System for heating a liquid including a high-efficiency heater and an optimizer
A system ( 1 ) for heating liquids includes an hydrosonic pump ( 2 ) for the heating of the mentioned liquid; a primary circuit ( 3 ) in turn comprising, at least: a storage ( 30 ) of the above-mentioned liquid or a heat exchanger ( 45 ); a plurality of pipes ( 31, 32 ), in order to get a mutual connection with the mentioned storage ( 30 ) or heat exchanger ( 45 ) with the said hydrosonic pump ( 20 ), at least one solenoid valve ( 34 ), to open and/or close the liquid circulation within the mentioned primary circuit ( 3 ), at least one sectioning valve ( 8 ), in order to adjust the flow rate of the mentioned liquid output from the said hydrosonic pump ( 2 ). The system ( 1 ) further comprises an optimizer ( 5 ) connected to and placed downstream of said hydrosonic pump ( 2 ), the optimizer cooperating with at least said primary circuit ( 3 ) to which it gives and transfers the thermal energy produced by said hydrosonic pump ( 2 ), said optimizer ( 5 ) comprising a low-capacity storage tank ( 52 ), operating at high pressure and thermally insulated.
1. A system for heating a liquid comprising at least
a hydrosonic pump for heating said liquid,
a primary circuit comprising at least:
a storage of said liquid, or a heat exchange unit
a plurality of pipes for mutual connection of said storage or said heat exchange unit with said hydrosonic pump
at least one solenoid valve to open and/or close the liquid circulation within the said primary circuit,
wherein it further comprises an optimizer connected to and placed downstream of said hydrosonic pump and cooperating with at least said primary circuit to give and transfer thereto the thermal energy produced by said hydrosonic pump, said optimizer comprising a storage tank:
of reduced volume, intermediate the one of a conventional liquid storage and a hydraulic compensator;
capable of withstanding and working at high pressure;
thermally insulated,
said optimizer comprising at least one sectioning valve in order to control the flow rate of said liquid circulating in said hydrosonic pump, placed within an internal circuit preferably along a return pipe of said optimizer, operating and ensuring a temperature gradient ΔToptimizer between an inlet and outlet liquid equal to the gradient ΔTideal between an inlet and outlet temperature of said hydrosonic pump to facilitate maximum efficiency and energy performance.
2. The system for heating a liquid according to claim 1 , wherein the fact that at least one solenoid valve is configured to stop and/or re-establish the flow of the liquid from said optimizer towards said primary circuit, said solenoid valve being arranged to be connected to sensors and/or temperature probes placed in the internal circuit and preferably along the return pipe or the delivery pipe of the abovementioned optimizer.
3. The system for heating a liquid according to claim 2 , wherein the fact that said at least one solenoid valve is located along the outflow line or the return line of said plurality of pipes of said primary circuit.
4. The system for heating a liquid according to claim 1 , wherein further comprising an additional secondary circuit for dissipating heat generated in said hydrosonic pump and transmitted to said liquid, said secondary circuit cooperating and/or being connected to said primary circuit.
5. The system for heating a liquid according to claim 4 , wherein the fact that said secondary circuit comprises at least:
a heat exchange unit which includes at least one radiator, and/or
one or more coil heat exchangers placed within said storage of said primary circuit, and/or
direct supply devices.
6. The system for heating a liquid according to claim 1 , further including an additional expansion vase.
7. The system for heating a liquid based according to claim 1 , including one or more circulation pumps within said primary and secondary circuits.
8. The system for heating a liquid according to claim 1 , wherein the fact that the reservoir of the abovementioned optimizer has a capacity in the range of 7 and 15 litres, and it is capable of withstanding pressures of even more than 20 bar.
9. The system for heating a liquid according to claim 1 , wherein the fact that the flow rate of the circulating liquid is constantly kept by the sectioning valve between 200 and 300 litres/h, proceeds with a ΔTideal gradient equal to approximately 30° C. with reference to an outlet/delivery temperature of approximately 130° C. and a return temperature within the turbine of about 100° C.; otherwise, the abovementioned flow rate proceeds with a ΔTideal gradient equal to approximately 35° C. with reference to an outlet/delivery temperature of approximately 145° C. and a return temperature within the turbine of about 110° C.
10. The system for heating a liquid according to claim 1 , wherein the fact that at least said hydrosonic pump, its motor and said optimizer are arranged and mounted stacked vertically on plural levels and on a frame or chassis.