The fully automated biochemical immunoassay pipeline system includes specimen pre-processing, offline sample cupping, biochemical immunoassay detection, and high-capacity specimen storage. During the operation of the fully automated biochemical immunoassay pipeline, the staff only needs to place specimen tubes containing blood or urine samples with barcodes on the conveyor belt. The robotic arm will automatically pick up the tubes, scan the barcodes one by one, and transport the tubes to various testing instruments on the track for automatic sample testing. Throughout the pipeline, from sample identification, transportation, project classification, sample addition, and testing to automatic specimen storage after analysis, automatic analysis, reporting, and transmission of test results, automatic alerting of abnormal test results, and real-time result inquiries, the entire process has been automated and networked.

In the fully automated biochemical immunoassay pipeline, both biochemical reactions and enzyme markers require constant temperature conditions. Higher temperatures can reduce enzyme activity, catalytic efficiency, and reaction rate. Lower temperatures can extend the stability of enzyme-labeled reagents and antibodies, accelerate biochemical reactions, enhance sensitivity and specificity, and shorten the overall detection time. 

Semiconductor cooling is a high-precision, high-efficiency cooling method that offers advantages such as low noise, long lifespan, and suitability for continuous long-term operation. Thermoelectric cooler assemblies can be independently deployed at different nodes of the fully automated biochemical immunoassay pipeline, facilitating integration and providing a wide range of precise temperature control, effectively achieving a low-temperature environment and precise experimental conditions.