Microsensor MEMS foundry services provide specialized manufacturing capabilities for producing microelectromechanical systems (MEMS)-based sensors that detect physical, chemical, or biological changes at a microscale. These foundries offer end-to-end support—from design and prototyping to wafer fabrication and packaging—using advanced micromachining techniques on silicon substrates. Typical microsensors produced include pressure sensors, accelerometers, temperature sensors, and biosensors, which are essential in applications across healthcare, automotive, environmental monitoring, and consumer electronics. By leveraging precision processes and cleanroom environments, MEMS foundry services enable the scalable production of compact, high-sensitivity devices tailored to customer specifications.

High frequency high speed CCL (Copper Clad Laminate) is a specialized material used in the manufacturing of printed circuit boards (PCBs) that require superior electrical performance at high frequencies and fast signal transmission speeds. Composed of a copper foil bonded to a high-quality dielectric substrate, this laminate offers low signal loss, excellent insulation, and minimal interference, making it ideal for applications in telecommunications, aerospace, and advanced electronics. Its precise manufacturing and material properties ensure reliable signal integrity and thermal stability, supporting the demands of high-speed digital circuits and radio frequency (RF) components.

High frequency high speed CCL (Copper Clad Laminate) is a specialized material used in the manufacturing of printed circuit boards (PCBs) that require superior electrical performance at high frequencies and fast signal transmission speeds. Composed of a copper foil bonded to a high-quality dielectric substrate, this laminate offers low signal loss, excellent insulation, and minimal interference, making it ideal for applications in telecommunications, aerospace, and advanced electronics. Its precise manufacturing and material properties ensure reliable signal integrity and thermal stability, supporting the demands of high-speed digital circuits and radio frequency (RF) components.

Epoxy resin casting type busway is a high-performance power distribution system in which conductive busbars are fully encapsulated in epoxy resin to provide excellent electrical insulation, mechanical strength, and environmental protection. Designed for use in industrial facilities, commercial buildings, and power plants, this type of busway offers superior resistance to moisture, dust, chemicals, and fire, making it ideal for harsh or confined environments. The solid casting eliminates air gaps, reducing the risk of partial discharge and improving overall system reliability, safety, and longevity in medium- to high-voltage applications.

Epoxy resin casting type busway is a high-performance power distribution system in which conductive busbars are fully encapsulated in epoxy resin to provide excellent electrical insulation, mechanical strength, and environmental protection. Designed for use in industrial facilities, commercial buildings, and power plants, this type of busway offers superior resistance to moisture, dust, chemicals, and fire, making it ideal for harsh or confined environments. The solid casting eliminates air gaps, reducing the risk of partial discharge and improving overall system reliability, safety, and longevity in medium- to high-voltage applications.

Used semiconductor equipment refers to pre-owned machinery and tools that have been previously utilized in the manufacturing of semiconductor devices such as microchips and integrated circuits. These systems—ranging from wafer fabrication tools to packaging and testing machines—are refurbished, tested, and resold to semiconductor manufacturers, often providing a cost-effective alternative to new equipment. Used semiconductor equipment enables smaller fabs, startups, and research institutions to access advanced manufacturing capabilities at a lower capital investment. It also supports sustainability by extending the lifecycle of high-precision equipment and reducing electronic waste in the rapidly evolving semiconductor industry.

Used semiconductor equipment refers to pre-owned machinery and tools that have been previously utilized in the manufacturing of semiconductor devices such as microchips and integrated circuits. These systems—ranging from wafer fabrication tools to packaging and testing machines—are refurbished, tested, and resold to semiconductor manufacturers, often providing a cost-effective alternative to new equipment. Used semiconductor equipment enables smaller fabs, startups, and research institutions to access advanced manufacturing capabilities at a lower capital investment. It also supports sustainability by extending the lifecycle of high-precision equipment and reducing electronic waste in the rapidly evolving semiconductor industry.

Microsensor MEMS foundry services provide specialized manufacturing capabilities for producing microelectromechanical systems (MEMS)-based sensors that detect physical, chemical, or biological changes at a microscale. These foundries offer end-to-end support—from design and prototyping to wafer fabrication and packaging—using advanced micromachining techniques on silicon substrates. Typical microsensors produced include pressure sensors, accelerometers, temperature sensors, and biosensors, which are essential in applications across healthcare, automotive, environmental monitoring, and consumer electronics. By leveraging precision processes and cleanroom environments, MEMS foundry services enable the scalable production of compact, high-sensitivity devices tailored to customer specifications.

Six-dimensional force sensors are precision devices designed to measure forces and torques along three translational axes (X, Y, Z) and three rotational axes (roll, pitch, yaw) simultaneously. By capturing this comprehensive set of force and torque data, they enable accurate monitoring of complex interactions between objects, which is essential in fields like robotics, biomechanics, aerospace, and manufacturing. These sensors are crucial for tasks such as force-controlled robotic manipulation, ergonomic analysis, and structural testing, where understanding both linear and rotational loads in real time is vital for performance and safety.

Six-dimensional force sensors are precision devices designed to measure forces and torques along three translational axes (X, Y, Z) and three rotational axes (roll, pitch, yaw) simultaneously. By capturing this comprehensive set of force and torque data, they enable accurate monitoring of complex interactions between objects, which is essential in fields like robotics, biomechanics, aerospace, and manufacturing. These sensors are crucial for tasks such as force-controlled robotic manipulation, ergonomic analysis, and structural testing, where understanding both linear and rotational loads in real time is vital for performance and safety.