Magnetic Field Mapping

True 1D sensing. Picowatt Dissipation

Stop letting your Hall sensors dictate your system limits. Paragraf’s 2D Graphene Hall Sensors (GHS) eliminate out-of-plane crosstalk and thermal drift, enabling precise magnetic mapping down to mK temperatures and up to 30 Tesla fields.

Cryogenic Low Magnetic Field Graphene Hall probe - EGHKX03P05 - Paragraf Store

Graphene Hall Sensors (GHS)

Our graphene based magnetic field sensors are the first and only Hall effect sensors capable of measuring high magnetic fields at cryogenic temperatures. Applications include: particle accelerators, fusion reactors, and MRI systems.

Stable

Low integrator drift

Cryogenic

Operates to mK temperatures

Immune

Radiation tolerant

Linear

MicroTesla to 30 Tesla

Planar

Eliminates magnetic cross-talk

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Applications

Explore our solutions across industries
Quantum Computing & Cryogenics
Quantum Computing & Cryogenics

Quantum Computing & Cryogenics

Silicon sensors dissipate milliwatts of heat, wasting the ~14 µW cooling budget of a dilution refrigerator. Paragraf Graphene Hall Effect Sensors dissipates power in a low range with limited carrier freeze-out. Map up to 30T fields with zero Planar Hall Effect.

Aerospace & Extreme Environments
Aerospace & Extreme Environments

Aerospace & Extreme Environments

Every gram of shielding is a gram of payload lost. Paragraf Graphene Hall Effect Sensors are naturally impervious to displacement damage and NPL-validated to survive 30,000x the typical ISS neutron radiation dose rate. Miniaturise your CubeSat ADCS with unshielded, solid-state magnetometry.

Nuclear Fusion
Nuclear Fusion

Nuclear Fusion

Inductive Mirnov coils rely on integration; over long plasma pulses (>1000s), low-frequency noise compounds. Paragraf Graphene Hall Effect Sensors enable direct, steady-state DC measurement with low integrator drift, mapping the last closed flux surface.

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