This invention relates to the field of heating, and more particularly to a method for regulating an intelligent district
heating system. First, based on the acquired
outdoor temperature data, a preliminary target value for the
water supply temperature is calculated. Based on this target value, the actual
water supply temperature is obtained through constraint
verification and correction. Then, based on the acquired
outdoor temperature, indoor temperature, and user-set temperature data, a fine-tuning
algorithm for household flow rate is introduced to update the dynamic heat demand
intensity coefficient. Based on the dynamic heat demand
intensity coefficient, the target thermal power is obtained. Based on the target thermal power and the actual
water supply temperature, the ideal circulation flow rate is calculated. Based on the ideal circulation flow rate, the target flow rate value is obtained. Finally, based on the target flow rate value, a
valve opening percentage command is obtained and sent to the
actuator. This method solves the technical problems of fixed water supply temperature operation not matching actual climate changes, lack of safety and operational boundary considerations in water supply
temperature control, and the inability of centralized control to respond to users' differentiated heating characteristics.