24.0in x 24.0in x 24.0in
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SerialN/A
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Shipping TypeFedEx Ground
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ManufacturingDoes Not Apply
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Voltage / HertzDoes Not Apply / Does Not Apply
Description
The MJ Research PTC-200 DNA Engine, alternatively known as the Bio-Rad PTC 200, is a versatile Peltier thermal cycler ideal for reliable DNA amplification processes. Crafted for precision, it accommodates various formats with its Hot Bonnet heated lid that regulates pressure and height, minimizing the need for oil. This thermal cycler features Peltier-effect heat pumps enabling efficient cycling, with interchangeable blocks and pump assemblies enhancing experimental flexibility and maintaining NIST-traceable accuracy. It supports significant data storage, organizing up to 400 programs and 12 individual folders, and provides connectivity through RS232, IEEE-488, and parallel printer ports. Although in fair used condition with minor cosmetic issues, this cycler remains functional but untested and includes a power cord. With a thermal range of -5 to 105 degrees Celsius, and known for its accuracy and uniformity, the PTC-200 remains a top choice in laboratories for robust DNA synthesis.
Key Features
- Peltier-effect heat pumps
- Accommodates various plastics
- Oil-free cycling
- Interchangeable sample blocks
- Supports 400 programs
- RS232, IEEE-488, and parallel ports
Specifications
- Thermal Range: -5C to 105C
- Thermal Accuracy: ±0.3C of target at 90C
- Thermal Uniformity: ±0.4C well-to-well
- 80-character LCD display
- 9-pin RS-232 serial port
- 20 x 4 LCD alphanumeric display
- Weight: 25lbs
Weight
Imperial: 33.6 Pounds
Metric: 15.24 Kilograms
Shipping Dimensions
Imperial: 28.8 lb x 28.8 lb x 28.8 lb
Metric: 73.15 cm x 73.15 cm x 73.15 cm
Harmonized Code
902750
Harmonized Code Details
902750 – Instruments and apparatus using optical radiations (UV, visible, IR). This code aligns with the scientific functionality of the thermal cycler in DNA amplification processes.
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