Compressorless air conditioning system
Abstract
According to various aspects, the present disclosure provides an air conditioning system. The air conditioning system can be a compressorless air conditioning system. According to at least one aspect, the air conditioning system can include a heat-to-mass extractor and a mass-to-heat converter. The heat-to-mass extractor can be configured to extract moisture from air in a conditioned space without increasing the temperature of the air. The heat-to-mass extractor can include a liquid desiccant, a collector, and a regenerator. The regenerator and the collector can be fluidically coupled via the liquid desiccant. The mass-to-heat converter can be configured to reduce a temperature of the air in the conditioned space via the evaporation of water and can be physically disconnected from the heat-to-mass extractor.
Claims
exact text as granted — not AI-modifiedWhat is claimed is:
1 . A compressorless air conditioning system, comprising:
a heat-to-mass extractor configured to extract moisture from air in a conditioned space without increasing the temperature of the air, the heat-to-mass extractor comprising:
a liquid
desiccant; a
collector; and
a regenerator, wherein the regenerator and the collector are fluidically coupled via the liquid desiccant;
a mass-to-heat converter configured to reduce a temperature of the air in the conditioned space via evaporation of water, wherein the mass-to-heat converter is physically disconnected from the heat-to-mass extractor; and a control system communicably coupled with the heat-to-mass extractor and the mass-to-heat converter.
2 . The compressorless air conditioning system of claim 1 , wherein the control system is wirelessly coupled with the heat-to-mass extractor and the mass-to-heat converter.
3 . The compressorless air conditioning system of claim 1 , wherein the compressorless air conditioning system comprises a ductless air conditioning system.
4 . The compressorless air conditioning system of claim 1 , wherein the liquid desiccant is configured to purify air in the conditioned space.
5 . The compressorless air conditioning system of claim 1 , further comprising a plurality of heat-to-mass extractors.
6 . The compressorless air conditioning system of claim 1 , further comprising a plurality of mass-to-heat converters.
7 . A compressorless air conditioning system, comprising:
a heat-to-mass extractor configured to utilize a liquid desiccant to control humidity in a conditioned space, wherein the heat-to-mass extractor utilizes low grade heat as a source of energy; a mass-to-heat converter configured to utilize water to control temperature in the conditioned space; and a control system communicably coupled with the heat-to-mass extractor and the mass-to-heat converter.
8 . The compressorless air conditioning system of claim 7 , wherein the low-grade heat is associated with one of the following:
a solar thermal collector; an industrial process; a geothermal system; and a hot water system.
9 . The compressorless air conditioning system of claim 7 , wherein the mass-to-heat converter is physically disconnected from the heat-to-mass extractor.
10 . The compressorless air conditioning system of claim 7 , wherein the compressorless air conditioning system is a ductless air conditioning system.
11 . The compressorless air conditioning system of claim 7 , wherein the liquid desiccant is configured to purify air in the conditioned space.
12 . The compressorless air conditioning system of claim 7 , further comprising a plurality of heat-to-mass extractors.
13 . The compressorless air conditioning system of claim 7 , further comprising a plurality of mass-to-heat converters.
14 . A compressorless air conditioning system, comprising:
a heat-to-mass extractor configured to utilize a liquid desiccant to purify air in a conditioned space; a mass-to-heat converter configured to reduce a temperature of the air in the conditioned space via evaporation of water, wherein the mass-to-heat converter is physically disconnected from the heat-to-mass extractor; and a control system wirelessly coupled with the heat-to-mass extractor and the mass-to-heat converter.
15 . The compressorless air conditioning system of claim 14 , wherein the liquid desiccant comprises a first liquid desiccant at a first concentration, wherein the mass-to-heat converter comprises a second liquid desiccant at a second concentration to further purify air in the conditioned space, and wherein the second concentration is less than the first concentration.
16 . The compressorless air conditioning system of claim 14 , further comprising a plurality of heat-to-mass extractors.
17 . The compressorless air conditioning system of claim 14 , further comprising a plurality of mass-to-heat converters.
18 . A compressorless air conditioning system, comprising:
a heat-to-mass extractor configured to utilize a liquid desiccant to extract moisture from air in a conditioned space; a mass-to-heat converter configured to utilize water to reduce a temperature of the air in the conditioned space; and a control system comprising:
a humidistat coupled to the heat-to-mass extractor; and
a thermostat coupled to the mass-to-heat converter, wherein the compressorless air conditioning system is a ductless air conditioning system.
19 . The compressorless air conditioning system of claim 18 , wherein the heat-to-mass extractor and the mass-to-heat converter are physically uncoupled.
20 . The compressorless air conditioning system of claim 18 , wherein:
air output from the mass-to-heat converter mixes with air in the conditioned space; and air output from the heat-to-mass extractor mixes with the air in the conditioned space.
21 . The compressorless air conditioning system of claim 18 , further comprising a plurality of heat-to-mass extractors.
22 . The compressorless air conditioning system of claim 18 , further comprising a plurality of mass-to-heat converters.
23 . An air conditioning system, comprising:
an extractor configured to move moisture between a conditioned space and an external space, the extractor comprising:
a liquid
desiccant; a
collector; and
a regenerator, wherein the regenerator comprises a compressor, and wherein the regenerator and the collector are fluidically coupled via the liquid desiccant;
a converter positioned in the conditioned space and physically disconnected from the extractor; and a control system communicably coupled with the extractor and the converter.
24 . The air conditioning system of claim 23 , wherein the regenerator further comprises a heat exchanger coupled with the compressor.
25 . The air conditioning system of claim 23 , wherein the compressor is thermally coupled with the liquid desiccant.
26 . The air conditioning system of claim 23 , wherein the converter is configured for evaporative cooling, the converter comprising:
media; a sump configured to hold water; a pump configured to pump the water from the sump to the media, wherein the water flows over the media and returns to the sump; a compartment configured to hold air, wherein the compartment comprises an inlet and an outlet; a fan configured to draw air from the conditioned space into the compartment through the inlet and force air out of the compartment to the conditioned space through the outlet; means for chlorinating the water; and a carbon filter positioned to collect chlorine from the air moving through the outlet.
27 . The air conditioning system of claim 26 , wherein the means for chlorinating water comprises an electrolyzer.
28 . An air conditioning system, comprising:
a regenerator positioned in an external environment; a split collector spanning a conditioned environment and the external environment; a first sump associated with the split collector and at least partially positioned in the conditioned environment; a second sump associated with the regenerator and positioned in the external environment; liquid desiccant; and a plurality of separate and discrete tubes extending between the first sump and the second sump, wherein the plurality of tubes comprises:
a supply tube;
a return tube; and
a balancing tube configured to equalize fluid levels between the first sump and the second sump.
29 . A water evaporator, comprising:
media; a sump configured to hold water; a pump configured to pump the water from the sump to the media, wherein the water flows over the media and returns to the sump; a fan configured to force air across the media; means for chlorinating the water; and a carbon filter positioned to collect chlorine from air after the air is forced across the media.
30 . The water evaporator of claim 29 , wherein the means for chlorinating the water comprises an electrolyzer.Join the waitlist — get patent alerts
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