Cross-correlate energy consumption with operational parameters to identify waste patterns, quantify savings, and support ISO 50001 compliance. 3x ROI in 18 months.
In technical buildings — hospitals, pharmaceutical plants, data centers, laboratories — HVAC represents 50 to 70% of total energy consumption. Unlike office buildings, these environments have stringent air quality and temperature requirements that constrain simple setback strategies. Optimization requires understanding the relationship between energy use and operational constraints.
Share of HVAC in total energy consumption of technical buildings
Invisible annual drift when the "new normal" sets in without continuous benchmarking
Regulatory framework requiring demonstration of continuous improvement based on granular data
Energy meters sit in the BMS. Occupancy data lives in the access control system. Weather data comes from external services. Process schedules are in the CMMS or ERP. Without correlation, operators cannot distinguish between necessary energy use and waste. They see the bill but cannot diagnose the cause.
Equipment degrades gradually. Controls drift from their setpoints. Seasonal adjustments are made and never reverted. Without continuous benchmarking against a validated model, the "new normal" becomes progressively more wasteful — 2% here, 3% there — until the annual review reveals a 15% increase nobody can explain.
Meanwhile, the regulatory landscape is tightening: ISO 50001, Decret Tertiaire, BACS obligations, carbon reporting. Compliance requires not just measurement but demonstration of continuous improvement. Manual reporting is slow, error-prone, and insufficient for auditors demanding granular data.
TERA 360 correlates energy consumption with the operational context that explains it — then identifies where savings are possible without compromising performance.
Energy meters at main incomer, distribution boards, AHUs, chillers, and critical loads. Sub-metering by zone, by system, by time of use. Integration with BMS, weather services, occupancy systems and process schedules to build the full operational context.
Regression models built from historical data establish the expected energy profile for given conditions (outdoor temperature, occupancy, production schedule). Deviations from the model are flagged as potential waste. Seasonal and operational normalization ensures fair comparison across periods.
Automated waste pattern detection: simultaneous heating and cooling, off-hours operation, setpoint drift, equipment cycling. Each pattern is quantified in kWh and euros. Recommendations are prioritized by savings potential and implementation effort.
CT-based electrical meters, thermal energy meters (BTU), gas flow meters. MID-certified where fiscal metering is required. Modbus, M-Bus or pulse output integration.
Outdoor T/H, solar radiation, wind speed for weather normalization. Indoor T/H, CO2 for occupancy correlation. These contextualize energy consumption against its operational drivers.
Modbus read of HVAC setpoints, valve positions, VFD speeds, chiller staging. Weather API integration for degree-day calculations. Utility tariff data for cost optimization. Production schedules from MES/ERP for process energy attribution.
Real-time consumption by system, zone and time period. Weather-normalized benchmarks against model predictions. Traffic-light indicators flag systems consuming more than expected. Drill-down from building total to individual AHU or chiller.
Automated identification of energy waste: simultaneous heating/cooling, off-hours operation, equipment short-cycling, setpoint override drift. Each pattern shows location, duration, estimated cost and recommended corrective action.
Measurement and verification (M&V) dashboard quantifying implemented savings against the baseline model. IPMVP-compatible methodology ensures savings claims are defensible. Monthly reports show cumulative savings in kWh, euros and CO2 equivalent.
ISO 50001 energy review data packages. Decret Tertiaire compliance reporting with automatic baseline calculation. BACS categorization evidence. Carbon reporting with Scope 1 and Scope 2 calculations based on actual consumption data.
In 18 months. Investment in sensors and platform typically pays for itself three times over, driven by identified waste patterns and optimized operations.
Average energy savings across deployed technical buildings. Achieved without capital investment in new equipment.
Full compliance support: energy baselines, EnPIs, significant energy uses, measurement plans and improvement tracking. Reduces certification effort significantly.
Across deployed technical buildings, average energy reduction reaches 30%. It is achieved through waste elimination, operational optimization and demand-driven control — without capital investment in new equipment.
Models trained on historical data forecast energy consumption under different scenarios (weather, occupancy, production changes). Budget forecasts are data-driven, not based on last year plus 3%.
TERA 360 provides the energy data management layer required by ISO 50001 and the Decret Tertiaire — turning regulatory compliance from an administrative burden into a natural by-product of continuous monitoring.
We'll audit your energy consumption, identify waste patterns, and build a data-driven optimization roadmap.