Industries

For 20 years, Chiller & Cooling Best Practices Magazine has published articles focused on helping manufacturers reduce power demand, lower water consumption, and improve the performance of compressed air, cooling, blower and industrial vacuum systems. In this article, we highlight a sampling of those stories across the following industries: Plastics and Packaging Food and Beverage Automotive and Transportation Cement, Building Materials, and Mining Metals, Pulp, and Paper Pharmaceuticals, Healthcare, and Research Wastewater Treatment

For 20 years, Chiller & Cooling Best Practices Magazine has published articles focused on helping manufacturers reduce power demand, lower water consumption, and improve the performance of compressed air, cooling, blower and industrial vacuum systems. In this article, we highlight a sampling of those stories across the following industries: Plastics and Packaging Food and Beverage Automotive and Transportation Cement, Building Materials, and Mining Metals, Pulp, and Paper Pharmaceuticals, Healthcare, and Research Wastewater Treatment

For 20 years, Chiller & Cooling Best Practices Magazine has published articles focused on helping manufacturers reduce power demand, lower water consumption, and improve the performance of compressed air, cooling, blower and industrial vacuum systems. In this article, we highlight a sampling of those stories across the following industries: Plastics and Packaging Food and Beverage Automotive and Transportation Cement, Building Materials, and Mining Metals, Pulp, and Paper Pharmaceuticals, Healthcare, and Research Wastewater Treatment

For 20 years, Chiller & Cooling Best Practices Magazine has published articles focused on helping manufacturers reduce power demand, lower water consumption, and improve the performance of compressed air, cooling, blower and industrial vacuum systems. In this article, we highlight a sampling of those stories across the following industries: Plastics and Packaging Food and Beverage Automotive and Transportation Cement, Building Materials, and Mining Metals, Pulp, and Paper Pharmaceuticals, Healthcare, and Research Wastewater Treatment

This article details how Schneider Electric transformed waste heat into a reliable energy source at its Lincoln, Nebraska facility. By repurposing low-temperature process cooling water and optimizing building pressurization and controls, the plant significantly reduced natural gas use, water consumption and CO2 emissions while improving indoor comfort and air quality. The project demonstrates how an efficiency-first approach—leveraging existing infrastructure, advanced controls and digital analytics—can deliver measurable sustainability gains and create a scalable pathway toward full electrification and net-zero operations.

This article details how Schneider Electric transformed waste heat into a reliable energy source at its Lincoln, Nebraska facility. By repurposing low-temperature process cooling water and optimizing building pressurization and controls, the plant significantly reduced natural gas use, water consumption and CO2 emissions while improving indoor comfort and air quality. The project demonstrates how an efficiency-first approach—leveraging existing infrastructure, advanced controls and digital analytics—can deliver measurable sustainability gains and create a scalable pathway toward full electrification and net-zero operations.

This article examines how a natural refrigerant–based chiller was engineered to meet process cooling demands while minimizing environmental impact. It explores refrigerant selection tradeoffs, system architecture modifications required for flammable refrigerants and key design strategies such as charge reduction, mechanical isolation and safety controls. Engineers will gain practical insight into balancing efficiency, compliance and operational reliability in next-generation cooling systems.

In this article: Cooling for High-Speed Injection Plastic Molding Free Cooling Results in Massive Energy Savings Heat Treating Processes Require Cooling to Prevent Furnace Overheating Food Processing Cooling Needs Vary by the Specific Process Chemical Plants Need Ultra-Cold Conditions

In this article: Cooling for High-Speed Injection Plastic Molding Free Cooling Results in Massive Energy Savings Heat Treating Processes Require Cooling to Prevent Furnace Overheating Food Processing Cooling Needs Vary by the Specific Process Chemical Plants Need Ultra-Cold Conditions

In this article: Cooling for High-Speed Injection Plastic Molding Free Cooling Results in Massive Energy Savings Heat Treating Processes Require Cooling to Prevent Furnace Overheating Food Processing Cooling Needs Vary by the Specific Process Chemical Plants Need Ultra-Cold Conditions