초록 ▼

There is provided a heat pump system including two (4, 6), at least similar units in fluid communication with each other, each unit having a housing (8,8'), a first air/brine heat exchanger (12,12'), a second brine/refrigerant heat exchanger ( 24,24'), a brine inlet (10,10') for applying brine onto

There is provided a heat pump system including two (4, 6), at least similar units in fluid communication with each other, each unit having a housing (8,8'), a first air/brine heat exchanger (12,12'), a second brine/refrigerant heat exchanger ( 24,24'), a brine inlet (10,10') for applying brine onto at least one of the heat exchangers, a brine reservoir (14,14') and a pump (28) for circulating the brine from the reservoir to the inlet. The first and second heat exchangers are in closed loop fluid communication with each other and have a compressor (44) for circulating a refrigerant therethrough in selected directions.

대표청구항 ▼

I claim: 1. A heat pump system comprising: two, substantially similar units in fluid communication with each other, each unit including a housing, a forced-air counter-flow air/brine heat exchanger, a brine/refrigerant heat exchanger, brine inlet means for applying brine onto at least one of said

I claim: 1. A heat pump system comprising: two, substantially similar units in fluid communication with each other, each unit including a housing, a forced-air counter-flow air/brine heat exchanger, a brine/refrigerant heat exchanger, brine inlet means for applying brine onto at least one of said heat exchangers, a brine reservoir and means for circulating said brine from the reservoir to said inlet means, said brine/refrigerant heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction, and for reversing the sense of circulation of the refrigerant inside said closed loop. 2. A heat pump system, comprising: two, substantially similar units in fluid communication with each other, each unit including a housing, brine inlet means at the top portion thereof, a first air/brine heat exchanger located adjacent said brine inlet means, a brine reservoir at the lower part of said housing and means for introducing forced air into brine-dripping space delimited between said first heat exchanger and said reservoir to produce a counter-flow air/brine heat exchanger, and a second heat exchanger in liquid communication with said brine inlet means and said reservoir; the reservoir of each unit being in liquid communication with each other; said second heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction, and for reversing the sense of circulation of the refrigerant inside said closed loop, and means for circulating brine between said reservoir and said second heat exchanger of each unit. 3. The heat pump system as claimed in claim 1, wherein said brine inlet means are drip or spray nozzles. 4. The heat pump system as claimed in claim 2, wherein said means for introducing air is a blower. 5. The heat pump system as claimed in claim 1, wherein said housing is common to said first and second heat exchangers. 6. The heat pump system as claimed in claim 5, wherein said brine inlet means is located above said first and second heat exchangers. 7. The heat pump system as claimed in claim 2, wherein said first heat exchanger is an air/brine heat exchanger. 8. The heat pump system as claimed in claim 1, further comprising a third heat exchanger affixed on brine circulating pipes, interconnecting said reservoirs. 9. The heat pump system as claimed in claim 8, wherein at least said unit and said second and third heat exchangers are made of materials non-corrosive to brine. 10. The heat pump system as claimed in claim 1, further comprising a throttle valve affixed on a refrigerant carrying pipe interconnecting said second heat exchangers. 11. The heat pump system as claimed in claim 1, wherein at least one of said reservoirs is further provided with water inlet means for adding water to the brine. 12. A heat pump system, comprising: two substantially similar or identical units in fluid communication with each other, each unit including a housing, an air/brine heat exchanger, a brine refrigerant heat exchanger, brine inlet means for applying brine into at least one of said heat exchangers, a brine reservoir and means for circulating said brine from the reservoir to said inlet means, said brine/refrigerant heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction, and for reversing the sense of circulation of the refrigerant inside said close loop, and ambient air heating means for heating the ambient air prior to the introduction thereof into said housing. 13. The heat pump system as claimed in claim 12, wherein said heating means is a water/air heat exchanger. 14. A heat pump system, comprising: two substantially similar or identical units in fluid communication with each other, each unit including a housing, an air/brine heat exchanger, a brine refrigerant heat exchanger, brine inlet means for applying brine into at least one of said heat exchangers, a brine reservoir and means for circulating said brine from the reservoir to said inlet means, said brine/refrigerant heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction, and for reversing the sense of circulation of the refrigerant inside said closed loop, and an external humidity source for adding humidity to ambient air introducible into said housing. 15. The heat pump system as claimed in claim 14, wherein said humidity source is a plant. 16. A method of air conditioning, comprising: providing a heat pump system as claimed in claim 1, wherein the refrigerant's evaporator and the refrigerant's condenser exchange heat with brine solution, whereby the temperature of condensation of said refrigerant is reduced while the temperature of said evaporator is raised, thereby increasing the efficiency of the system. 17. The method as claimed in claim 16, wherein said first heat exchanger is thermally associated with said refrigerant's evaporator. 18. The method as claimed in claim 16, wherein said first heat exchanger is thermally associated with said refrigerant's condenser. 19. A method for air conditioning, comprising: providing a heat pump system having two substantially similar or identical units in fluid communication with each other, each unit including a housing, an air/brine heat exchanger, a brine refrigerant heat exchanger, brine inlet means for applying brine into at least one of said heat exchangers, a brine reservoir and means for circulating said brine from the reservoir to said inlet means, said brine/refrigerant heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction, and for reversing the sense of circulation of the refrigerant inside said closed loop, wherein the refrigerant's evaporator and the refrigerant's condenser exchange heat with brine solution, whereby the temperature of condensation of said refrigerant is reduced while the temperature of said evaporator is raised, thereby increasing the efficiency of the system, and wherein said means for circulating the brine is adapted to circulate brine at a higher rate than the rate of circulation of the brine between said two reservoirs. 20. The heat pump as claimed in claim 1, further comprising means for circulating brine between said reservoirs. 21. A heat pump, comprising: two substantially similar or identical units in fluid communication with each other, each unit including a housing, an air/brine heat exchanger, a brine refrigerant heat exchanger, brine inlet means for applying brine into at least one of said heat exchangers, a brine reservoir and means for circulating said brine from the reservoir to said inlet means; said brine/refrigerant heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction and for reversing the sense of circulation of the refrigerant inside said closed loop; and means for circulating brine between said reservoirs adapted to circulate brine at a lower rate than the rate of circulation of brine between the reservoirs and said inlet means. 22. The heat pump as claimed in claim 20, wherein said means for circulating brine between said reservoirs are adapted to circulate brine at a lower rate than the rate of circulation of brine between the reservoirs and the second heat exchanger of each unit. 23. A heat pump system, comprising: two substantially similar units in fluid communication with each other, each unit including a housing, brine inlet means at the top portion thereof, a first heat exchanger located adjacent said brine inlet means, a brine reservoir at the lower part of said housing and means for introducing air into brine-dripping space delimited between said first heat exchanger and said reservoir, and a second heat exchanger in liquid communication with said brine inlet means and said reservoir; the reservoirs of said units being in liquid communication with each other; said second heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction and for reversing the sense of circulation of the refrigerant inside said closed loop; means for circulating brine between said reservoir and said second heat exchanger of each unit, and ambient air heating means for heating the ambient air prior to the introduction thereof into said housing. 24. The heat pump system as claimed in claim 23, wherein said heating means is a water/air heat exchanger. 25. A heat pump system, comprising: two substantially similar units in fluid communication with each other, each unit including a housing, brine inlet means at the top portion thereof, a first heat exchanger located adjacent said brine inlet means, a brine reservoir at the lower part of said housing and means for introducing air into brine-dripping space delimited between said first heat exchanger and said reservoir, and a second heat exchanger in liquid communication with said brine inlet means and said reservoir; the reservoirs of said units being in liquid communication with each other; said second heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction and for reversing the sense of circulation of the refrigerant inside said closed loop; means for circulating brine between said reservoir and said second heat exchanger of each unit, and an external humidity source for adding humidity to ambient air introducible into said housing. 26. The heat pump system as claimed in claim 25, wherein said humidity source is a plant. 27. A method for air conditioning, comprising: providing a heat pump system having two substantially similar units in fluid communication with each other, each unit including a housing, brine inlet means at the top portion thereof, a first heat exchanger located adjacent said brine inlet means, a brine reservoir at the lower part of said housing and means for introducing air into brine-dripping space delimited between said first heat exchanger and said reservoir, and a second heat exchanger in liquid communication with said brine inlet means and said reservoir; the reservoirs of said units being in liquid communication with each other; said second heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction and for reversing the sense of circulation of the refrigerant inside said closed loop; means for circulating brine between said reservoir and said second heat exchanger of each unit; wherein the refrigerant's evaporator and the refrigerant's condenser exchanger heat with brine solution, whereby the temperature of condensation of said refrigerant is reduced while the temperature of said evaporator is raised, thereby increasing the efficiency of the system, and wherein said means for circulating the brine is adapted to circulate brine at a higher rate than the rate of circulation of the brine between said two reservoirs. 28. A heat pump system, comprising: two substantially similar units in fluid communication with each other, each unit including a housing, brine inlet means at the top portion thereof, a first heat exchanger located adjacent said brine inlet means, a brine reservoir at the lower part of said housing and means for introducing air into brine-dripping space delimited between said first heat exchanger and said reservoir, and a second heat exchanger in liquid communication with said brine inlet means and said reservoir; the reservoirs of said units being in liquid communication with each other; said second heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in a selected direction and for reversing the sense of circulation of the refrigerant inside said closed loop, and means for circulating brine between said reservoir and said second heat exchanger of each unit, wherein said means for circulating brine are adapted to circulate brine at a lower rate than the rate of circulation of brine between the reservoirs and the second heat exchanger of each unit. id="INS-S-00001" date="20060919" 29. A heat pump system, comprising: two units in fluid communication with each other, each unit including: a housing, an air/brine heat exchanger, a brine/refrigerant heat exchanger, brine inlet means for applying brine onto at least one of said heat exchangers, a brine reservoir and means for circulating said brine from the reservoir to said inlet means; said brine/refrigerant heat exchangers of said units being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in selected directions, and means for circulating brine between said reservoirs, wherein said means for circulating the brine between said reservoirs are adapted to circulate brine at a lower rate than the rate of circulation of the brine between said reservoirs and said brine inlet means.id="INS-S-00001" id="INS-S-00002" date="20060919" 30. A heat pump system, comprising: two units in fluid communication with each other, each unit including: a housing, brine inlet means at the top portion thereof, a first heat exchanger located adjacent said brine inlet means, a brine reservoir at the lower part of said housing, and means for introducing air into brine-dripping space delimited between said first heat exchanger and said reservoir, and a second heat exchanger in liquid communication with said brine inlet means and said reservoir; said second heat exchangers being in closed loop fluid communication with each other and having compressor means for circulating a refrigerant therethrough in selected directions, and means for circulating brine between said reservoir and said second heat exchanger of each unit, and means for circulating brine between said reservoirs, wherein said means for circulating the brine between said reservoirs are adapted to circulate brine at a lower rate than the rate of circulation of the brine between said reservoirs and said second heat exchanger of each unit. id="INS-S-00002" id="INS-S-00003" date="20060919" 31. The heat pump system as claimed in claim 29, wherein the reservoirs of each unit are in liquid communication with each other.id="INS-S-00003" id="INS-S-00004" date="20060919" 32. The heat pump system as claimed in claim 30, further comprising a third heat exchanger affixed on brine circulating pipes, interconnecting said reservoirs.id="INS-S-00004" id="INS-S-00005" date="20060919" 33. The heat pump system as claimed in claim 32, wherein at least said unit and said second and third heat exchangers are made of materials non- corrosive to brine.id="INS-S-00005" id="INS-S-00006" date="20060919" 34. The heat pump system as claimed in claim 30, further comprising a throttle valve affixed to a refrigerant-carrying pipe interconnecting said second heat exchangers.id="INS-S-00006" id="INS-S-00007" date="20060919" 35. The heat pump system as claimed in claim 29, wherein at least one of said reservoirs is further provided with water inlet means for adding water to the brine.id="INS-S-00007" id="INS-S-00008" date="20060919" 36. The heat pump system as claimed in claim 29, further comprising ambient air heating means for heating the ambient air prior to the introduction thereof into said housing.id="INS-S-00008" id="INS-S-00009" date="20060919" 37. The heat pump system as claimed in claim 36, wherein said heating means is a water/air heat exchanger.id="INS-S-00009" id="INS-S-00010" date="20060919" 38. The heat pump system as claimed in claim 29, further comprising an external humidity source for adding humidity to ambient air introducible into said housing.id="INS-S-00010" id="INS-S-00011" date="20060919" 39. The heat pump system as claimed in claim 38, wherein said humidity source is a plant.id="INS-S-00011" id="INS-S-00012" date="20060919" 40. A method for air conditioning, comprising: providing a heat pump system as claimed in claim 29 and further including a refrigerant evaporator and a refrigerant condenser, wherein the refrigerant evaporator and the refrigerant condenser exchange heat with brine solution, whereby the temperature of condensation of said refrigerant is reduced while the temperature of said evaporator is raised, thereby increasing the efficiency of the system. id="INS-S-00012" id="INS-S-00013" date="20060919" 41. The method as claimed in claim 40, wherein said air/brine heat exchanger is thermally associated with said refrigerant evaporator.id="INS-S-00013" id="INS-S-00014" date="20060919" 42. The method as claimed in claim 40, wherein said air/brine heat exchanger is thermally associated with said refrigerant condenser.id="INS-S-00014" id="INS-S-00015" date="20060919" 43. A dehumidifier system comprising: a dehumidifying chamber into which moist air is introduced and from which less moist air is removed after dehumidification; a desiccant solution situated in two reservoirs; a first conduit via which desiccant solution is transferred from a first reservoir of said two reservoirs to the dehumidifying chamber, said solution being returned to said first reservoir after absorbing moisture from the moist air; a regenerator which receives desiccant solution from a second reservoir of said two reservoirs and removes moisture from it; a second conduit via which desiccant is transferred from said second reservoir to the regenerator, said solution being returned to said second reservoir after moisture is removed from it; a heat pump that transfers heat from the solution in the first conduit to the solution in the second conduit, and means for circulating desiccant solution between said reservoirs, wherein said means for circulating the desiccant between said reservoirs are adapted to circulate desiccant at a lower rate than the rate of transfer of said desiccant from said reservoirs to at least one of said dehumidifying chamber and said regenerator.id="INS-S-00015" id="INS-S-00016" date="20060919" 44. A dehumidifier system comprising: a dehumidifying chamber into which moist air is introduced and from which less moist air is removed after dehumidification; a desiccant solution situated in a first reservoir; a first conduit via which desiccant solution is transferred from the first reservoir to the dehumidifying chamber, said solution being returned to said first reservoir after absorbing moisture from the moist air; a desiccant solution situated in a second reservoir; a regenerator which receives desiccant solution from the second reservoir and removes moisture from it; a second conduit via which desiccant is transferred from the second reservoir to the regenerator, said solution being returned to said second reservoir after moisture is removed from it; and means for circulating desiccant solution between said reservoirs, wherein a substantial temperature differential is maintained between the first and second reservoirs, and wherein said means for circulating the desiccant between said reservoirs are adapted to circulate desiccant at a lower rate than the rate of circulation of the desiccant between said reservoirs and at least one of said dehumidifying chamber and said regenerator.id="INS-S-00016" id="INS-S-00017" date="20060919" 45. A method for air conditioning, comprising: providing a heat pump system as claimed in claim 30 and further including a refrigerant evaporator and a refrigerant condenser, wherein the refrigerant evaporator and the refrigerant condenser exchange heat with brine solution, whereby the temperature of condensation of said refrigerant is reduced while the temperature of said evaporator is raised, thereby increasing the efficiency of the system. id="INS-S-00017" id="INS-S-00018" date="20060919" 46. The method as claimed in claim 45, wherein said first heat exchanger is thermally associated with said refrigerant evaporator.id="INS-S-00018" id="INS-S-00019" date="20060919" 47. The method as claimed in claim 45, wherein said first heat exchanger is thermally associated with said refrigerant condenser.id="INS-S-00019"