DX Fluidics products

Droplet microfluidic chips represent a significant advancement in microfluidic technology by facilitating complex biological and chemical experiments through the precise control of droplets on a micron scale. Integrating microfluidics with chemical analysis and biology, these chips automate and miniaturize experiments, enhancing laboratory research and clinical diagnostics. The core technology involves the division of liquids into droplets within micron-sized channels, allowing for precise control over mixing, reactions, and separation of samples, reagents, or drugs within the chip. Their wide-ranging applications include biomedical research, chemical synthesis, diagnostics, and environmental monitoring. In biomedical research, they enable high-throughput assays like gene sequencing. In chemical synthesis, precise reaction control accelerates drug development. Microfluidic chips also improve biomarker detection in diagnostics and pollutant separation in environmental monitoring. Despite challenges in technical complexity and material compatibility, droplet chips offer high integration, automation, and cost-effectiveness, promising transformative impacts in science and medicine.

The desktop microlithography machine by Top Asahi is engineered for micron-level precision in patterning applications. It employs a UV LED cold light source paired with a double aspherical quartz lens, resulting in parallel light with a half angle less than 2°. This feature, combined with its ultra-compact size fit for desktop placement, enhances convenience and accuracy. Ideal for microfluidic chips, MEMS devices, optoelectronics, and surface acoustic wave devices, this machine is particularly effective in research settings for universities, institutions, and enterprises exploring microfabrication processes. It supports various silicon wafer sizes and photomask dimensions and features a user-friendly interface for setting and monitoring exposure parameters. This technologically advanced machine aims to foster precision and innovation in micro and nanoprocessing projects.

The Hot Press Bonding Machine designed for the preparation of microfluidic chips is specifically used for bonding plastic chips (such as PMMA, PC, COC, etc.) to achieve chip encapsulation and integration. This bonding machine employs vacuum hot press technology, characterized by high efficiency, precision, and reliability, making it suitable for various packaging and integration requirements.

A syringe pump is a device for controlling precise liquid flow and flow rate based on a stepper motor as a drive source. It typically consists of a stepper motor, a pump head and a controller. The stepper motor provides precise speed and position control, the pump head is used to push the fluid into the line, and the controller controls the angle and speed of motor rotation.