IP Library Granted Patent US 9,279,612
Granted Patent B2
US 9,279,612 · App. 14/158,576 · Granted Mar 8, 2016

Cooler

Inventors: Irhad Bulijina (Oberhausen, DE); Thomas Greven (Neuss, DE); Stephan Faulhaber (Dortmund, DE)
Assignee: MAN Diesel & Turbo SE
F25D31/00F28D7/16F28F9/005F28F13/06F28F2009/222
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Quick Facts
Patent No.
US 9,279,612
App. No.
14/158,576
Granted
Mar 8, 2016
Kind
B2
Abstract

A cooler for cooling a gaseous medium includes: a housing; a heat exchanger in the housing, the heat exchanger having an inlet portion at a flow inlet side of the heat exchanger, an outlet portion arranged at a flow outlet side of the heat exchanger, and tubes through which a coolant flows and about which gaseous medium to be cooled circulates; at least one inflow, through which the medium to be cooled can be introduced into the housing and fed to the inlet portion of the heat exchanger; at least one drain, through which cooled medium originating from the outlet portion of the heat exchanger can be discharged out of the housing; and at least one perforated plate-like flow homogenization element positioned in the housing at a position upstream of the inlet portion of the heat exchanger, seen in a flow direction of the medium to be cooled.

Claims (33)

1. A cooler ( 10 ) for cooling a gaseous medium compressed in a compressor, the cooler comprising:

a housing ( 11 );

a heat exchanger ( 12 ) positioned in the housing ( 11 ), the heat exchanger ( 12 ) having an inlet portion ( 14 ) arranged at a flow inlet side of the heat exchanger ( 12 ), an outlet portion ( 16 ) arranged at a flow outlet side of the heat exchanger ( 12 ), and a plurality of tubes, through which plurality of tubes a coolant flows and about which plurality of tubes gaseous medium to be cooled circulates;

at least one inflow ( 13 ), through which at least one inflow ( 13 ) the medium to be cooled can be introduced into the housing ( 11 ) and fed to the inlet portion ( 14 ) of the heat exchanger ( 12 );

at least one drain ( 15 ), through which at least one drain ( 15 ) cooled medium originating from the outlet portion ( 16 ) of the heat exchanger ( 12 ) can be discharged out of the housing ( 11 ); and

a plurality of plate-like flow homogenization elements ( 18 , 19 ) positioned in the housing ( 11 ) at a position upstream of the inlet portion ( 14 ) of the heat exchanger ( 12 ), seen in a flow direction of the medium to be cooled,

wherein in the housing ( 11 ) at least two of the plurality of perforated, plate-like flow homogenization elements ( 18 , 19 ) are positioned at an angle profile to one another such that a first, upper one of the plurality of flow homogenization elements ( 18 ) extends in the flow direction of the medium to be cooled through the heat exchanger ( 12 ), and a second, lower one of the plurality of flow homogenization elements ( 19 ) extends at an incline to the flow direction of the medium to be cooled through the heat exchanger ( 12 ).

2. The cooler according to claim 1 , wherein the plurality of perforated, plate-like flow homogenization elements ( 18 , 19 ) is subdivided into a plurality of segments of different porosity.

3. The cooler according to claim 1 , wherein the first, upper flow homogenization element ( 18 ) and the second, lower flow homogenization element ( 19 ) are positioned with respect to one another at an angle of between 30° and 60°.

4. The cooler according to claim 3 , wherein the first, upper flow homogenization element ( 18 ) and the second, lower flow homogenization element ( 19 ) are positioned with respect to one another at angle of between 40° and 50°.

5. The cooler according to claim 4 , wherein the first, upper flow homogenization element ( 18 ) is arranged below an upper edge ( 20 ) of the heat exchanger ( 12 ) at a first spacing and the first, upper flow homogenization element ( 18 ) and the second, lower flow homogenization element ( 19 ) are each arranged at a second spacing from the inlet portion ( 14 ) of the heat exchanger ( 12 ).

6. The cooler according to claim 5 , wherein the first, upper flow homogenization element ( 18 ) is subdivided into a plurality of segments of different porosity, wherein the segments of different porosity are positioned next to one another such that segments that are adjacent to the, or each, inflow ( 13 ) for the medium to be cooled have a relatively low porosity and segments that are distal to the, or each, inflow ( 13 ) have an relatively high porosity, the porosity increasing with increased distance from the, or each, inflow ( 13 ).

7. A cooler ( 10 ) for cooling a gaseous medium compressed in a compressor, the cooler comprising:

a housing ( 11 );

a heat exchanger ( 12 ) positioned in the housing ( 11 ), the heat exchanger ( 12 ) having an inlet portion ( 14 ) arranged at a flow inlet side of the heat exchanger ( 12 ), an outlet portion ( 16 ) arranged at a flow outlet side of the heat exchanger ( 12 ), and a plurality of tubes, through which plurality of tubes a coolant flows and about which plurality of tubes gaseous medium to be cooled circulates;

at least one inflow ( 13 ), through which at least one inflow ( 13 ) the medium to be cooled can be introduced into the housing ( 11 ) and fed to the inlet portion ( 14 ) of the heat exchanger ( 12 );

at least one drain ( 15 ), through which at least one drain ( 15 ) cooled medium originating from the outlet portion ( 16 ) of the heat exchanger ( 12 ) can be discharged out of the housing ( 11 ); and

a plurality of plate-like flow homogenization elements ( 18 , 19 ) positioned in the housing ( 11 ) at a position upstream of the inlet portion ( 14 ) of the heat exchanger ( 12 ), seen in a flow direction of the medium to be cooled,

wherein the plurality of perforated, plate-like flow homogenization elements ( 18 , 19 ) is subdivided into a plurality of segments of different porosity,

wherein in the housing ( 11 ) at least two of the plurality of perforated, plate-like flow homogenization elements ( 18 , 19 ) are positioned at an angle profile to one another such that a first, upper one of the plurality of flow homogenization elements ( 18 ) extends in the flow direction of the medium to be cooled through the heat exchanger ( 12 ), and a second, lower one of the plurality of flow homogenization elements ( 19 ) extends at an incline to the flow direction of the medium to be cooled through the heat exchanger ( 12 ),

wherein the first, upper flow homogenization element ( 18 ) is arranged below an upper edge ( 20 ) of the heat exchanger ( 12 ) at a first spacing and the first, upper flow homogenization element ( 18 ) and the second, lower flow homogenization element ( 19 ) are each arranged at a second spacing from the inlet portion ( 14 ) of the heat exchanger ( 12 ), and

wherein the second, lower flow homogenization element ( 19 ) is subdivided into a plurality of segments of different porosity, wherein the segments of different porosity of the second, lower flow homogenization element ( 19 ) are positioned on top of one another such segments that are adjacent to the first, upper flow homogenization element ( 18 ) have a relatively high porosity and segments that are distal to the first, upper flow homogenization element ( 18 ) have a relatively low porosity, the porosity decreasing with increased distance from the first, upper flow homogenization element ( 18 ).

8. A cooler ( 10 ) for cooling a gaseous medium compressed in a compressor, the cooler comprising:

a housing ( 11 );

a heat exchanger ( 12 ) positioned in the housing ( 11 ), the heat exchanger ( 12 ) having an inlet portion ( 14 ) arranged at a flow inlet side of the heat exchanger ( 12 ), an outlet portion ( 16 ) arranged at a flow outlet side of the heat exchanger ( 12 ), and a plurality of tubes, through which plurality of tubes a coolant flows and about which plurality of tubes gaseous medium to be cooled circulates;

at least one inflow ( 13 ), through which at least one inflow ( 13 ) the medium to be cooled can be introduced into the housing ( 11 ) and fed to the inlet portion ( 14 ) of the heat exchanger ( 12 );

at least one drain ( 15 ), through which at least one drain ( 15 ) cooled medium originating from the outlet portion ( 16 ) of the heat exchanger ( 12 ) can be discharged out of the housing ( 11 ); and

a plurality of plate-like flow homogenization elements ( 22 , 23 , 24 ) positioned in the housing ( 11 ) at a position upstream of the inlet portion ( 14 ) of the heat exchanger ( 12 ), seen in a flow direction of the medium to be cooled, the plurality of plate-like flow homogenization elements ( 22 , 23 , 24 ) comprising:

a first, perforated, plate-like upper flow homogenization element ( 22 ) extending in the flow direction of the medium to be cooled through the heat exchanger ( 12 );

a second, perforated, plate-like lower flow homogenization element ( 23 ), extending in the flow direction of the medium to be cooled through the heat exchanger ( 12 ); and

a third, perforated, plate-like middle flow homogenization element ( 24 ), extending between the upper and lower flow homogenization elements ( 22 , 23 ) perpendicularly to the flow direction of the medium to be cooled through the heat exchanger ( 12 ).

9. The cooler according to claim 8 , wherein the first, upper flow homogenization element ( 22 ) is arranged below an upper edge ( 20 ) of the heat exchanger ( 12 ) at a first spacing, and the first, upper flow homogenization element ( 22 ), the second, lower flow homogenization element ( 23 ) and the third, middle flow homogenization element ( 24 ) are each arranged at a second spacing from the inlet portion ( 14 ) of the heat exchanger ( 12 ).

10. The cooler according to claim 9 , wherein the upper, lower and middle flow homogenization elements ( 22 , 23 , 24 ) are each subdivided into a plurality of segments of different porosity.

Assignments (3)
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Sep 17, 2025
From: MAN ENERGY SOLUTIONS SE
To: EVERLLENCE SE
Reel/Frame 072914/0273 →
CHANGE OF NAME Recorded Aug 14, 2018
From: MAN DIESEL & TURBO SE
To: MAN ENERGY SOLUTIONS SE
Reel/Frame 047416/0271 →
ASSIGNMENT OF ASSIGNOR'S INTEREST Recorded Jun 3, 2014
From: BULIJINA, IRHAD; GREVEN, THOMAS; FAULHABER, STEPHAN
To: MAN DIESEL & TURBO SE
Reel/Frame 033018/0613 →
Priority Claims (1)
DE 10 2013 000 766 · Jan 18, 2013 · national
Continuity (1)
Related Publication 20140202198A1 · Jul 24, 2014