Strict control of temperature, humidity, air quality, cleanliness, and pressure.
Stringent requirements for contamination prevention, personnel safety, and regulatory compliance.
Independent systems limit visibility, interoperability, and centralized control.
Continuous operation and environmental conditioning drive high energy use and operating costs.
Through integrated monitoring and intelligent automation, the solution helps laboratories maintain stable environmental conditions, improve operational safety, enhance energy efficiency, and ensure compliance with stringent laboratory standards.
The system provides comprehensive capabilities including HVAC automation, environmental control, pressure management, energy management, operating mode management, data visualization, fault alarms, data storage, and historical record retrieval.
The system continuously monitors key laboratory environmental parameters, including temperature, humidity, and lighting conditions, ensuring a stable experimental environment. It also enables precise control of temperature, humidity, and positive/negative pressure levels to maintain optimal laboratory conditions.
Based on real-time environmental data, the system automatically adjusts HVAC, ventilation, and other related equipment, enabling intelligent and automated control of all subsystems. This ensures that laboratory environmental parameters remain accurate, stable, and compliant with operational requirements.
The EBA platform deeply integrates the Energy Management System (EMS) with the Building Automation System (BAS), enabling data sharing and coordinated control. Based on real-time monitoring and analysis of terminal energy consumption, the system intelligently coordinates energy distribution, transmission, and generation to achieve demand-driven supply, supply-demand balance, and optimized energy utilization. This approach enhances overall energy efficiency while supporting energy conservation and carbon reduction goals.
Clean Laboratory Pressure Gradient Control (Positive / Negative Pressure)
1.Pressure differential control is one of the most important factors in maintaining cleanroom cleanliness. By utilizing pressure differentials, cleanrooms can be effectively isolated from surrounding or external environments to prevent contamination. In a negative-pressure cleanroom, the internal air pressure is lower than the external environment, ensuring that internal air does not leak into surrounding areas. In a positive-pressure cleanroom, the internal air pressure is maintained higher than the external environment to prevent external air from entering the cleanroom.
2.The control system can be configured with different environmental parameters according to operational requirements and implements dynamic pressure gradient control for each controlled room within different clean zones. The system can automatically start and stop purification equipment according to a schedule. Before personnel arrive, it automatically performs HVAC self-cleaning circulation and related operations, significantly reducing preparation time and improving overall work efficiency. After operations are completed, the system keeps the units running for a period of time to dry moisture on evaporator surfaces and prevent bacterial growth. Once all procedures are completed, the system closes the fresh air and exhaust air dampers to ensure that dust cannot enter the laboratory.
3.Each control system is equipped with a 10-inch color LCD resistive monitoring panel. All laboratory operating parameters can be uploaded to a centralized monitoring permanent storage system, enabling remote monitoring functions.
4.Water, electricity, gas, and other metering devices are deployed in laboratory equipment rooms. The system can monitor laboratory energy consumption in real time and generate detailed energy consumption reports and dynamic analysis, improving the informatization and refined management level of building energy conservation.

HaiLin DDC controllers provide a large number of universal I/O points, significantly reducing hardware costs during system configuration. All ports are isolated, ensuring high stability and measurement accuracy.
HaiLin DDC offers powerful data processing capabilities and flexible bus architecture. With multiple RS-485 communication buses, it can support more field points, connect to local control panels, and integrate with utility meters for comprehensive energy management.
HaiLin DDC controllers support multiple communication protocols and open system integration, enabling flexible programming and scalable expansion for a wide range of building automation applications. With powerful processing capabilities, secure communications, and reliable performance, they provide a robust foundation for intelligent, connected, and future-ready buildings.
HaiLin HAI Platform V3.0 software, together with DDC controllers and I/O modules, is designed to meet the requirements of modern digital infrastructure projects. By delivering secure, reliable, and intelligent building automation solutions, it helps accelerate the development of next-generation smart buildings while ensuring information security and operational continuity.
Within the overall HAI Platform architecture, HaiLin independently develops and manufactures a comprehensive portfolio of hardware and software products. This enables us to provide complete end-to-end solutions, including all required low-voltage and electromechanical products, ensuring system consistency and reliability. Throughout product development and manufacturing, we place strong emphasis on interoperability and openness, maximizing compatibility with third-party systems and devices.
A reliable laboratory environment drives scientific innovation. HaiLin’s Energy & Building Automation System delivers precise environmental control, enhanced occupant comfort, and intelligent energy optimization, helping laboratories operate more efficiently, sustainably, and adaptively in a rapidly evolving research landscape.
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