Funding
Funding not disclosed
Founders
Product
Problem
Cryogenic environments required for quantum processors, low‑temperature semiconductor testing, and space‑grade instrumentation are difficult to achieve with existing bulky, non‑modular systems, leading to limited scalability, reduced measurement precision, and reliability concerns in harsh orbital conditions.
Solution
CryoYantra provides modular cryogenic platforms that deliver stable millikelvin temperatures with integrated magnetic shielding, enabling coherent operation of diverse qubit technologies. The systems support high‑throughput wafer characterization by integrating automated cryogenic probe stations for cryo‑CMOS and wide‑bandgap material testing. For space applications, the company offers radiation‑hardened, low‑SWaP cryocoolers designed to maintain sub‑kelvin conditions for infrared focal‑plane arrays and superconducting single‑photon detectors used in satellite‑based quantum communication. A flexible “Y‑Insert” architecture allows rapid sample exchange and accommodates optical, RF, and DC interfaces, making the platforms suitable for both industrial and academic research environments.
Target Audience
Primary customers include quantum hardware manufacturers, semiconductor firms developing cryo‑CMOS technologies, aerospace and satellite manufacturers requiring reliable low‑temperature payloads, and university or national‑lab research groups conducting low‑temperature physics and materials experiments.
Features
- Qubit‑agnostic cooling optimized for superconducting, silicon spin, and topological qubits with millikelvin stability (10 mK–20 mK) and magnetic shielding
- Scalable thermal architecture that handles high heat loads from dense coaxial cabling and cryo‑electronics for large‑scale quantum processors
- Integrated automated probing solutions for high‑throughput cryogenic wafer testing of CMOS, 2D materials, and wide‑bandgap semiconductors
- Modular “Y‑Insert” experimental inserts enabling rapid sample swaps, optical windows, high‑frequency RF lines, and DC wiring
- Radiation‑hardened, low‑size‑weight‑power (SWaP) cryocoolers for space‑borne infrared imaging and quantum key distribution payloads
- Precision cooling for superconducting nanowire single‑photon detectors (SNSPDs) to support satellite quantum communication
- Advanced magneto‑transport platforms for studying quantum Hall effects and exotic phases in topological materials