Class / Patent application number | Description | Number of patent applications / Date published |
228179100 |
Of electrical device (e.g., semiconductor)
| 124 |
228182000 |
Of mechanical article
| 10 |
228190000 |
Of concurrently bonded stacked laminae | 3 |
20090072009 | Method of preventing bonding between a load distribution block and a plate set of stacked sheets during diffusion bonding of a fluid flow structure - The present invention relates to diffusion bonding of patterned sheets to form a fluid flow handling structure, and to a method of preventing bonding between a load distribution block and a plate set of stacked sheets during the diffusion bonding process. | 03-19-2009 |
20100133325 | UNIFIED METAL ALLOYING IN A DIFFUSION FURNACE - A method and apparatus for performing a unified metal alloying of jet stacks without the use of a bond press, and without the use of a continuous belt driven furnace. The method may include horizontally stacking fusible parts onto a fixture and transporting the fixture into an interior of a reaction chamber of a diffusion furnace. An operator may seal the interior of the reaction chamber and the diffusion furnace may increase a temperature of an atmosphere of the interior of the reaction chamber to a predefined dwell temperature to perform a first level alloying for a predefined dwell time. The diffusion furnace may thereafter increase the temperature of the interior of the reaction chamber to a predefined brazing temperature to perform a second level alloying for a predefined brazing time. | 06-03-2010 |
20100140331 | DEVICE AND METHOD FOR BRAZING A HEAT PIPE - The present invention relates to a device and method for brazing a heat pipe assembly with copper-silver alloy filler rings to improve heat dissipation efficiency of a heat pipe. The device comprises a brazing furnace and a conveyor. The brazing furnace comprises an open ended passage with a multi-stage brazing heater and cooler. The conveyor comprises an input bracket assembly, an output bracket assembly and a steel mesh belt. The method comprises steps of (A) providing multiple heat pipe components, (B) assembling the heat pipe components to form heat pipe assemblies, (C) injecting mixed gas, (D) turning on the multi-stage brazing heater and cooler, (E) placing the heat pipe assemblies on the conveyor, (F) brazing the heat pipe assemblies to form heat pipes, (G) cooling the heat pipes and (H) removing the heat pipes from the conveyor. | 06-10-2010 |
228181000 |
Honeycomb structure | 2 |
20080203140 | Method and Device for Brazing Material Application, Method for Producing a Honeycomb Body, Exhaust Gas Treatment Unit and Vehicle - A device and a method for applying brazing material to an at least partially structured metal foil include a) providing at least one flat metal foil, b) shaping the at least one metal foil to produce a structure, and c) applying brazing material to the at least one metal foil. Steps b) and c) are carried out discontinuously and at least partially together. The device and method are preferably used in the production of metallic honeycomb bodies for the treatment of exhaust gases in vehicles. | 08-28-2008 |
20110062221 | METHOD OF CREATING A HONEYCOMB CORE USING A SERPENTINE WELDING PATH - A honeycomb core is created from a stack of metal sheets that are welded together using a serpentine weld path. Each sheet in the stack is welded to the sheet underneath. All the odd-numbered sheets, excluding the bottom sheet, are welded using a first serpentine welding pattern that includes a plurality of long welds and a plurality of short welds. All the even-numbered sheets are welded using a second serpentine welding pattern that includes a plurality of long welds and a plurality of short welds, such that the long welds of the second serpentine welding pattern are shifted from the long welds of the first serpentine welding pattern. When a sufficient number of sheets have been welded, the stack is trimmed to remove the short welds. The stack is expanded by pulling the sheets one from another to form the honeycomb core. | 03-17-2011 |
228189000 |
Using bridge or spacer | 1 |
20080283581 | Apparatus and method for connecting copper tubes - An apparatus and method for connecting copper tubes are developed to facilitate welding operation in the refrigerating device. The new apparatus will reduce the poor welding rate so that it will effectively prevent clogging of the copper tubes and leaking the refrigerant. It also has merit to easily determine a suitable heating time while the copper tubes are welding. Thus, the rate of poor welding is reduced, as well as a method for connecting copper tubes by using the tube connecting apparatus. | 11-20-2008 |
Entries |
Document | Title | Date |
20090127318 | Method for Manufacturing a Printing Form and Printing Form with Thermally Insulating Layer - Reusable printing forms and thermal image setting on the printing forms is optimized in terms of performance. A method for manufacturing the printing form, in particular a rewritable printing form, having a thermally insulating layer, is distinguished by the fact that the thermally insulating layer is produced by the configuration of individual layers to form a layer sequence as a multilayer system. A printing form which is manufactured by the method according to the invention can have images set on it with a low power image setting device, as it is possible to effectively prevent heat from dissipating in an undesirably pronounced manner, for example into a metallic carrier. | 05-21-2009 |
20100032471 | Connector Between a Reaction Pipe and a Cooling Pipe and Method for Connecting a Reaction Pipe to a Cooling Pipe - Connector between a reaction pipe and a cooling pipe and method for connecting a reaction pipe to a cooling pipe. The cooling pipe is a double pipe having an inner pipe, disposed in the extension of the reaction pipe, and an outer pipe that surrounds the inner pipe to form an intermediate cooling space between them. A supply chamber is connected to the cooling space for supplying coolant thereto. A transition piece, connected to the reaction pipe, has a fork-shaped end portion composed of an inner portion and an outer portion with heat-insulating material between them. The outer portion is secured to the base of the supply chamber coaxially relative to the longitudinal axis of the cooling pipe. The supply chamber, transition piece and half shells form a prefabricated unit. An inner tube section is welded to, and extends out of, the supply chamber and is aligned with the inner portion of the transition piece. The inner tube section has a thickness, inner diameter and outer diameter corresponding to those of the inner pipe. The thickness, inner diameter and outer diameter of the half shells correspond to those of the outer pipe. The axial length of the half shells is greater than the length of the part of the inner tube section extending out of the supply chamber. | 02-11-2010 |
20110259942 | WELDING METHOD OF BUTTED PROFILE - The present invention provides a welding method of butted profile. The welding method of the butted profile comprises the following steps of: assembling a profile without backing bars and a profile with double backing bars and/or a profile with a single backing bar of the butted profile together; and welding two lateral parts of the profile without backing bars with the corresponding profile with double backing bars and/or the profile with a single backing bar at the same time. By welding the two lateral parts of the profile without backing bars with the corresponding profile with double backing bars and/or the profile with a single backing bar at the same time, the two lateral parts of the profile without backing bars can simultaneously form an integer with the corresponding profile with double backing bars and/or the profile with a single backing bar in the welding process, therefore, the phenomenon of misalignment at one side of the profile without backing bars when the other side of the profile without backing bars is welded is effectively avoided, and the welding quality of the butted profile is improved. | 10-27-2011 |
20120111925 | Reducing Formation Of Oxide On Solder - In certain embodiments, a system includes a deposition system and a plasma/bonding system. The deposition system deposits a solder outwardly from a substrate of a number of substrates. The plasma/bonding system comprises a plasma system configured to plasma clean the substrate and a bonding system configured to bond the substrates. The plasma/bonding system at least reduces reoxidation of the solder. In certain embodiments, a method comprises depositing solder outwardly from a substrate, removing metal oxide from the substrate, and depositing a capping layer outwardly from the substrate to at least reduce reoxidation of the solder. | 05-10-2012 |
20120217287 | FLIP CHIP ASSEMBLY METHOD EMPLOYING POST-CONTACT DIFFERENTIAL HEATING - A first substrate mounted to a bonder head and a second substrate mounted to a base plate are held at different elevated temperatures at the time of bonding that provide a substantially matched thermal expansion between the second substrate and the first substrate relative to room temperature. Further, the temperature of the solder material portions and the second substrate is raised at least up to the melting temperature after contact. The distance between the first substrate and the second substrate can be modulated to enhance the integrity of solder joints. Once the distance is at an optimum, the bonder head is detached, and the bonded structure is allowed to cool to form a bonded flip chip structure. Alternately, the bonder head can control the cooling rate of solder joints by being attached to the chip during cooling step. | 08-30-2012 |
20120261459 | LASER METALWORKING USING REACTIVE GAS - A method of metalworking a substrate ( | 10-18-2012 |
20140217155 | High Density Welding - Methods for welding motor vehicle body component subassemblies at a weld stations are disclosed. First and second pallets may be arranged for reciprocal movement between a load/unload station and the weld station and the pallets are alternately moved from a load/unload station to the weld station while the other pallet is moved from the weld station to a load/unload station. Each pallet may have a plurality of substations for receipt of component subassemblies and, while each pallet is at the load/unload station, the component subassembly at each substation is moved to the next successive substation and a further component is added to the moved component. | 08-07-2014 |