Quantum Sensing for Security Critical Applications in Europe.

We are working at the intersection of fundamental research & system engineering to transform market needs into real-world systems that can be deployed.

Quantum sensing unlocks new capabilities for

Learn more about our –> QYRO

Across These Domains

Learn more about our –> Technology

From Lab, to Prototype to Demonstrator

We are not stuck in labs. With a clear focus on real-world requirements we integrate our technology
in customer applications with short iteration cycles and field testing in mind.

About

Arda Atomics is a Stuttgart based quantum sensing company, backed by TRUMPF.

We use our technical expertise, operational momentum, and focus on delivering novel sensing technology, in particular nuclearmagnetic resonance (NMR) gyroscopes for defence, aerospace, and security applications where current systems fail.

Bridging the gap between science and product with advanced systems engineering, for technology transfer from the lab to real-world applications

Meet the team

Arda Atomics

Our team brings together twelve specialists from across the spectrum of deep tech – atomic physicists, laser and optical engineers, electrical and mechanical engineers with space-qualified hardware experience, software engineers seasoned in satellite communication systems, and entrepreneurs who have built and exited companies before.

What connects them: hands-on experience turning complex science into real-world systems. From NMR gyroscopy and cold-atom experiments to avionics stabilisation and large-scale satellite integration, every team member has shipped hardware, written flight code, or built products under real constraints.

Team photo from Arda Atomics

Technology

Atomic vapors cell sensors have attractive properties and advantages​ both from the fundamental science and in engineering viewpoint​.

Intrinsically Stable

Atomic vapor cell based sensors rely on well-defined atomic transitions, providing intrinsically stable and reproducible measurements based on fundamental physical constants.

Engineering

NMR sensors allow for compact, low-power, and highly resilient systems that operate reliably in dynamic and harsh environments while maintaining high performance.

Bottomline: Benefits of NMR

• No calibration is needed, as governed by natural constants & quantum mechanics​​
• No need for cryogenic cooling with huge energy consumption​
• High sensitivity via large signal strength from high atomic densities​
• Scalable ​production via miniaturized fabrication ​
• Efficient optical control (reading/pumping of alkalimetal atoms)​
• Wave lengths easily available via semiconductor lasers​

Our Invitation

Arda Atomics provides a headstart towards real quantum sensing.

We are aligning our R&D with customer needs through:

–> Joint development

Co-Development of (sub-)system tailored to specific use-case​

–> Technology Evaluation​

Feasibility studies and technology demonstrator on relevant platform​

–> Funded Project Collaboration​

Jointly submitting applications to public funding calls.

Interested to talk?

Get in touch

QYRO Project

Spin-based quantum gyroscopes for New Space applications

Project Motivation

“The QYRO project aims to develop a space-qualified, high-precision angular rate sensor based on the quantum effect of nuclear magnetic resonance.“

New Space applications, such as global, infrastructure-independent internet access via constellations of numerous mini-communications satellites, offer a promising way for areas with poor infrastructure to benefit from the opportunities of the digital age. In these CubeSat communication satellites, high-precision attitude sensors are a key technology, as they are what enable the satellite to be accurately aligned with a terrestrial target (e.g. a receiving antenna). The QYRO project aims to develop a space-qualified, high-precision angular rate sensor based on the quantum effect of nuclear magnetic resonance, which can be used to precisely control satellite orientation.

Our Role in the Project

–> Leading The Consortium
  • Managing consortium work, leading partners, timeplan, and milestones
  • External Communication and representation
–> Hardware subsystems development (electronics, optics and mechanics)
  • Analogue laser drivers and photodetectors with very low noise detection system
  • Control electronics for the whole gyroscope operation
  • Mechanical backbone and housing for other subsystems, designed to dissipate heat and to withstand rocket launch
  • Development & simulation of the optical system to shape the laser light according to the requirements of atomic physics
–> Hardware and SW System integrator
  • Alignment of subsystems interfaces (developed internally or by partners)
  • SW to control the gyroscope & interface with CubeSat payload computer and other satellite sub-systems
  • SW to control the gyroscope & interface with CubeSat payload computer and other satellite sub-systems
  • Fulfilling space review phases and space standards.

Mission Goal

The concept of the NMR gyroscope is to be further developed into a demonstrator – using innovative laser technology and a systematic miniaturisation strategy for all components – that goes beyond the current state of the art and can be validated on a CubeSat in low Earth orbit. In this context, the DLR, as the national space agency, will be responsible for planning and executing a satellite launch, as well as the subsequent validation of the sensor on board a satellite in space.

Got Curious? Let's Talk

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We're Here

Address:
Epplestraße 225, 70567 Stuttgart, Germany
Contact:
hi@ardaatomics.com