Superconducting Magnet Integration

About
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Configurations
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About

My Cryo Firm integrates superconducting magnets into dry cryostats for experiments requiring low temperature, optical access, and magnetic-field capability.
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From compact solenoids to split-pair and vector magnets, our portfolio includes a wide range of standard configurations for different field strengths, sample spaces, optical geometries, and wiring requirements.

Superconducting Magnet, held by an orange-gloved hand on the right side, set against a white background.

7 T split-pair magnet, 26 mm clear vertical bore

Superconducting Magnet mounted on OptiDry 250 cryostat

7 T split-pair magnet, 1 inch clear horizontal bore

Hand wearing an orange glove pointing at Superconducting Magnet, a complex copper and blue component assembly mounted on a metallic base

7 T split-pair magnet mounted in an OptiDry 250

Close-up of a split pair magnets for My Cryo Firm cryostats

3 T solenoid magnet integrated into an OptiDry 250
© Photo by Fabian Cadiz

Key capabilities

Solenoid, split-pair, large-bore, and vector magnet configurations

Integration into OptiDry 250, OptiDry 375, and TowerDry platforms

Optical clear bores and custom sample access

Low working distance configurations available

Optional support for lenses and piezo positioning

Large-bore and multi-axis magnetic-field options

Compatibility with cage systems and cryogenic positioning stages

Transparent 3D CAD model of a Superconducting Magnet, mechanical assembly highlighting its internal components including circular plates, supporting frames, and bolts.

Superconducting Magnet mounted on the OptiDry 250 cryostat

Magnet configurations

Close-up view of a solenoid magnet installation for the cryostats

3 T solenoid magnet integrated into a TowerDry 1K

Solenoid magnets

Solenoid magnets are suitable for experiments requiring a magnetic field along a single main
axis. They are often selected when compact integration, high field, or axial field geometry is the
main priority.
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Configurations are available with fields up to 9 T, depending on bore size, cryostat platform, and
sample-space requirements.

Hand wearing an orange glove handling a Superconducting Magnet, copper and blue coil component mounted on a circular metal base with screws and wires, set against a neutral background.

7 T split-pair magnet

2 T split-pair magnet with a 60 mm vertical bore

Split-pair magnets

Split-pair magnets provide magnetic-field capability while preserving optical access through the
magnet.

In the OptiDry 250, split-pair configurations can be integrated on the 4 K breadboard, with optical
clear bores designed to bring optical elements close to the sample. Standard field configurations include 1 T, 2 T, 5 T, and 7 T options.

Large-bore configurations are also available for experiments requiring increased sample space
or larger optical and mechanical access.
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Example configuration
• 7 T split-pair magnet with optical clear bores for close optical access to the sample.
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Key specifications:
• ±7 T magnetic field
• 0.5% over 10 mm around the magnet center
• 1" clear aperture along and perpendicular to the field
• 1.5" vertical bore for sample access and piezo motor mounting

3 × 0.5 T vector magnet

Vector magnets

Vector magnets allow magnetic fields to be applied along multiple axes, enabling advanced control of the sample magnetic-field environment.

Compact vector magnets can be integrated into OptiDry 250 platforms, while larger vector configurations are available in OptiDry 375 depending on field strength, access, and sample space requirements.

Example configurations
• 3 × 0.5 T vector magnet in OptiDry 250
• 5/1/1 T vector magnet in OptiDry 375, with 1" clear optical access in X/Y and 1.5" vertical
aperture

Sample space & optical access

Superconduncting Magnet mounted on a OptiDry cryostat in Scientific laboratory setup

Magnet integration can be tailored to your field requirements, sample space, optical access and working distance.

Available integration options include:

Horizontal or vertical optical access

Large-bore sample environments

Compact high-field geometries

Custom sample holders

Thermalized wiring and RF lines

Motorized positioning stages

Magnet-compatible cage systems

Low working distance with room-temperature optics

Cage system & motorized sample integration

3D transparent CAD model of a Superconducting Magnet, complex mechanical assembly featuring a rectangular frame supported by four vertical pink rods connecting top and bottom yellow plates, with internal structures including circular and rectangular components inside a larger outer frame.

Dedicated cage systems can be designed to integrate optical components, sample holders, and cryogenic positioning stages inside the magnet environment. PCN24 piezo motors, or other compatible low-temperature positioning solutions, can be integrated when the experiment requires in situ sample motion under magnetic field.

This makes it possible to combine magnetic-field capability, optical access, and sample
positioning within the same cryogenic platform.

Typical configurations

Solenoid magnet

OptiDry 250 and TowerDry

Compact single-axis magnetic field up to 9 T

Split-pair magnet

OptiDry 250, TowerDry

Magnetic field with optical clear bores up to 7 T

Large-bore magnet

OptiDry 250

Larger sample space and increased optical or mechanical access

Vector magnet

OptiDry 250 and OptiDry 375

Multi-axis magnetic-field control up to 5/1/1 T

Need a magnetic-field configuration for your experiment?

Tell us about your target field, sample size, optical access, wiring needs, and temperature
range.

Our team will help identify the magnet geometry and cryostat configuration best suited to your
setup.

Have a specific inquiry?