초록 ▼

A microprocessor-based perimeter thermal energy control system regulates heating and cooling in the perimeter area of a building in accordance with instantaneous and integrated heat flow measurements and instantaneous temperature deviation measurements. Control of heat pumps and air conditioning uni

A microprocessor-based perimeter thermal energy control system regulates heating and cooling in the perimeter area of a building in accordance with instantaneous and integrated heat flow measurements and instantaneous temperature deviation measurements. Control of heat pumps and air conditioning units is provided as is automatic switching between heating and cooling. The inherent thermal parameters of the space are inductively determined and used by the system to continually self-adapt to the heat flow properties of the space. The gain of the heat flow based control system is varied automatically as a function of the deviation between the actual space temperature and the desired set point temperature. Morning recovery is initiated and regulated in response to instantaneous and integrated heat flow measurements and inductively determined thermal space parameters and produces a near linear stepwise change in the temperature of the space from night setback to occupancy temperature.

대표청구항 ▼

A method for regulating a building thermal energy control system comprising: storing in a data memory a predetermined set point temperature for a building space; measuring the temperature of the space by use of a temperature sensor which is reactive to the instantaneous temperature of the space to g

A method for regulating a building thermal energy control system comprising: storing in a data memory a predetermined set point temperature for a building space; measuring the temperature of the space by use of a temperature sensor which is reactive to the instantaneous temperature of the space to generate instantaneous temperature signals proportional thereto; entering said instantaneous temperature signals into the data memory; comparing said set point temperatures with said instantaneous temperature signals in the data processor to produce temperature deviation signals; measuring over an extended period of time the magnitude and direction of heat flow through an envelope surrounding said building space, said envelope being exposed to outside weather conditions and said measurements being made by a heat flow sensor which is reactive to the instantaneous magnitude and direction of heat flow through said envelope to generate instantaneous heat flow signals proportional thereto; storing said instantaneous heat flow signals in the data memory over said extended period of time; summing said instantaneous heat flow signals in a data processor to produce control signals having magnitudes and signs representative of the net magnitudes and directions of said summations of said instantaneous heat flow signals; producing output signals form the data processor in response to the magnitudes and signs of said control signals; varying the gain of said output signals in accordance with said temperature deviation signals so that said gain increases and decreases in proportion to increases and decreases in the magnitudes of said temperature deviation signals; applying the output signals to interface means which operates a thermal energy control system adapted to introduce thermal energy into the building space; and regulating the operation of said thermal energy control system in response to the gain of said output signals to introduce thermal energy at a higher rate when the temperature deviation signals are relatively large and at a lower rate when the temperature deviation signals are relatively small.