Reduces PCR reaction time from 2 hours to as little as 25 minutes

Constructed with ultra-thin and consistent wall thickness to allow precise thermal transfer for optimum results. Axygen™ 96-well PCR Microplates are the ideal option for use in PCR thermal transfer and Real-Time PCR applications.

Ideal for extreme applications such as multiple heat sealing

Compatible with most 0.2mL thermal cyclers and ABI PRISM™ 310, 3100, and 3700 capillary sequencers

96-well semi-skirted PCR plates with a flat deck for improved sealing in PCR and qPCR applications.

Optimize PCR and qPCR applications with these 96-well non-skirted plates, available with black lettering for improved sample tracking during pipetting.

Designed to provide unmatched temperature accuracy and uniformity for fast, efficient PCR amplification

Designed to provide unmatched temperature accuracy and uniformity for fast, efficient PCR amplification

96-well non-skirted plates for use in PCR and qPCR applications. Available with black lettering for improved sample tracking during pipetting.

Ideal solution for work that requires special handling and an even greater degree of durability for use with multi-instrument experiments

Optimized to provide unmatched temperature accuracy and uniformity for fast, efficient PCR amplification

Constructed with ultra-thin and consistent wall thickness to allow precise thermal transfer for optimum results. Corning™ Axygen™ 96-well PCR Microplates are the ideal option for use in PCR thermal transfer and Real-Time PCR applications. The low profile design results in faster and more efficient PCR reactions.

Ideal solution for work that requires special handling and an even greater degree of durability for use with multi-instrument experiments

Low profile 96-well plates for use in PCR and qPCR applications.

Ideal solution for work that requires special handling and an even greater degree of durability for use with multi-instrument experiments

Fit most thermal cyclers

Single use polycarbonate/polypropylene plates allowing trained specialists to perform PCR and cycle sequencing experiments. Eppendorf™ twin.tec™ 96 Well LoBind PCR Plates are used for PCR in applications including training, routine, and research laboratories in the bioscientific, industrial, and chemical fields

Single use polycarbonate/polypropylene plates allowing trained specialists to perform PCR and cycle sequencing experiments. Eppendorf™ twin.tec™ 96 Well LoBind PCR Plates are used for PCR in applications including training, routine, and research laboratories in the bioscientific, industrial, and chemical fields

Directly compatible with all major thermal cyclers, including ABI instruments—can be used in ABI 96-well sequencers without adapters

96-well full-skirted PCR automation compatible plate for use in PCR and qPCR applications.

Pre-scored to break apart into four 24 well sections. Corning™ Axygen™ 96-wewll Segmented PCR Microplates are a versatile choice for thermal cycling.

Designed to hold MicroAmp Reaction Tubes in Tray/Retainer Sets or MicroAmp 48- and 96-Well Plates for convenient use in pre- and post-PCR sample processing

Constructed of medical grade polypropylene to accommodate wide temperature changes that might occur from storage to thermal cycling. Corning™ Thermowell™ 96-Well Polypropylene PCR Microplates are ideal for the polyerase chain reaction (PCR) method of DNA amplification.

Designed to provide unmatched temperature accuracy and uniformity for fast, efficient PCR amplification

Ideal solution for work that requires special handling and an even greater degree of durability for use with multi-instrument experiments

Reduce well-to-well variability with 384-Well PCR Plate Full Skirted PCR Plates, thin walled for efficient heat transfer and compatible with most major thermal cyclers.

Available in full, half, and elevated skirt styles

Manufactured from ultrathin polycarbonate for fast, consistent heat transfer. Corning™ Thermowell™ 96-Well Polycarbonate PCR Microplates are ideal for the polyerase chain reaction (PCR) method of DNA amplification.