Fractured rock simulation microfluidic chip

The fractured rock chip is an advanced microfluidic technology designed to simulate fluid migration processes in fractured rock formations. This innovative experimental platform has garnered widespread attention not only in the field of geology but also demonstrates significant potential in areas such as petroleum engineering and water resource management.

Nano-lipid particle (LNP) synthesis micro-mixing chip

Microfluidic mixing chip for the synthesis of nano-lipid particles

Organ on a chip

"Organ on Chips (OOC)" refers to the use of microfluidic chip manufacturing technology to construct miniature "high-rise buildings" that mimic the major structural features and complex interconnections between different tissues and organs of the human body. Researchers implant various target cells into these structures to create environments resembling real organs. Organ on Chips enable researchers to conduct personalized medical research, including drug screening experiments, disease studies, cell interaction assays, blood-brain barrier tests, and the construction of glomerulus nephritis systems, among other individualized medical-related tasks.

Micro-mixing chip for nanoparticle synthesis

A microfluidic mixing and nanoparticle synthesis chip is an integrated microfluidic device specifically designed for precise control and mixing of small volumes of liquids and the synthesis of nanoparticles. By incorporating tiny channels and reaction chambers on the chip, this device achieves efficient liquid mixing and reaction control on a microscale. This type of chip can produce uniform nanoparticles in a very short time and is widely used in materials science, drug delivery, and diagnostics. Its efficiency, reproducibility, and low cost make it an important tool for nanoparticle synthesis and microscale reaction research

Flow-focusing droplet microfluidic chip

low-focusing droplet generation is a technique used in microfluidics to produce uniform and monodisperse (uniform in size) droplets. It involves controlling the flow of two immiscible fluids (typically oil and water) in a microchannel device.

T-junction structure microfluidic droplet chip

The T-junction consists of two perpendicular channels forming a "T" shape. One channel (the main channel) carries the continuous phase (usually oil), and the perpendicular channel (the side channel) carries the dispersed phase (usually an aqueous solution).

Simulation using Comsol

Self-developed droplets generate oil

Sodium alginate microsphere fabrication

Inertial flow focusing microfluidic chip

An inertial flow focusing microfluidic chip is a device that utilizes the inertial forces of fluids to focus and manipulate particles or cells. Through precisely designed microchannels, particles in the fluid are focused to specific positions under the influence of inertial forces, achieving efficient particle separation and manipulation. This type of chip has broad applications in biomedical research, diagnostics, single-cell analysis, and high-throughput screening. Due to its simple operation and the lack of need for external force fields, the inertial flow focusing microfluidic chip has become an important research direction in microfluidic technology.

A portable wearable device for monitoring chronic wounds

A portable wearable device for chronic wound monitoring is an innovative medical tool that combines advanced sensor technology and data analysis capabilities.