IVD Precision with Self-Regulating Graphene Heating

Unparalleled Precision

Maintains a consistent, uniform temperature across the diagnostic area.

Reduced Variability

Minimizes temperature fluctuations that can compromise test results.

Enhanced Reliability

Ensures dependable performance for your critical diagnostic devices.

PCR Devices (Polymerase Chain Reaction)

• Challenge: Maintaining consistent and accurate temperature cycling during PCR amplification. Traditional heating methods often struggle to deliver uniform heating across the reaction chamber, leading to inconsistent DNA replication, inaccurate quantification, and unreliable results.
• Solution: Our graphene PTC heaters provide precise temperature control for each stage of the PCR cycle (denaturation, annealing, extension). The self-regulating properties ensure consistent temperatures across the reaction area, minimizing variability, improving amplification accuracy, and ensuring dependable diagnostic outcomes.

Biosensors

• Challenge: Enzyme reactions within biosensors are highly temperature-sensitive. Inconsistent temperatures can alter reaction rates, leading to inaccurate readings, false positives, or false negatives. Maintaining optimal temperatures for enzymatic activity is crucial for reliable biosensor performance.
• Solution: Our graphene PTC materials provide precise and stable temperature control for biosensors, ensuring optimal conditions for enzyme reactions. The self-regulating properties maintain the ideal temperature, regardless of ambient conditions, resulting in enhanced biosensor accuracy and reliability.

Microfluidic Devices

• Challenge: Microfluidic devices require uniform heating for precise sample preparation, reagent mixing, and reaction control. Inconsistent temperature distribution can compromise microscale reactions, leading to inaccurate results and device malfunctions.
• Solution: Our flexible graphene PTC heating films can be easily integrated into microfluidic devices, providing uniform heating across the microchannels and reaction chambers. The self-regulating properties ensure consistent temperatures, enabling precise control over microscale processes and reliable device performance.