Automated cartridge enriches and amplifies microorganisms, resolving labor intensity and inhibitor interference in point-of-care diagnostics.
Segmented laminate chambers with insulating barriers enable rapid fluid transfer and thermal equilibration, reducing PCR cycle time by 11.5 times.
A metallic sample holder with an array of wells enables rapid thermal cycling for nucleic acid amplification tests.
Covered fluid feed slots seal microfluidic channels to reduce evaporation and prevent air bubble formation during nucleic acid testing.
A photothermal conversion film on a microscope slide generates heat to drive fluid convection.
Nanoparticles absorb optical energy to transfer heat locally, reducing amplification time and energy consumption.
A transparent vessel bottom cover features a convex column body that magnifies liquid content for direct visual inspection.
Automated fluidic handling and optical detection measure five oxidative potential endpoints in airborne particulates.
Consecutive hardware module testing minimizes energy consumption and reduces downtime during performance verification.
A modular assay system uses vertically stacked units with a shared robotic arm to enable portable, high-throughput biological analysis.
A target analysis chip uses a labeled probe to bind microRNA and centrifugal force to move the conjugate through a hydrophobic flow channel.
Air communication ports with filters block aerosolized DNA carryover during PCR sample movement.
Heating droplets via energy providing members neutralizes non-specific product signals to improve measurement precision.
Independent flow cells increase throughput while thermal management prevents temperature-induced optical disturbances.
Optical array qpcr thermocycler uses feedback control to resolve temperature profile accuracy issues while managing device complexity.