QSENSATO develops atomic‑photonic chips that embed laser‑written, all‑glass vapor cells directly onto photonic platforms, creating compact quantum sensors for ultra‑precise magnetometry, atomic clocks, RF field detection, and gyroscopy.
Funding
$55.8K raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
QIFounders
Product
Problem
Precise quantum sensing currently relies on bulky, laboratory‑scale atomic vapor cells, limiting portability and deployment in field applications such as biomedical diagnostics, space navigation, and metrology. The lack of compact, customizable sensors hampers real‑time measurements and increases system cost.
Solution
Qsensato creates integrated atomic‑photonic chips that embed laser‑written, all‑glass vapor cells directly onto photonic platforms. This approach yields lightweight, chip‑scale quantum sensors capable of ultra‑precise measurements for magnetometry, atomic clocks, RF field detection, and gyroscopy. The fabricated vapor cells can be customized for specific sensing modalities and integrated with microfluidic channels or photonic circuits, enabling turnkey solutions for biomedical imaging, GPS‑denied navigation, and laboratory frequency references. By leveraging patented 3D vapor‑cell geometry, Qsensato delivers scalable, rugged devices suitable for space, defence, and research environments.
Target Audience
Primary customers include biomedical device manufacturers, aerospace and defence firms requiring portable navigation and timing solutions, and research laboratories seeking compact atomic frequency references or advanced quantum sensing platforms.
Features
- Laser‑written, all‑glass vapor cells integrated on photonic chips for compact quantum sensor architectures
- 3D‑versatile cell geometry allowing multiple optical access points and complex internal structures
- Compatibility with optically pumped magnetometers, Rydberg‑atom RF sensors, chip‑scale atomic clocks, and atomic gyroscopes
- Integration capability with microfluidic channels for lab‑on‑chip magnetic microscopy and ultra‑low‑field NMR
- Lightweight, hermetic glass packages designed for space‑qualified and defence‑grade deployments
- Customizable designs tailored to specific metrology and sensing performance requirements