Heat exchange system

Claim 2

A heat exchange element used in an absorption refrigerator, comprising: a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions; sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other and a net-like member provided in each gap between adjacent fins of said bellows-fin in one of said two chambers; wherein said net-like member has-three-porous layers adapted to provide different fluid flow rates, the flow rate in outer layers being slower than the flow rate in an intermediate layer sandwiched between said outer layers.

Claim 3

The heat exchange element according to claim 1, wherein said net-like member is an expanded metal.

Claim 4

The heat exchange element according to claim 1, wherein said net-like member is provided in each gap between adjacent fins of said bellows-fin in both of said two chambers.

Claim 5

The heat exchange element according to claim 3, wherein said net-like member is an expanded metal.

Claim 6

The heat exchange element according to claim 1, wherein said heat exchange system to which said element is adapted, includes an absorption refrigerator.

Claim 7

The heat exchange element of claim 1, wherein said wave-shaped bellows fin is linear.

Claim 8

The heat exchange element of claim 6, wherein said linear bellows-fin is disposed vertically in said absorption refrigerator.

Claim 9

The heat exchange element of claim 7, wherein a concentration solution is supplied through one of said chambers and cooling fluid is supplied through another one of said chambers such that the concentration solution absorbs refrigerant vapor generated in an evaporator and is converted to a diluted solution.

Claim 10

The heat exchange system of claim 7, wherein an inlet to a first of said chambers is provided at a first end of said bellows-fin and an outlet from said first chamber is provided at a second, opposite end of said bellows-fin.

Claim 11

The heat exchange element of claim 9, wherein an inlet to a second of said chambers is provide at said second end an outlet from said second chamber is provided at said first end.

Claim 12

The heat exchange element of claim 6, wherein said linear bellows-fin is disposed horizontally in said absorption refrigerator.

Claim 13

The heat exchange element of claim 11, wherein a concentration solution is supplied through one of said chambers and cooling fluid is supplied through another one of said chambers such that the concentration solution absorbs refrigerant vapor generated in an evaporator and is converted to a diluted solution.

Claim 14

The heat exchange system of claim 11, wherein an inlet to a first of said chambers is provided at a first end of said bellows-fin and an outlet from said first chamber is provided at a second, opposite end of said bellows-fin.

Claim 15

The heat exchange element of claim 13, wherein an inlet to a second of said chambers is provide at said second end and an outlet from said second chamber is provided at said first end.

Claim 16

A heat exchange element used in an absorption refrigerator, comprising: a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions; and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent fins of said bellows-fin in one of said two chambers; wherein said net-like member includes three layers, outer ones being in the form of textile metallic nets and intermediate ones therebetween being in the form of an expanded metal.

Claim 17

A heat exchange element used in an absorption refrigerator, comprising: a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions; and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent fins of said bellows-fin in one of said two chambers; wherein said net-like member includes three layers, outer ones being in the form of textile metallic nets and intermediate ones therebetween being in the form of an expanded metal.

Claim 18

The heat exchange element according to claim 15, wherein said net-like member is provided in each gap between adjacent fins of said bellows-fin in both of said two chambers.

Claim 19

A heat exchange system comprising: a regenerator having a heat source for heating diluted solution; a separator for separating said solution heated in said regenerator into refrigerant in the form of vapor and concentration solution; a solution heat exchanger for performing heat-exchange between said concentration solution supplied from said separator and said diluted solution; a condenser for condensing said refrigerant in the form of vapor supplied from said separator to obtain said refrigerant in the form of liquid; an evaporator for dispersing said refrigerant in the form of liquid supplied from said condenser onto a cooling device to obtain cool water from said cooling device; an absorber for dispersing said concentration solution subjected to the heat-exchange so that said concentration solution absorbs said refrigerant; a solution circulating pump for supplying diluted solution, which has absorbed said refrigerant in said absorber, through said solution exchanger to said regenerator; and wherein at least one of said solution heat exchanger, said condenser, said evaporator and said absorber includes a heat exchange element having a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions, and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent fins of said bellows-fin in one of said two chambers, wherein said net-like member has-three-porous layers adapted to provide different fluid flow rates, the flow rate in outer layers being slower than the flow rate in an intermediate layer sandwiched between said outer layers.

Claim 20

A heat exchange system comprising: a regenerator having a heat source for heating diluted solution; a separator for separating said solution heated in said regenerator into refrigerant in the form of vapor and concentration solution; a solution heat exchanger for performing heat-exchange between said concentration solution supplied from said separator and said diluted solution; a condenser for condensing said refrigerant in the form of vapor supplied from said separator to obtain said refrigerant in the form of liquid; an evaporator for dispersing said refrigerant in the form of liquid supplied from said condenser onto a cooling device to obtain cool water from said cooling device; an absorber for dispersing said concentration solution subjected to the heat-exchange so that said concentration solution absorbs said refrigerant; a solution circulating pump for supplying diluted solution, which has absorbed said refrigerant in said absorber, through said solution exchanger to said regenerator; and wherein at least one of said solution heat exchanger, said condenser, said evaporator and said absorber includes a heat exchange element having a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions, and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent fins of said bellows-fin in one of said two chambers, wherein said net-like member has-three-porous layers adapted to provide different fluid flow rates, the flow rate in outer layers being slower than the flow rate in an intermediate layer sandwiched between said outer layers.

Claim 21

The heat exchange system according to claim 17 wherein said net-like member is an expanded metal.

Claim 22

The heat exchange system according to claim 17, said net-like member is provided in each gap between adjacent fins of said bellows-fin in both of said two chambers.

Claim 23

The heat exchange system according to claim 19, wherein said net-like member is an expanded metal.

Claim 24

The heat exchange system according to claim 17, wherein said heat exchange system to which said element is adapted, includes an absorption refrigerator.

Claim 25

A heat exchange system, comprising: a high-temperature regenerator having a heat source for heating diluted solution; a separator for separating said solution heated in said high-temperature regenerator into refrigerant in the form of vapor and medium concentration solution; a high-temperature heat exchanger for performing heat-exchange between said medium concentration solution supplied from said separator and said diluted solution; a low-temperature regenerator for heating said medium concentration solution, whose temperature is lowered in said high-temperature heat exchanger, by said refrigerant in the form of vapor supplied from said separator so that refrigerant in the form of vapor is generated from said medium concentration solution to convert said medium concentration solution to concentration solution; a condenser for cooling and liquefying said refrigerant in the form of vapor generated in said low-temperature regenerator; an evaporator for dispersing said refrigerant in the form of liquid supplied form said condenser onto a cooling device to obtain cool water from said cooling device; an absorber for dispersing said concentration solution supplied from said low-temperature regenerator through a low-temperature heat exchanger subjecting said concentration solution to heat-exchange, so that said concentration solution absorbs said refrigerant in the form of vapor evaporated in said evaporator; a solution circulating pump for supplying diluted solution, which has absorbed said refrigerant in said absorber, through said heat exchanger to said high-temperature regenerator; and wherein at least one of said solution heat exchanger, said condenser, said evaporator, said absorber and said low-temperature regenerator includes a heat exchange element having a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions, and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent fins of said bellows-fin in one of said two chambers, wherein said net-like member has-three-porous layers adapted to provide different fluid flow rates, the flow rate in outer layers being slower than the flow rate in an intermediate layer sandwiched between said outer layers.

Claim 26

A heat exchange system, comprising: a high-temperature regenerator having a heat source for heating diluted solution; a separator for separating said solution heated in said high-temperature regenerator into refrigerant in the form of vapor and medium concentration solution; a high-temperature heat exchanger for performing heat-exchange between said medium concentration solution supplied from said separator and said diluted solution; a low-temperature regenerator for heating said medium concentration solution, whose temperature is lowered in said high-temperature heat exchanger, by said refrigerant in the form of vapor supplied from said separator so that refrigerant in the form of vapor is generated from said medium concentration solution to convert said medium concentration solution to concentration solution; a condenser for cooling and liquefying said refrigerant in the form of vapor generated in said low-temperature regenerator; an evaporator for dispersing said refrigerant in the form of liquid supplied form said condenser onto a cooling device to obtain cool water from said cooling device; an absorber for dispersing said concentration solution supplied from said low-temperature regenerator through a low-temperature heat exchanger subjecting said concentration solution to heat-exchange, so that said concentration solution absorbs said refrigerant in the form of vapor evaporated in said evaporator; a solution circulating pump for supplying diluted solution, which has absorbed said refrigerant in said absorber, through said heat exchanger to said high-temperature regenerator; and wherein at least one of said solution heat exchanger, said condenser, said evaporator, said absorber and said low-temperature regenerator includes a heat exchange element having a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions, and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent fins of said bellows-fin in one of said two chambers, wherein said net-like member has-three-porous layers adapted to provide different fluid flow rates, the flow rate in outer layers being slower than the flow rate in an intermediate layer sandwiched between said outer layers.

Claim 27

The heat exchange system according to claim 22, wherein said net-like member is an expanded metal.

Claim 28

The heat exchange system according to claim 22, wherein said net-like member is provided each gap between adjacent fins of said bellows-fin in both of said two chambers.

Claim 29

The heat exchange system according to claim 24, wherein said net-like member is an expanded metal.

Claim 30

The heat exchange system according to claim 22, wherein said heat exchange system to which said element is adapted, includes an absorption refrigerator.

Claim 31

A heat exchange system comprising: a regenerator having a heat source for heating diluted solution; a separator for separating said solution heated in said regenerator into refrigerant in the form of vapor and concentration solution; a solution heat exchanger for performing heat-exchange between said concentration solution supplied from said separator and said diluted solution; a condenser for condensing said refrigerant in the form of vapor supplied from said separator to obtain said refrigerant in the form of liquid; an evaporator for dispersing said refrigerant in the form of liquid supplied from said condenser onto a cooling device to obtain cool water from said cooling device; an absorber for dispersing said concentration solution subjected to the heat-exchange so that said concentration solution absorbs said refrigerant; a solution circulating pump for supplying diluted solution, which has absorbed said refrigerant in said absorber, through said solution exchanger to said regenerator; and wherein at least one of said solution heat exchanger, said condenser, said evaporator and said absorber includes a heat exchange element having a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions, and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent fins of said bellows-fin in one of said two chambers, wherein said net-like member includes three layers, outer ones being in the form of textile metallic nets and an intermediate one therebetween being in the form of an expanded metal.

Claim 32

A heat exchange system comprising: a regenerator having a heat source for heating diluted solution; a separator for separating said solution heated in said regenerator into refrigerant in the form of vapor and concentration solution; a solution heat exchanger for performing heat-exchange between said concentration solution supplied from said separator and said diluted solution; a condenser for condensing said refrigerant in the form of vapor supplied from said separator to obtain said refrigerant in the form of liquid; an evaporator for dispersing said refrigerant in the form of liquid supplied from said condenser onto a cooling device to obtain cool water from said cooling device; an absorber for dispersing said concentration solution subjected to the heat-exchange so that said concentration solution absorbs said refrigerant; a solution circulating pump for supplying diluted solution, which has absorbed said refrigerant in said absorber, through said solution exchanger to said regenerator; and wherein at least one of said solution heat exchanger, said condenser, said evaporator and said absorber includes a heat exchange element having a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions, and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent fins of said bellows-fin in one of said two chambers, wherein said net-like member includes three layers, outer ones being in the form of textile metallic nets and an intermediate one therebetween being in the form of an expanded metal.

Claim 33

The heat exchange element according to claim 27, wherein said net-like member is provided in each gap between adjacent fins of said bellows-fin in both of said two chambers.

Claim 34

A heat exchange system, comprising a high-temperature regenerator having a heat source for heating diluted solution; a separator for separating said solution heated in said high-temperature regenerator into refrigerant in the form of vapor and medium concentration solution; a high-temperature heat exchanger for performing heat-exchange between said medium concentration solution supplied from said separator and said diluted solution; a low-temperature regenerator for heating said medium concentration solution, whose temperature is lowered in said high-temperature heat exchanger, by said refrigerant in the form of vapor supplied from said separator so that refrigerant in the form of vapor is generated from said medium concentration solution to convert said medium concentration solution to concentration solution; a condenser for cooling and liquefying said refrigerant in the form of vapor generated in said low-temperature regenerator; an evaporator for dispersing said refrigerant in the form of liquid supplied from said condenser onto a cooling device to obtain cool water from said cooling device; an absorber for dispersing said concentration solution supplied from said low-temperature regenerator through a low-temperature heat exchanger subjecting said concentration solution to heat-exchange, so that said concentration solution absorbs said refrigerant in the form of vapor evaporated in said evaporator; a solution circulating pump for supplying diluted solution, which has absorbed said refrigerant in said absorber, through said heat exchanger to said high-temperature regenerator; and wherein at least one of said solution heat exchanger, said condenser, said evaporator, said absorber and said low-temperature regenerator includes a heat exchange element having a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions, and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent films of said bellows-fin in one of said two chambers, and wherein said net-like member includes three layers, outer ones being in the form of textile metallic nets and an intermediate one therebetween being in the form of an expanded metal.

Claim 35

A heat exchange system, comprising a high-temperature regenerator having a heat source for heating diluted solution; a separator for separating said solution heated in said high-temperature regenerator into refrigerant in the form of vapor and medium concentration solution; a high-temperature heat exchanger for performing heat-exchange between said medium concentration solution supplied from said separator and said diluted solution; a low-temperature regenerator for heating said medium concentration solution, whose temperature is lowered in said high-temperature heat exchanger, by said refrigerant in the form of vapor supplied from said separator so that refrigerant in the form of vapor is generated from said medium concentration solution to convert said medium concentration solution to concentration solution; a condenser for cooling and liquefying said refrigerant in the form of vapor generated in said low-temperature regenerator; an evaporator for dispersing said refrigerant in the form of liquid supplied from said condenser onto a cooling device to obtain cool water from said cooling device; an absorber for dispersing said concentration solution supplied from said low-temperature regenerator through a low-temperature heat exchanger subjecting said concentration solution to heat-exchange, so that said concentration solution absorbs said refrigerant in the form of vapor evaporated in said evaporator; a solution circulating pump for supplying diluted solution, which has absorbed said refrigerant in said absorber, through said heat exchanger to said high-temperature regenerator; and wherein at least one of said solution heat exchanger, said condenser, said evaporator, said absorber and said low-temperature regenerator includes a heat exchange element having a bellows-fin formed into a wave-like shape by consecutively bending a thin plate resulting in opposite open end portions, and sealing plates respectively sealingly attached to said end portions of said bellows-fin, said bellows-fin and said sealing plates defining adjacent chambers alternately disposed with respect to each other; and a net-like member provided in each gap between adjacent films of said bellows-fin in one of said two chambers, and wherein said net-like member includes three layers, outer ones being in the form of textile metallic nets and an intermediate one therebetween being in the form of an expanded metal.

Claim 36

The heat exchange element according to claim 27, wherein said net-like member is provided in each gap between adjacent fins of said bellows-fin in both of said two chambers.