Products & Technology

How AtmoTech turns gas exposure into real-time sensor data.

AtmoTech is the core sensing platform inside AtmoSense products: gas-reactive materials, MEMS microheater devices, electronics, and algorithms packaged for evaluation-ready sensor modules.

AtmoMATS

Gas-reactive nanomaterials engineered for sensitivity, selectivity, and target-gas tuning.

AtmoMEMS

Low-power MEMS microheater silicon devices for compact, controllable sensing.

AtmoTech

AtmoMATS + AtmoMEMS + electronics + algorithms for real-time gas readings.

Platform architecture

AtmoTech is the sensing pillar of AtmoSense.

AtmoSense can be understood as three connected pillars: the AtmoTech sensing platform, focused sensor modules for lead gases, and partner integration programs that validate the technology in real applications.

Why this matters

The platform, modules, and partner programs work together: technology creates the signal, product focus makes it evaluable, and application testing shows where the data can change outcomes.

From gas exposure to actionable signal.

Target gas reaches the sensor

Airborne molecules interact with gas-reactive AtmoMATS formulations selected for the target application.

MEMS heating controls response

AtmoMEMS microheaters tune operating conditions in a compact, low-power silicon device architecture.

Electronics read the signal

Resistance or related sensor changes are captured by module electronics and prepared for interpretation.

Algorithms turn data into insight

Signal processing supports real-time readings, drift management, alerts, control decisions, and OEM system integration.

AtmoTech platform

Go deeper into the AtmoTech platform.

Download a concise technical overview of the material-device architecture, low-power sensing approach, and multi-gas platform roadmap behind AtmoTech.

Product focus

Ozone sensor module

Compact real-time ozone sensing for safety, control, and air quality applications where ozone must be monitored at low concentrations.

Use cases
  • Ozone generator safety and interlocks
  • Sanitation and sterilization systems
  • Semiconductor and industrial exposure monitoring
  • Ambient air quality monitoring
  • HVAC and air purification systems
Product focus

Formaldehyde sensor module

Real-time formaldehyde sensing for indoor environments, building materials, products, and exposure monitoring.

Use cases
  • Indoor air quality monitoring
  • Building materials and furniture emissions
  • Schools, offices, hospitals, and homes
  • Air purifiers and smart building systems
  • Exposure monitoring and validation
Grant support

Designed for multiple target gases with a focused entry path.

Ozone and formaldehyde are the first product priorities because they connect directly to safety, indoor air quality, and OEM integration needs.

Industrial and environmental gases

CH4 methane, NO2 nitrogen dioxide, CO2 carbon dioxide, NH3 ammonia, H2 hydrogen, H2S hydrogen sulfide, and VOCs.

Specialty applications

Acetone, ethylene, benzene, and other application-specific gases where compact selective sensing can create value.

Why the platform is different.

Sensitive

High-surface-area nanomaterials create more active sites for interaction with target gas molecules.

Selective

Gas-specific material formulations and operating modes help reduce false responses in mixed environments.

Stable

Platform development targets lower drift and lower calibration burden for practical deployments.

Low power

MEMS microheater operation supports compact modules, distributed monitoring, and OEM integration.

What performance means in context.

Sensitivity, selectivity, stability, power, size, and cost are connected tradeoffs in gas sensing. AtmoSense evaluates these together for each target gas and use case rather than treating any single metric as the whole product story.

Technical discussions

Useful evaluation inputs include target gas, concentration range, interfering gases, environmental conditions, reference methods, module constraints, and data interface needs.