US2008127665A1PendingUtilityA1
Compressor
Est. expiryNov 30, 2026(~0.3 yrs left)· nominal 20-yr term from priority
Inventors:David Fournier
F04B 39/06F04B 25/00
56
PatentIndex Score
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Cited by
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Claims
Abstract
Disclosed, amongst other things, is a compressor, a heat recovery device, and a plant, configured to practice heat recovery from a compressible media for performing useful work in driving a heat-driven chiller.
Claims
exact text as granted — not AI-modifiedWhat is claimed is:
1 . A compressor, comprising:
a heat recovery heat exchanger; the heat recovery heat exchanger configured in a heat recovery branch to recover at least a portion of an excess heat in a compressible media as a recovered heat; the heat recovery heat exchanger configured to thermally connect with a heat-driven coolant chiller wherein at least a portion of the recovered heat is used to drive the coolant chiller.
2 . The compressor of claim 1 , wherein:
the heat recovery heat exchanger configured to connect with a regeneration loop, a heat-carrier media circulatable within the regeneration loop for thermally connecting the heat recovery heat exchanger and the heat-driven chiller.
3 . The compressor of claim 1 , wherein:
the heat recovery heat exchanger configured to connect with an open flow structure, a heat-carrier media flowable through the open flow structure for thermally connecting the heat recovery heat exchanger and the heat-driven chiller.
4 . The compressor of claims 2 or 3 , wherein:
the heat-carrier media comprises one of a fluid or a gas.
5 . The compressor of claim 4 , wherein:
the fluid comprises at least one of water, glycol, or oil.
6 . The compressor of claim 1 , wherein:
the compressible media comprises one of a fluid or a gas.
7 . The compressor of claim 6 , wherein:
the gas comprises air.
8 . The compressor of claim 2 , wherein:
the heat recovery heat exchanger configured to recover all of the excess heat.
9 . The compressor of claim 2 , wherein:
the heat recovery heat exchanger configured to connect with a heat sink to remove a remaining portion of the recovered heat that is not used to drive the coolant chiller.
10 . The compressor of claim 9 , wherein:
the heat sink comprises a condenser loop connected to the regeneration loop through a regeneration loop heat exchanger.
11 . The compressor of claim 1 , further comprising:
a compressor heat exchanger configured to recover a remaining portion of the excess heat in the compressible media as waste heat; the compressor heat exchanger configured to connect with a heat sink to reject the waste heat.
12 . The compressor of claim 11 , wherein:
the heat sink comprises a trim cooling loop.
13 . The compressor of claim 11 , further comprising:
a compressible media outlet; the heat recovery heat exchanger arranged between the compressible media outlet and the compressor heat exchanger.
14 . The compressor of claim 13 , further comprising:
a plurality of the heat recovery heat exchangers arranged in-line between the compressible media outlet and the compressor heat exchanger.
15 . The compressor of claim 14 , wherein:
the plurality of heat recovery heat exchangers includes a first heat recovery heat exchanger configured to recover a high-temperature portion of the excess heat and a second heat recovery heat exchanger configure to recover a mid-temperature portion of the excess heat.
16 . The compressor of claim 1 , further comprising:
a plurality of compressor stages; the heat recovery heat exchanger configured between at least one of adjacent compressor stages.
17 . A heat recovery device, comprising:
a heat recovery heat exchanger; the heat recovery heat exchanger configured to connect in a heat recovery branch of a compressor to recover at least a portion of an excess heat in a compressible media; the heat recovery heat exchanger configured to thermally connect with a heat-driven coolant chiller wherein at least a portion of the recovered heat is used to drive the coolant chiller.
18 . The heat recovery device of claim 17 , wherein:
the heat recovery heat exchanger configured to connect with a regeneration loop, a heat-carrier media circulatable within the regeneration loop for thermally connecting the heat recovery heat exchanger and the heat-driven chiller.
19 . The heat recovery device of claim 17 , wherein:
the heat recovery heat exchanger configured to connect with an open flow structure, a heat-carrier media flowable through the open flow structure for thermally connecting the heat recovery heat exchanger and the heat-driven chiller.
20 . The heat recovery device of claims 18 or 19 , wherein:
the heat-carrier media comprises one of a fluid or a gas.
21 . The heat recovery device of claim 20 , wherein:
the fluid comprises at least one of water, glycol, or oil.
22 . The heat recovery device of claim 17 , wherein:
the compressible media comprises one of a fluid or a gas.
23 . The heat recovery device of claim 22 , wherein:
the gas comprises air.
24 . The heat recovery device of claim 18 , wherein:
the heat recovery heat exchanger configured to recover all of the excess heat.
25 . The heat recovery device of claim 18 , wherein:
the heat recovery heat exchanger configured to connect with a heat sink to remove a remaining portion of the recovered heat that is not used to drive the coolant chiller.
26 . The heat recovery device of claim 25 , wherein:
the heat sink comprises a condenser loop connected to the regeneration loop through a regeneration loop heat exchanger.
27 . The heat recovery device of claim 17 , wherein:
the heat recovery heat exchanger arranged between a compressible media outlet of the compressor and a compressor heat exchanger.
28 . The heat recovery device of claim 17 , wherein:
the heat recovery heat exchanger arranged at an outlet of a compressor heat exchanger of the compressor.
29 . The heat recovery device of claim 17 , wherein:
the heat recovery heat exchanger arranged configured within the heat-driven chiller 11 .
30 . A plant, comprising:
a compressor for compressing a compressible media; a heat recovery heat exchanger; the heat recovery heat exchanger configured in a heat recovery branch to recover at least a portion of an excess heat in the compressible media as a recovered heat; a heat-driven coolant chiller; the heat recovery heat exchanger configured to thermally connect with the heat-driven coolant chiller wherein at least a portion of the recovered heat is used to drive the coolant chiller.
31 . The plant of claim 30 , further comprising:
a regeneration loop; the heat recovery heat exchanger configured to connect with the regeneration loop, a heat-carrier media circulatable within the regeneration loop for thermally connecting the heat recovery heat exchanger and the heat-driven chiller.
32 . The plant of claim 30 , further comprising:
an open flow structure; the heat recovery heat exchanger configured to connect with the open flow structure, a heat-carrier media flowable through the open flow structure for thermally connecting the heat recovery heat exchanger and the heat-driven chiller.
33 . The plant of claims 31 or 32 , wherein:
the heat-carrier media comprises one of a fluid or a gas.
34 . The plant of claim 33 , wherein:
the fluid comprises at least one of water, glycol, or oil.
35 . The plant of claim 30 , wherein:
the compressible media comprises one of a fluid or a gas.
36 . The plant of claim 35 , wherein:
the gas comprises air.
37 . The plant of claim 31 , wherein:
the heat recovery heat exchanger configured to recover all of the excess heat.
38 . The plant of claim 31 , further comprising:
a heat sink; the heat recovery heat exchanger configured to connect with the heat sink to remove a remaining portion of the recovered heat that is not used to drive the coolant chiller.
39 . The plant of claim 38 , wherein:
the heat sink comprises a condenser loop connected to the regeneration loop through a regeneration loop heat exchanger.
40 . The plant of claim 30 , wherein:
a heat sink; the compressor further includes a compressor heat exchanger configured to recover a remaining portion of the excess heat in the compressible media as waste heat; the compressor heat exchanger configured to connect with the heat sink to reject the waste heat.
41 . The plant of claim 40 , wherein:
the heat sink comprises a trim cooling loop.
42 . The plant of claim 40 , wherein:
the compressor includes a compressible media outlet; the heat recovery heat exchanger arranged between the compressible media outlet and the compressor heat exchanger.
43 . The plant of claim 42 , further including:
a plurality of the heat recovery heat exchangers arranged in-line between the compressible media outlet and the compressor heat exchanger.
44 . The plant of claim 43 , further comprising:
the plurality of heat recovery heat exchangers includes: a first heat recovery heat exchanger configured to recover a high-temperature portion of the excess heat for driving a first heat-driven load; and a second heat recovery heat exchanger configure to recover a mid-temperature portion of the excess heat for driving a second heat-driven load; wherein one of the first and second heat-driven loads include the coolant chiller.
45 . The plant of claim 30 , further comprising:
a plurality of compressor stages; the heat recovery heat exchanger configured between at least one of adjacent compressor stages.
46 . The plant of claim 30 , further comprising:
a chiller load; a chilled water loop thermally connecting the chiller with the chiller load.
47 . The plant of claim 46 , wherein:
the chiller load comprises at least one of: a chilled water tank; a molding system.
48 . The plant of claim 30 , wherein:
the thermal connection between the heat recovery heat exchanger and the heat-driven chiller 11 is controllable; the heat recovery heat exchanger configured to be controllably thermally connected to another heat-driven load.Join the waitlist — get patent alerts
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