Ford Motor Company Limited

Visteon Global Technolgoies, Inc.

Livernois Research & Development Co.

Kevin Bennett Wise

Carl Eckardt Schornhorst

Gerald Joseph Selm

Kathleen L Frazier

Ramez S Abdulnour

David William Bertrand

Christopher Lawrence Koppen

Michael A Breda

Chin Won Yi

Ronald Paternoster

Paul Arthur Farrell

Albert Allen Rogier

An evaporator for conducting a heat exchanger between a refrigerant and ambient air including a plurality of refrigerant tubes, at least two header tanks in fluid communication with the plurality of refrigerant tubes and at least one of the heater tanks having a plurality of serrations through which refrigerant flows into each of the plurality of refrigerant tubes and a plurality of fins dispersed between each of the plurality of refrigerant tubes.

Perforated tube flow distributor

A heat exchanger and method of making same includes a plate extending longitudinally. The heat exchanger also includes a plurality of apertures forming a fluid inlet and a fluid outlet extending through the plate. The heat exchanger further includes a mechanism forming a restriction to fluid flow through either one of the fluid inlet or the fluid outlet.

Heat exchanger and method of making same

A machine for bending a first set and a second set of folded deformable links projecting outwardly from a heat exchanger core made is disclosed. The machine comprises a base, a transport mechanism for transporting the core to a workstation, a locking mechanism for locking the core in a predetermined orientation in the workstation, and a bending mechanism attached to the base for bending a set of folded deformable links against the core.

Link bending machine

A method for transporting heat exchanger fins and forming a core subassembly for a heat exchanger uses a universal fin tray for all subassemblies instead of different tray sizes for different core subassemblies. The method includes indexing core plates forward under a stationary fin stuffing box, loading fins into the universal fin tray, indexing the loaded fins forward one at a time corresponding to the number of fins required, pushing required fins into the fin stuffing box when indexing reaches number required for the core subassembly, and pushing fins out of the fin stuffing box into the plates forming the core subassembly. A universal fin tray size, a stationary fin box, and a stationary cut off are used for all core sizes.

Method for transporting heat exchanger fins and forming a heat exchanger core subassembly

A method for forming a heat exchanger is disclosed. The method includes the steps of forming a plurality of generally planar plate members from a sheet of material, each of the plate members being connected to an adjacent plate member by a deformable link. The method further includes forming a plurality of tube members by folding the plurality of plate members at the deformable links, inserting a fin member between adjacent tube members, and compressing the plurality of tube members and fin members under a predetermined load to form a heat exchanger core. The method also includes the steps of bending the folded deformable links against the core and brazing the core at a predetermined temperature. A heat exchanger manufactured according to this method is also disclosed.

Heat exchanger and method of making the same

A heat exchanger formed from a plurality of adjacent, contiguous plate members is disclosed. The plate members are joined together by a first and second set of tabs, the tabs being configured to bend at predefined locations. The plates are folded in a bellows-like fashion to form a heat exchanger core. The bend zones provide proper plate-to-plate contact when forming the plate tubes as well as proper fin height spacing between adjacent pairs of plate tubes.

Automotive heat exchanger

A machine for corrugating preformed plates that form the core element of a heat exchanger. A fold forming mechanism imparts an initial fold in the deformable links joining a series of preformed plates received from an external source. A gathering mechanism gathers the folded series of preformed plates to produce a flow of pairs of mating plates. Precut lengths of corrugated fins are then inserted between joined adjacent pairs of mating plates and a cut-off mechanism severs the deformable links of preselected pairs of links joining pairs of mating plates to separate individual core elements from the flow of plates.

Corrugation machine for making a core for a heat exchanger

A method for making a plate-tube heat exchanger 10 is disclosed. The method includes the steps of forming a generally planar plate blank 36 from a deformable sheet of material, forming an aperture 38 at one end of the plate blank and forming a plurality of generally elongate bead preforms 40 in a predetermined configuration by drawing the material from the bottom surface of the plate blank towards the top surface. Next, a plurality of individual beads 34 are formed from each of the plurality of bead preforms by reverse drawing the bead preforms in a direction from the top surface of the plate towards the bottom surface of the plate. The method of the present invention concludes by forming the finish edges 46 of the plate.

Method of making an automotive evaporator

A tab for joining together a plurality of adjacent, contiguous plate menders of a plate tube heat exchanger is disclosed. The tab comprises a generally planar web interconnecting adjacent plates. The web includes a first edge having a plurality of recesses disposed at predetermined locations therealong and a second edge having a plurality of recesses disposed opposite the plurality of recesses along the first edge. The plurality of recesses define first and second bend zones which provide proper plate-to-plate contact when forming the plate tubes as well as proper fin height spacing between adjacent pairs of plate tubes.

Tab for an automotive heat exchanger

A plate-fin heat exchanger 10 is disclosed including a plurality of flat pipes 14 interleaved with a plurality of fin members 16. The flat pipes 14 are formed from a plurality of plate members 12. The heat exchanger 10 also includes a plurality of fin members 16 and a pair of fluid manifolds 22, 24. The manifolds 22, 24 engage the heat exchanger 10 along either of two axes which are perpendicular to the longitudinal axis of the tank 20 of the heat exchanger 10.

Automotive evaporator manifold

A plate is disclosed for use in a plate-fin heat exchanger, comprising a generally planar elongated member having a longitudinal rib disposed along the longitudinal length of the member. The plate further includes a first plurality of beads having a height greater than the height of the rib as well as a second plurality of beads having a height approximately equal to the height of the longitudinal rib. The beads are arranged generally in rows having a planar space of predetermined longitudinal length therebetween into which an adjoining row of beads is placed when a pair of identical plates are laminated together in a face-to-face relationship and forming a heat exchanger. A heat exchanger comprising a plurality of stacked plates generally as described above is also disclosed.

Growing community of inventors

Connersville, IN, United States of America

Kevin Bennett Wise