
Hospitals consume 1.5–2 times more energy than conventional commercial buildings. HVAC systems alone account for 40–50% of total energy consumption, making energy efficiency and cost reduction critical priorities.
Healthcare facilities require strict environmental control, including ±0.5°C temperature stability in operating rooms, ICU cleanliness standards, and pressure differentials in isolation wards. Traditional control systems often struggle to respond accurately to these demanding requirements.
Building automation, HVAC, lighting, and other subsystems frequently operate independently. The lack of data interoperability limits centralized management and makes holistic optimization and intelligent scheduling difficult.
Many hospitals still rely on manual inspections and paper-based records, resulting in delayed fault detection and response. The absence of predictive maintenance increases the risk of unexpected equipment failures that may impact healthcare operations and patient safety.
At the core of HaiLin’s solution is the HAI Platform (EBA Energy & Building Automation System)—an intelligent management hub that connects the entire Sensing–Decision–Execution lifecycle. Powered by advanced AIoT technologies, the platform integrates dozens of subsystems, including central heating and cooling plants, energy distribution networks, terminal HVAC systems, fresh air systems, lighting controls, and environmental monitoring systems into a single unified platform. This enables hospitals to move beyond isolated point control toward demand-driven energy delivery and coordinated system operation, ensuring that all building systems work together intelligently to improve operational efficiency, occupant comfort, and energy performance.
Cross-System Integration & Intelligent Collaboration
Integrates energy, building automation, HVAC, lighting, and environmental systems into a unified platform, enabling closed-loop management and AI-driven optimization for maximum efficiency and performance.
Open Architecture & Seamless Interoperability
Supports open protocols such as Modbus and BACnet, allowing seamless integration with third-party devices and systems to create a truly connected smart ecosystem.
Full-Stack Security & Reliability
Built on a secure Device–Edge–Cloud architecture, the platform ensures reliable operation, protected data transmission, and robust cybersecurity for critical healthcare environments.
Monitor key equipment within the heating and cooling plant system, such as boilers, chillers, and cooling towers, including supply and return temperatures as well as temperature variations throughout the system.This helps verify whether equipment is operating properly and whether the system is performing underoptimal conditions.
Monitor air handling units (AHUs), fresh air handling units (FAHUs), variable air volume (VAV) units, and fan coil units (FCUs). Functions include temperature and humidity control, scheduling, and automatic start/stop control. Fresh air units operate based on scheduled ventilation and work together with terminal FCUs to achieve effective HVAC control throughout the building.
Automatically control HVAC equipment operation through indoor temperature sensors. Room temperature is regulated by controlling the operation of chilled water or hot water valves. The platform enables real-time monitoring, control, and locking of local controllers in different zones, effectively preventing unnecessary energy consumption.
Centralized management of building supply and exhaust air systems, including fan start/stop control, operating status monitoring, fault alarms, and integration with fire protection systems.
Monitor water levels, pump operating status, and pipeline pressure throughout the system in real time. Control pump operating modes, pump staging, and valve actions to balance water demand and supply while ensuring timely wastewater discharge. This enables efficient, low-energy operation and optimized system performance.
Utilizes multi-in-one air quality sensors to monitor CO2 concentration, temperature, humidity, PM2.5, PM10, formaldehyde, TVOC, and other environmental parameters in real time. HaiLin's air quality monitoringsystem can quickly implement monitoring-based control strategies and automatically coordinate fresh air systems whenever air quality abnormalities are detected.
Monitor and control lighting systems to improve energy efficiency. Lighting operation can be automatically controlled according to predefined schedules and time programs.
Monitor power distribution transformers and electrical parameters on both high-voltage and low-voltage sides of the building's power supply system (or selected parameters as required).
· Supply and return air temperature and humidity monitoring;
· Indoor temperature, humidity, pressure, and differential pressure monitoring;
· Monitoring of operating status, fault alarms, and manual/automatic signal status forair handling units, exhaust fans, and dehumidifiers;
·Variable frequency monitoring of air handling units, exhaust fans, and dehumidifiers;
·Monitoring of the opening status of fresh air valves;
·Monitoring of initial, medium, and high-efficiency filter differential pressure alarm signalsfor air handling units;
·Modulating control of fresh air valves;
·On/off control of supply air valves;
·Modulating control of chilled water valves, steam humidifier valves, and steam valves;
·Setting of variable frequency for air handling units, exhaust fans, and dehumidifiers.
Monitor the pressure and flow of gases such as oxygen, nitrogen, and vacuum in real time to meet the gas supply requirements of ICU, operating rooms, and other critical medical areas. Abnormal conditions trigger alarms and automatically activate standby equipment.
Monitor key water quality indicators for medical wastewater in areas such as infectious disease wards and operating rooms in real time, and implement precise control and standardized management throughout the entire treatment process.
Monitor the pressure and flow of gases such as oxygen, nitrogen, and vacuum in real time to meet the gas supply requirements of ICU, operating rooms, and other critical medical areas. Abnormal conditions trigger alarms and automatically activate standby equipment.
Application Scenarios
Suitable for temperature control and energy-efficient operation across various hospital areas, including outpatient buildings, inpatient wards, operating rooms, and other healthcare facilities.
Coordinated Control Strategy
Based on real-time terminal energy demand, the system dynamically adjusts chiller units, heating and cooling equipment, and network pump parameters to achieve demand-driven energy supply and centralized control, ensuring stable operation while reducing overall system energy consumption.
Heating & Cooling Balance
Managed through the HAI Platform, smart valves continuously optimize hydraulic conditions within the distribution network, eliminating hydraulic imbalance and enabling precise energy allocation based on actual demand, thereby improving overall system efficiency.
Terminal Monitoring & Intelligent Control
Thermostats provide intelligent terminal control, while the HAI Platform collects operational data, analyzes energy demand, and coordinates heating and cooling sources to deliver energy on demand, automatically optimizing system output.
Adaptive Load Management
The system automatically adapts to varying energy demands across different hospital zones and operating schedules, enabling precise control, minimizing energy waste, and maximizing HVAC energy efficiency.
±0.5°C Temperature & Humidity Control; Real-Time Air Quality Compliance; Pressure Differential Control to Prevent Cross-Contamination
Intelligent control of high-energy-consuming equipment; 20–30% energy savings; Extended equipment service life
Automatic Comfort Control; Reduced Manual Intervention; Quiet and Comfortable Care Environment
Advanced Security & Data Protection; Lifecycle Reliability; Predictive Maintenance
Patient safety is non-negotiable. Sustainability is the path forward.
Backed by 27 years of building automation expertise, HaiLin provides integrated solutions that seamlessly combine safety, comfort, and energy efficiency, empowering hospitals to operate smarter, greener, and more reliably.
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