The spacers are the interleaves placed in between the wafers for protecting the sides from scratches and particle contamination. They are made with very high pure materials offering extreme performances against the particle contamination and the outgassing risks. All the models have embossed shape and are compatible with 4“, 5“, 6“, 8“ and 12“ wafers and framed-wafers.

Anti Statics PE: 350µm thick, Surface resistivity <1*10E+12 Ω Conductive PE: 250µm thick, Surface resistivity <1*10E+9 Ω

LINEXO is a versatile laser processing workstation designed for high-precision applications in the electronic, precision engineering, and photovoltaic industries. It is often used in R&D environments, as well as production of smaller substrates as e.g. ceramic PCBs.

The KOPEL KSJ-026 cell setter employs a self-alignment mechanism that enables high accuracy of ±0.05 mm to ensure stable probing of PV cells to be measured, thus achieving high repeatability of the measured data.

It is mounted with two dial gauges to precisely set and control the contact pressure of probe pins. In addition, the KSJ-026 cell setter is provided with a cell vacuum contact function and cell temperature control function to easily reproduce measurement conditions and stabilize the FF values.

A High-precision IV Test System that allows accurate measurement of IV of high-efficiency PV modules including HIT® with a 50-ms pulse light.
It is generally believed that a stationary light or a very long pulse (several hundreds of ms or longer) is needed to measure HIT® or similar high-efficiency PV modules. Kyoshin, however, has jointly developed an innovative test method, called the “KOPEL Method,” with Japan’s National Institute of Advanced Industrial Science and Technology (AIST).

By incorporating this KOPEL Method, the KSX-2012HM System is able to accurately measure IV of high-efficiency PV modules such as HIT® using both dark and illuminated IV data. Our IV data using a 50-ms pulse show very good agreement with the IV data measured for a long sweep time of 1000 ms under a stationary light source: the deviation is just 0.2-0.3%. Moreover, the KSX-2012HM System achieves extremely high throughput with the shortest emission interval of approx. 15 seconds.

Electrostatic chucks and ceramic heaters can be produced by sintering materials with metallic electrodes arranged in the ceramics. We can provide electrostatic chucks and ceramic heaters catering to user needs by utilizing several material technologies. We can also provide services for the development and experimental production of electrostatic chucks and ceramic heaters according to region of use such as plasma and electron beam environments:

Electrostatic chuck with heater (ESC/Heater)

Material: AIN (Aluminum nitride)

Electrostatic chucks (ESC)

Material: Al2O3(Alumina) plate

Material: Thermal sprayed Al2O3

Ceramic heater

Material: AIN (Aluminum nitride)