Polymerase chain reaction (PCR) is a technique widely used in molecular diagnostics. DNA is used as a template for replication. PCRs make it is possible to amplify a single copy of DNA and generate several million copies. The primary PCR method uses a thermal cycling technique, which rapidly heats and cools the DNA sample to a defined series of temperature steps.
Temperature stability is vital in medical/clinical diagnostic equipment such as reagent and centrifuge equipment. These machines require a light weight cooling solution with a compact form factor. Thermoelectric coolers used in thermoelectric cooler assemblies offer advanced temperature control in a small, lightweight package, while increasing reliability and lowering maintenance cost. Compared to compressor-based systems, refrigerant-free thermoelectric cooler assemblies deliver a more eco-friendly solution for temperature control of reagents.
Incubators used in hospitals and laboratories to grow and maintain cell cultures require precise temperature control. Due to the space constraints in incubators, thermal solutions must have a compact form factor. Incubator manufacturers also face challenges related to airflow, moisture, dust and ease of cleaning. Modern compressor-based refrigeration systems meet the sample storage chamber design requirements mentioned above.
Industrial scanning equipment like X-ray machines are used in a wide variety of applications, ranging from non-destructive evaluation looking for manufacturing defects and contaminants to scanning trucks or baggage to ensure safety and security.
Temperature stability is vital in medical diagnostic equipment such as reagent and centrifuge equipment. Even small fluctuations in the operating temperature of these machines can significantly affect the test results. In addition, small portable medical diagnostic machines are growing in popularity for point of care (POC) and lab on chip (LOC) testing devices. These machines require cooling solutions with a compact form factor and low weight.
The WL3004 is a re-circulating liquid to air heat exchanger that offers dependable, compact performance by removing large amounts of heat from a liquid circuit. The coolant is re-circulated using a high pressure pump to assure maximum flow rate. Heat from coolant is absorbed by a radiant heat exchanger and dissipated into the ambient environment using brand name fan. Manual adjustments can be made to control flow switch. Customized features are available, however, MOQ applies.
Electron microscopes are a powerful laboratory tool used to observe samples across many scientific disciplines. These advanced analytical instruments enable researchers to qualitatively and quantitatively analyze samples in fields like metallography, metrology, anthropology, zoology, epidemiology and more. Temperature control plays a dynamic role in ensuring the proper operation of electron microscopes.
面向娱乐应用的激光投影仪利用激光模块生成具有强大调色板和高达75,000 流明的 4K 分辨率图像。虽然商用激光投影仪迅速发展为更加节能的系统，但这些系统仍需要高达6kW 的功率才能生成明亮的高分辨率图像，而这是在电影院和体育场大型场馆进行投影所需要的。因此，高功率激光系统在运行期间会产生大量热量，如果这些热量处置不当会降低敏感的激光组件性能，包括激光模块（激光二极管和激光光学器件）、光学扫描系统和激光二极管驱动器电子设备等。这些系统需要稳定的温度控制，以确保正常的功能、长寿命运行和清晰的图像投影。在保持激光投影仪尺寸的同时，需要提高亮度和调色板分辨率，这给许多制造商带来了重大的热管理挑战。根据激光投影仪的类型，可以通过循环制冷器或带有热电制冷器的环境液体冷却系统来进行温度控制。
工业激光器应用于切割、焊接、微加工、增材制造和钻孔等多个领域，无论是何种应用，都会产 生大量热量。工业激光技术有多种不同类型，区别在于激光的功率密度及其用途。但各种激光系 统的共性在于都需要对电源和激光光学系统进行高级冷却，这些组件的温度稳定性对于确保激光 系统的性能和满足客户需求至关重要。
几十年来，工业激光系统一直在使用冷水机进行冷却。然而，新的行业制冷剂限制和性能要求促 使工业激光制造商采用更环保、更高效、免维护的冷水机解决方案。高效且环保的 Nextreme 循 环冷水机平台能够安静地将温度敏感部件冷却到环境温度以下，以确保最佳的激光性能，并能以 具有竞争力的成本帮助激光器厂家提供整体解决方案。