Real-time temperature and resistivity data for bio-based, CO2-injected, and novel binder concrete formulations — moving low-carbon mixes from lab to field.
The construction industry is at a pivotal juncture, with increasing emphasis on sustainability, reduced carbon footprints, and the integration of innovative materials like bio-based building components, CO2-injected concretes, and novel binder systems. Validating these advanced materials requires precise, real-time performance data — something traditional testing methods struggle to provide.
Advanced materials behave differently than conventional concrete during hydration and early-age strength development. Standard cylinder testing protocols were not designed for these materials, and lab results often failed to capture the real performance characteristics that matter for commercial viability and structural approval.
Sensytec’s patented sensors — measuring both temperature (ASTM C1074) and electrical resistivity (ASTM C1876) — provided advanced materials researchers and manufacturers with real-time data on hydration rates, water/cement ratios, setting times, and strength gain for non-standard concrete formulations. This dual-measurement approach captured performance characteristics that temperature-only sensors miss entirely.
Sensytec’s technology is enabling material scientists and concrete producers to move advanced formulations from lab to field faster, with the real-time data needed to validate performance, optimize mix designs, and build the case for regulatory acceptance of next-generation construction materials.
As the construction industry pushes toward lower-carbon, higher-performance materials, the need for real-time quality data becomes even more critical. Sensytec’s sensor platform provides the measurement infrastructure that makes innovation in concrete possible.
Sensytec sensors measure both temperature per ASTM C1074 (Maturity Method) and electrical resistivity per ASTM C1876, enabling dual-measurement analysis of advanced concrete materials.
Bio-based, CO2-injected, and novel binder formulations behave differently during hydration and early-age strength development. Standard cylinder testing protocols were not designed for these materials and often miss the real-world performance characteristics that matter for commercial viability and structural approval.
Bio-based concretes, CO2-injected concretes, and novel binder systems — across both R&D and field validation.
Continuous, ASTM-compliant data lets material scientists validate performance, optimize mix designs, and build the case for regulatory acceptance — moving low-carbon mixes from lab to field faster.