ARS Cryogenic Probe Station with closed-cycle cryocooling, equipped with six DC probe arms.

ARS Cryogenic Probe Station with closed-cycle cryocooling, equipped with six DC probe arms.

Cryogenic Probe Station
Closed-Cycle (PS-CC)

General-purpose cryogenic wafer prober with configurable DC, RF and fiber optic probes.

  • 15K, 10K, and <4K Base Temperatures with cryogen-free cooling

  • Configurable with up to six probe arms

  • Accommodates up to 4” wafers

  • High Vacuum Stainless Steel Chamber


Nanoscience Probe Station
(PS-NS)

Ultra-stable cryogenic probe station optimized for combined nano optical and electrical measurements.

  • Sample probing under low working distance windows and in-vacuum objective lenses

  • 7K closed cycle cryogenic performance

  • Ultra-low 20nm vibrations using our X-20 helium exchange gas decoupling system

The optical-table-ready ultra-low vibration Nanoscience Probe Station, powered by a helium exchange gas vibration decoupling system.

The optical-table-ready ultra-low vibration Nanoscience Probe Station, powered by a helium exchange gas vibration decoupling system.


Samples are placed in the bore of the solenoid in the Superconducting Magnet Probe Station’s chamber, accessible by up to six probe arms.

Samples are placed in the bore of the solenoid in the Superconducting Magnet Probe Station’s chamber, accessible by up to six probe arms.

Superconducting Magnet Cryogenic Probe Station (PS-SCM)

Cryogenic probe station featuring a superconducting solenoid inside the sample chamber.

  • Vertical Magnetic Fields up to 6 Tesla

  • Field independent sample temperatures

  • Dual cryocooler design for high cooling power

  • <4K Sample Temperature


Electromagnet Cryogenic Probe Station (PS-EM)

Cryogenic probe station with an integrated electromagnet.

  • Horizontal Magnetic Fields up to 1 Tesla, 72mm gap

  • Field independent sample temperatures

  • <10K Sample Temperature with closed cycle/cryogen free cryocooling

The poles of an electromagnet enter the vacuum chamber of the Electromagnet Probe Station, introducing a strong in-plane magnetic field to the cryogenically cooled sample plate.

The poles of an electromagnet enter the vacuum chamber of the Electromagnet Probe Station, introducing a strong in-plane magnetic field to the cryogenically cooled sample plate.


Powered by our Heli-Tran flow cryostat, the PS-L model accepts either liquid helium or liquid nitrogen for cooling the sample plate.

Powered by our Heli-Tran flow cryostat, the PS-L model accepts either liquid helium or liquid nitrogen for cooling the sample plate.

 

Cryogenic Probe Station
Liquid Helium Flow (PS-L)

Wafer prober cooled with a liquid cryogen cooled sample chuck.

  • Liquid Helium and Nitrogen Compatible

  • UHV option available with load-lock sample exchange

  • Ultra-low vibrations with Matrix heat exchanger

  • Table-top and floor standing designs available