The precise measurement and recording of the flow rate, pressure, and temperature of secondary utility streams, such as steam, water, or compressed air, within an industrial facility. It is essential for optimizing thermal efficiency, monitoring energy consumption, and calculating accurate utility costs.
The use of meters downstream of a main utility meter to measure consumption by area, process, or equipment. It makes energy costs, losses, and improvement opportunities visible at a more actionable level.
The installation of meters on specific sub-circuits or individual pieces of equipment to monitor energy and fluid consumption. This granularity is essential for identifying energy-intensive processes and accurately allocating operational costs.
Utility targeting determines the minimum heating and cooling utilities a process should require at defined operating conditions. It helps identify energy-saving opportunities before detailed heat-exchanger network design.
A central record of utility supply accounts, meters, contracts, tariffs and billing responsibilities for a site or organisation. It helps ensure complete energy data collection and accurate cost management.
The comparison of utility consumption with operational output, conditions, and equipment performance. It identifies inefficient operation and quantifies opportunities to reduce energy, cost, and emissions.
The selection of the most effective temperature levels and locations for supplying heating and cooling utilities to a process. It minimizes utility consumption and avoids using high-quality energy where lower-grade heat is sufficient.
Large-scale battery or thermal storage installations integrated directly into electrical grids to store excess generation and discharge it during peak demand. It provides essential grid stabilization, enabling heavy industrial facilities to reliably integrate intermittent renewable energy sources into their thermal and electrical processes.