System for supplying electricity, heat, and water using a Stirling engine powered by sustainable energy sources

An interior space climate control system comprising a temperature differential engine, a first opposing temperature source, a second opposing temperature source, a third opposing temperature source, source sufficiency sensors, source regulators, excess fluid regulators, an electrical transmission line, a first fluid conveyance inlet, a first fluid conveyance outlet, a second fluid conveyance inlet, a second fluid conveyance outlet, a third fluid conveyance inlet, and a third fluid conveyance outlet, a first fluid flow exploitation stream, a reverse first fluid flow exploitation stream, a second fluid flow exploitation stream, a reverse second fluid flow exploitation stream, a first fluid reservoir, and a second fluid reservoir;

• a. with the first fluid conveyance inlet configured to convey a first fluid from the first opposing temperature source into the temperature differential engine, the first fluid conveyance outlet configured to convey the first fluid out of the temperature differential engine;
• b. with the second fluid conveyance inlet configured to convey a second fluid from the second opposing temperature source into the temperature differential engine, the second fluid conveyance outlet configured to convey the second fluid out of the temperature differential engine;
• c. with the third fluid conveyance inlet configured to convey a third fluid from the third opposing temperature source into the temperature differential engine, the third fluid conveyance outlet configured to convey the third fluid out of the temperature differential engine;
• d. with the temperature differential engine comprising a piston sheath, a piston and piston spring disposed within the piston sheath, a displacer and displacer spring disposed within the piston sheath, a coil tube configured to receive the first fluid, and an immersion sink configured to receive the second fluid,
• i. with the piston and displacer configured to undergo reciprocating alternative cycles;
• ii. with the temperature differential engine configured to generate electricity using a temperature differential between fluid in the immersion sink and fluid in the coil tube and to transmit the generated electricity via the electrical transmission line;
• e. with the source sufficiency sensors configured to determine if there is sufficient fluid flow or volume in the first or second opposing temperature sources;
• f. with the source regulators configured to direct the third opposing temperature source to replace the first opposing temperature source if the source sufficiency detector determines that fluid flow in the first opposing temperature source is less than a given first fluid flow volumetric or temperature threshold;
• g. with the source regulators configured to direct the third opposing temperature source to replace the second opposing temperature source if the source sufficiency detector determines that fluid flow in the second opposing temperature source is less than a given second fluid flow volumetric threshold or greater than a given second fluid flow temperature threshold;
• h. with the excess fluid regulators configured to direct excess fluid from the first fluid to the first fluid flow exploitation stream, with the first fluid flow exploitation stream providing fluid for heating and hot water in an interior space;
• i. with the excess fluid regulators configured to direct excess fluid from the second fluid to the second fluid flow exploitation stream, with the second fluid flow exploitation stream providing cooling fluid for use in refrigeration and air conditioning;
• j. with the excess fluid regulators configured to direct excess hot fluid from heating and hot water to the reverse first fluid flow exploitation stream, with the reverse first fluid flow exploitation stream configured to convey the excess hot fluid to the first fluid reservoir;
• k. with the excess fluid regulators configured to direct excess cool fluid from refrigeration and air conditioning to the reverse second fluid flow exploitation stream, with the reverse second fluid flow exploitation stream configured to convey the excess cool fluid to the second fluid reservoir;
• l. with the first opposing temperature source being liquid heated via a solar heat collector;
• i. with the solar heat collector comprising an exposure vessel, with the exposure vessel configured to expose the liquid to sunlight to receive solar radiation;
• ii. with the solar heat collector configured to convey the liquid to the first fluid flow conveyance inlet;
• m. with the second opposing temperature source being fluid from a geothermal well, with the geothermal well being disposed underground;
• n. with the third opposing temperature source being ambient above-ground air;
• o. with the source regulators and the excess fluid regulators each comprising set of valves for controlling fluid flow;
• p. with the first fluid reservoir configured to receive the first fluid and the excess hot fluid if electrical generation is not required by end users of the interior space climate control system and to convey the first fluid and the excess hot fluid to the first fluid conveyance inlet if electrical generation is required;
• q. with the first fluid reservoir configured to convey the first fluid and the excess hot fluid to the first fluid flow exploitation stream if electrical generation is not required but heating and hot water are required by end users of the interior space climate control system;
• r. with the second fluid reservoir configured to convey the second fluid and excess cold fluid to the second fluid flow exploitation stream if electrical generation is not required but refrigeration or air condition is required;
• s. with the second fluid reservoir configured to convey the second fluid and excess cold fluid to the second fluid conveyance inlet if electrical generation is required.