Reliable environmental intelligence powering smarter agronomy and research
Resilient, accurate, and field-ready sensors
Environmental Monitoring Products
Built for field uptime
- Designed for dependable measurements with stable sensors, robust enclosures, and long-term drift control.
- Built for real deployments across remote sites, harsh weather, and continuous outdoor operation.
- Low-maintenance by design with simple installation, clear service workflows, and predictable operating costs.
- Deployment-ready data flow from sensor → logger → cloud, with clean exports for analysis and reporting.
Air Quality Monitoring System
CredoSense Air Quality Monitoring System (CS-AQMS1) – the epitome of cutting-edge environmental technology. With an unbeatable blend of precision and ease-of-use, this system is set to redefine the benchmarks of air quality monitoring.
Temperature and Relative Humidity Logger
The brilliant combination of hardware and firmware of CSL-H2 T0.2 allows fast and accurate measurements of relative humidity and temperature for scientific and industrial applications. It guarantees the highest price-utility ratio in the market.
Leaf Chamber
Portable leaf chamber for precise measurement of photosynthesis and gas exchange. The CS-LC7000 records leaf temperature, humidity, pressure, and PAR in a controlled environment, and works with any gas analyzer, ideal for plant science, agriculture, and environmental research.
Fields of Application
Practical monitoring solutions for research and operations
Research-grade measurement integrity, packaged for field deployment, long-term monitoring, and decision workflows.
Precision Agriculture
Weather, soil, and microclimate measurements to support irrigation scheduling, risk monitoring, and field decision workflows.
Environmental Monitoring
Continuous monitoring for land, water, and ecosystem projects where stable time-series data and deployment reliability matter.
Research & Education
Research-grade sensors and loggers for field courses, labs, and long-term studies across climate, soil, and plant systems.
Air Quality Monitoring
Compact air-quality systems for particulate and environmental exposure studies, site monitoring, and operational awareness.
Industrial & Infrastructure
Monitoring for challenging sites where durability, uptime, and clean data capture are more important than dashboards and buzzwords.
Smart Buildings & Urban Climate
Rooftop and urban deployments to track heat, humidity, wind, and local microclimate dynamics for resilience and planning.
Deployed Solutions
Our products in action
Deployed for continuous rooftop temperature monitoring over seasonal cycles.
Used for leaf-level measurements to quantify plant response under field conditions.
Installed to capture synchronized multi-sensor time series in a nursery research site.
Rooftop station measuring local microclimate to support an urban climate project.
Publications
Peer-reviewed publications using CredoSense products
- 2023
- 2024
- 2025
- 2026
- Craig, C. V. (2023). Experimental Warming of Flower Temperatures and Influence on Pollinator Visitation (Master’s thesis, University of Toronto (Canada)).
- Frizzi, G. (2023). Exploring Seasonal Hydrologic Performance of Green Roofs with Various Layering Profiles (Master’s thesis, University of Toronto (Canada)).
- Cao, R., & MacIvor, J. S. (2024). Automation of green roof plant cover measurements using machine learning and a comparison of digital and thermal imaging techniques. Applied Vegetation Science, 27(2), e12790.
- Karim, M. R., Halim, M. A., & Thomas, S. C. (2024). Foliar methane and nitrous oxide fluxes in tropical tree species. Science of the Total Environment, 954, 176503.
- Snyder, E. H., Jones, I. M., Sifton, M. A., Timm, C., Stevens, C., Bourchier, R. S., & Smith, S. M. (2024). Excising the ghosts of invasions past: restoring native vegetation to soil infested with invasive swallow-worts. Invasive Plant Science and Management, 17(2), 61-69.
- Frizzi, G., Liao, W., & Drake, J. (2025). Winter Snowpack Accumulation and Stormwater Water Quality Monitoring for Extensive Green Roof Systems. Journal of Cold Regions Engineering, 39(2), 04025013.
- Karim, M. R., Halim, M. A., & Thomas, S. C. (2025). Foliar methane and nitrous oxide fluxes in Salix bebbiana respond to light and soil factors. Communications Earth & Environment, 6(1), 493.
- Kayes, I., Halim, M. A., & Thomas, S. C. (2025). Biochar mitigates methane emissions from organic mulching in urban soils: Evidence from a long-term mesocosm experiment. Journal of Environmental Management, 376, 124525.
- Richmond, I. C., Paulauskas, M. A., Padvaiskas, E., Sinisterra, L. C. G., Hutt-Taylor, K., Robitaille, A. L., & Ziter, C. D. (2025). Land-use history causes differences in park nighttime cooling capacity and forest structure. bioRxiv, 2025-02.
- Halim, M. A., Karim, M. R., Gale, N. V., & Thomas, S. C. (2026). Short-Term Effects of Biochar on Soil Fluxes of Methane, Carbon Dioxide, and Water Vapour in a Tea Agroforestry System. Soil Systems.
Customer Experiences
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