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TECHNOLOGY LICENSING OPPORTUNITY: Multi-Channel Atomic Magnetometer (MCAM)

Unlike conventional multichannel atomic magnetometers that require one vapor cell and one optical system for each sensing channel, the patented Multi-Channel Atomic Magnetometer (MCAM) architecture from Los Alamos National Laboratory replaces many independent atomic magnetometers with a single…

Notice typeSpecial Notice: An announcement, such as an industry day or a request for information.
Who's buyingTriad - DOE Contractor, Energy, Department of
WhereLos Alamos, New Mexico
DeadlineSat, Dec 12, 2026 at 7:00 PM EST (50 days left)
Who can bidOpen to any business (no set-aside)
IndustryNAICS 334516 (Analytical Laboratory Instrument Manufacturing)
Solicitation #S-133667
PostedFri, Jul 17, 2026
ContactKathleen McDonald, [email protected]

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Unlike conventional multichannel atomic magnetometers that require one vapor cell and one optical system for each sensing channel, the patented Multi-Channel Atomic Magnetometer (MCAM) architecture from Los Alamos National Laboratory replaces many independent atomic magnetometers with a single shared vapor cell and optical system that simultaneously generates multiple independent sensing channels. MCAM is a non-cryogenic multi-channel optical quantum sensor in a single module that captures ultra-faint biomagnetic signals from the brain, heart and other sources with sensitivity approaching that of the cryogenic SQUID-based systems that have defined the field for decades. MCAM delivers that performance at roughly one-tenth the per-channel cost without a drop of liquid helium. The module pairs one large alkali-metal vapor cell with broad pump and probe laser beams read out by a photodiode array, providing 16 independent sensing channels in a single housing, scaling into helmet-style arrays of hundreds of channels, and flexing around the patient rather than forcing the patient into a fixed cryogenic dewar. Together, these attributes more easily allow for magnetoencephalography, magnetocardiography and magnetic-particle imaging while accelerating overall magnetic imaging workflows. Ongoing development is aimed at extending the sensing architecture from the centimeter scale characterized in the current prototype toward micrometer-scale spatial resolution, opening a path into cellul

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