| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 181 | Hollow wall base | US12070012 | 2008-02-14 | US07556758B2 | 2009-07-07 | Curtis F. Johnston |
| A method for manufacturing a flexible, extruded plastic wall base with a hollow core is presented. The method includes using extrusion die for heating and extruding plastics using a multi-functional insert within the die and air pressure to create a hollow core in the wall base. The hollow core allows less material to flow though the die so that the die stays hotter and the flow of the extruded plastic is not impeded. The resulting extruded plastic wall base is comprised of a generally thick portion, a generally thin portion and a profile on the face or front of the wall base. | ||||||
| 182 | Method for producing a helically shaped, seamless multi-walled cylindrical article | US10485341 | 2002-08-01 | US07550102B2 | 2009-06-23 | F. John Herrington |
| A method of making a composite tubular article made up of at least two concentric members, the outer of said members being tubular and the inner of said members being at least cylindrical and preferably tubular, and struts disposed in supporting and positioning orientation between the inner and outer members, by extruding a moldable material into the desired profile; stretching the inner tubular member over a cooling mandrel and disposing a cooling sleeve over the outer tubular member under conditions sufficient to solidify the article; twisting and longitudinally pulling the solidified article, so that it rotates over the cooling mandrel and inside the cooling sleeve while it is moving down stream across the cooling mandrel, whereby causing the extrudate to be twisted into a helical shape. | ||||||
| 183 | METHODS AND APPARATUS FOR PROVIDING HOLES THROUGH PORTIONS OF A HOUSING OF AN ELECTRONIC DEVICE | US12235857 | 2008-09-23 | US20090141459A1 | 2009-06-04 | Douglas Joseph Weber |
| Electronic devices are provided with housing components that have improved aesthetics. One or more holes may be formed through an extruded portion of the housing. | ||||||
| 184 | Extruded Porous Substrate having Inorganic Bonds | US12364014 | 2009-02-02 | US20090136709A1 | 2009-05-28 | Bilal Zuberi; Robert G. Lachenauer; Sunilkumar C. Pillai; William M. Carty |
| A method is provided for producing a highly porous substrate. More particularly, the present invention enables fibers, such as organic, inorganic, glass, ceramic, polymer, or metal fibers, to be combined with binders and additives, and extruded, to form a porous substrate. Depending on the selection of the constituents used to form an extrudable mixture, the present invention enables substrate porosities of about 60% to about 90%, and enables process advantages at other porosities, as well. The extrudable mixture may use a wide variety of fibers and additives, and is adaptable to a wide variety of operating environments and applications. Additives can be selected that form inorganic bonds between overlapping fibers in the extruded substrate that provide enhanced strength and performance of the porous substrate in a variety of applications, such as, for example, filtration and as a host for catalytic processes, such as catalytic converters. | ||||||
| 185 | Process for manufacturing a plastic-based cellular structure | US12293305 | 2007-03-22 | US20090107621A1 | 2009-04-30 | Claude Dehennau; Dominique Grandjean; Philippe-Jacques Leng; Frederic Beullekens |
| Process for manufacturing a plastic-based cellular structure comprising: a step (a) during which parallel lamellae of a composition based on at least one thermoplastic polymer (P) chosen from amorphous and semi-crystalline polymers are continuously extruded through a die containing a plurality of parallel slots; a step (b) during which, on exiting the die and in successive alternations, the spaces between two adjacent lamellae are subjected to an injection of a fluid (f) and to a vacuum, the two sides of a same lamella being, for one side, subjected to the action of the fluid (f) and, for the other side, to the action of the vacuum, and inversely during the following alternation, in order to produce deformation of the lamellae and to weld them in pairs with formation, in a plane approximately parallel to the extrusion direction, of a cellular structure whose constituent cells extend perpendicular to the extrusion direction; a step (c) during which the cellular structure obtained in step (b) is drawn perpendicular to the extrusion direction. | ||||||
| 186 | Honeycomb structure, method of manufacturing the same, die for forming, and discharge fluid purification system | US11892286 | 2007-08-21 | US07503957B2 | 2009-03-17 | Yukihito Ichikawa |
| A honeycomb structure includes partition walls arranged in an X-direction and intersecting partition walls so as to form a plurality of cells extending to an other-end portion from a one-end portion through an axial direction. There are disclosed a honeycomb structure in which intersecting portions of the partition walls include an intersecting portion (lacking portion) lacking in the one-end portion, a method of manufacturing the honeycomb structure, and a discharge fluid purification system comprising the honeycomb structure. The honeycomb structure is able to inhibit the opening from being blocked and is easily manufactured. | ||||||
| 187 | Extrusion die for extruding hollow profiles | US11658286 | 2005-05-17 | US07491048B2 | 2009-02-17 | Erwin Krumböck |
| An extrusion die for extruding hollow profiles is suggested having a die head (2), which is connected to a runner part (1) and forms extrusion channels (3) for shaping a profiled strand (4), and having a runner chamber (5), which is provided between the die head (2) and the runner part (1) and runs transversely to the extrusion channels (3), which is connected around its circumference (8) to an annular channel (7) for impingement with plastic melt and from which the extrusion channels (3) of the die head (2) originate. In order to provide advantageous construction conditions, it is suggested that the runner part (1) have an inner channel (9) discharging into the runner chamber (5) inside the annular channel (7) for additional impingement of the runner chamber (5) with plastic melt. | ||||||
| 188 | Extrusion Method and Extrusion Apparatus | US11922695 | 2006-07-03 | US20090032990A1 | 2009-02-05 | Kari Kirjavainen |
| An extrusion apparatus is used for extruding material through a nozzle (10) for forming a product In the nozzle (10), the material is pressed around rods (9) so that tubular cavities (13) are formed in the wall of the product. The rods (9) are hollow and the apparatus comprises channels (14) connected to the hollow rods (9) to enable flow in the tubular cavities (13). | ||||||
| 189 | Extruded porous substrate having inorganic bonds | US11465754 | 2006-08-18 | US07486962B2 | 2009-02-03 | Bilal Zuberi; Robert G. Lachenauer; Sunilkumar C. Pillai; William M Carty |
| A method is provided for producing a highly porous substrate. More particularly, the present invention enables fibers, such as organic, inorganic, glass, ceramic, polymer, or metal fibers, to be combined with binders and additives, and extruded, to form a porous substrate. Depending on the selection of the constituents used to form an extrudable mixture, the present invention enables substrate porosities of about 60% to about 90%, and enables process advantages at other porosities, as well. The extrudable mixture may use a wide variety of fibers and additives, and is adaptable to a wide variety of operating environments and applications. Additives can be selected that form inorganic bonds between overlapping fibers in the extruded substrate that provide enhanced strength and performance of the porous substrate in a variety of applications, such as, for example, filtration and as a host for catalytic processes, such as catalytic converters. | ||||||
| 190 | EXTRUSION DIE FOR MOLDING HONEYCOMB STRUCTURES | US12174998 | 2008-07-17 | US20090028982A1 | 2009-01-29 | Tadanobu ASAOKA |
| An extrusion die for use of producing a honeycomb structure composed of cells surrounded by cell walls and an outer peripheral skin. The extrusion die has a die body part and a guide ring. Feeding holes and corresponding slit grooves are formed in the die body part. The guide ring has a pole part and a guide part. The specified feeding holes which are not correspond to any slit grooves are formed in the outside area of a slit groove formation area in the die body part. Through the specified feeding holes, raw material is fed in order to make the outer peripheral skin. The specified feeding holes are arranged in one or more ring-shaped rows. Each specified feeding hole in each ring-shaped row has a same distance to the front end of the guide part in the direction vertical to the extrusion direction of the raw material. | ||||||
| 191 | HONEYCOMB STRUCTURE BODY MOLDING DIE | US12173119 | 2008-07-15 | US20090028979A1 | 2009-01-29 | Tadanobu Asaoka |
| A honeycomb structure body molding die is disclosed including a die main body, having a feed bore section and a slit recess section, and a guide ring having an upright support section and a guide section carried on the upright section, which includes a stepped section and has a central slit recess forming section, provided on the stepped section, and an outer circumferential slit recess forming surface. The die main body has a non-opposing region, formed on an area outside the stepped section, in which the outer circumferential slit recess forming surface does not axially face the guide section, while having a feed bore closing region closing the feed bores. The die main body has outer circumferential-skin forming material feed passages formed in an area outside the feed bore closing region for feeding the molding material to a squeezing outlet for forming an outer circumferential skin. | ||||||
| 192 | Method and Apparatus for an Extruded Ceramic Biosoluble Fiber Substrate | US11748306 | 2007-05-14 | US20080286179A1 | 2008-11-20 | James Jeng Liu; Bilal Zuberi |
| A porous ceramic substrate is disclosed that is fabricated from biosoluble ceramic fibers. Porosity and permeability of the substrate is provided by intertangled biosoluble fibers, that can be formed into a honeycomb form substrate through an extrusion process. The fibrous structure is formed from mixing biosoluble fibers with additives that include a bonding agent, and a fluid to provide an extrudable mixture. The structure is sintered at a temperature that exceeds the glass formation temperature of the bonding agent, but less than the maximum operational limits of the biosoluble fiber, to form a structure that has sufficient strength and porosity to provide for filtration and/or as a catalytic host. | ||||||
| 193 | Extrusion Nozzle for Extruding Hollow Profiles | US11793688 | 2005-12-23 | US20080271671A1 | 2008-11-06 | Siegfried Topf |
| The invention relates to an extrusion nozzle comprising at least one core (21-25). Said extrusion nozzle is also provided with a plurality of flow channels (11-19) for melt streams, said channels merging inside the extrusion nozzle to form the desired profiled element. The inventive extrusion nozzle consists of a plurality of plates (1-7). The flow channels (11-19) are separated from each other for all plates comprising at least one core (3-7), with the exception of the last plate (7), such that the at least one core (21-25) is connected to the remaining plate by the connecting elements (34-38) between the flow channels (11-20). When the flow channels (11-19) in the last plate (7) are continuously interconnected, the at least one core (21-25) of the last plate (7) is screwed onto the corresponding core or cores of the adjacent plate (6). When the flow channels (11-19) in the last plate (7) are interconnected only over part of the height thereof, the at least one core (21-25) of the last plate (7) is connected to the remaining plate (7) by means of the remaining connecting elements. | ||||||
| 194 | Apparatus and Method For Producing a Film Having a Tear Guiding Region, and an Extruded Film Having Such a Tear Guided Region | US11659586 | 2005-08-05 | US20080248147A1 | 2008-10-09 | Malcom R. Mackley; Bart Hallmark; Francis Gadala-Maria |
| The invention provides an apparatus (10) for producing a film (2, 70, 170, 270, 370, 470) having a tear guiding region (72, 172, 272, 372, 472). The apparatus includes an extrusion apparatus adapted, in use, to force an extrudable material (8) through a die (14) along an extrusion axis to form an extrudate film. The extrusion apparatus having means for forming a tear guiding region in a film extruded therefrom such that the film comprises at least one primary region (74, 76) and at least one tear guiding region. The means for forming a tear guiding region being adapted such that the tear guiding region has a lower cross sectional area of extrudate than the primary region such that a force applied transverse to the extrusion axis results in a higher stress in the tear guiding region than in the primary region such that a tear in the film will preferentially propagate along the tear guiding region. The invention also provides a method of producing such a film and an extruded film . | ||||||
| 195 | Hollow wall base | US12148082 | 2008-04-15 | US20080236072A1 | 2008-10-02 | Curtis F. Johnston |
| A flexible, extruded plastic wall structure with a hollow core is presented along with a method of making the same. The wall structure has an overall flat back wall, an overall front wall and at least one support wall extending between and confined to the interior surfaces of the overall back wall and the overall front wall; the overall back wall, the overall front wall and the at least one support wall having a generally uniform thickness and defining at least two defined spaces. The wall structure includes sections, where the rear wall of each section is flat from the bottom of the wall structure to the top of the wall structure. The hollow wall structure has a front wall having vertically disposed sections with different contours. The method includes using extrusion die for heating and extruding plastics using a multi-functional insert within the die and air pressure to create a hollow core in the wall structure. The hollow core allows less material to flow though the die so that the die stays hotter and the flow of the extruded plastic is not impeded. The resulting extruded plastic wall structure is comprised of a generally thick portion, a generally thin portion and a profile on the face or front of the wall structure. | ||||||
| 196 | METHOD OF INSPECTING A BODY HAVING FINE-GAP GROOVES AND METHOD OF REPAIRING THE BODY | US11949908 | 2007-12-04 | US20080225302A1 | 2008-09-18 | Shoichi Nagatoshi; Susumu Takahashi; Akihiko Takasu |
| A molding die has through holes composed of feed holes and slit grooves for producing honeycomb structure bodies. The slit groove is formed in at least a part of each through hole. In a method of inspecting the molding die, a light is irradiated into the feed holes side to pass through the through holes. A camera is disposed at the slit groove formation side of the molding die to photograph the amount of light output from the slit groove side. A difference in intensity of the amount of light output from the slit grooves is calculated in order to detect at least the presence of a defective slit groove having an abnormal part. In another method of repairing the defective slit groove, a modifier made of abrasive grains and clay mother material is forcedly provided into the defective slit groove in order to repair or remove the abnormal part. | ||||||
| 197 | METHOD OF MANUFACTURING A CATALYST | US11924441 | 2007-10-25 | US20080167180A1 | 2008-07-10 | Peter John VAN DEN BRINK; Ronald Jan Dogterom; Carolus Matthias Anna Maria Mesters |
| A method of manufacturing a catalyst, a catalyst precursor, or a catalyst support comprising: (a) mixing a refractory metal oxide or precursor thereof with a liquid to form a paste; (b) adding said paste to an extruder, the extruder having a die plate comprising one or more dies, each die having a plurality of apertures, the outlet of each aperture having a cross sectional area of 6 mm2 or less; (c) extruding the paste through the apertures to form catalyst support extrudates;wherein the inlet of the apertures has a greater cross sectional area than the outlet of said apertures; and wherein for at least one die the combined cross sectional area of all apertures at the inlet relative to the total cross sectional area of the die at the inlet is higher than 50%. | ||||||
| 198 | Folded Product Made From Extruded Profile and Method of Making Same | US11566973 | 2006-12-05 | US20080131654A1 | 2008-06-05 | Judson A. Bradford; Calvin D. Nyeboer |
| A product made from an extruded sheet or web of material having a non-linear cross-section, and the process of making the product is provided. The extruded web or extrudate is plastically deformed in selected areas and then folded. When folded into the appropriate shape, the extrudate is formed into a product having a plurality of cells. Optionally, the cells can include one or more openings, allowing access to an interior of the cell and reducing the weight of the product. | ||||||
| 199 | Honeycomb forming die and jig for honeycomb forming die using the same | US12000764 | 2007-12-17 | US20080113858A1 | 2008-05-15 | Takahisa Kaneko; Masayuki Nate; Masayuki Hironaga; Yuji Deguchi |
| A die was provided for forming a honeycomb body having a structure provided with groovy slits on a front face thereof, the slits being formed by cell blocks and back holes on a back surface thereof, each hole being communicatively connected with the slit. The die is made of cemented carbide having wear resistance. The cemented carbide is formed by compacting, followed by sintering at high temperature, metal carbide powder of transition metal element series with an iron group metal binder having toughness. A connection area ratio of the back hole and the cell block is 35 to 65%. | ||||||
| 200 | DIE FOR FORMING HONEYCOMB STRUCTURE AND METHOD FOR MANUFACTURING THE SAME | US11933792 | 2007-11-01 | US20080078920A1 | 2008-04-03 | Hironori TAKAHASHI; Masayuki HIRONAGA |
| There is disclosed a die 1 for forming a honeycomb structure comprising a die base 22 having a first plate-like member 23 and a second plate-like member 24, the first plate-like member is provided with groove portions on the side of a bonding surface 28 between the first plate-like member and the second plate-like member 24, and a depth y (mm) of the groove portions 7 satisfies the following equation (1): y≦a·(t1×E1+t2×E2)/(t1×t2×E1×E2) (1), in which t1 is a thickness (mm) obtained by subtracting the depth (mm) of the groove portions from a thickness (mm) of the first plate-like member, E1 is an apparent volume elasticity (GPa) of the first plate-like member at 25° C. in consideration of a state in which back holes are formed, t2 is a thickness (mm) of the second plate-like member, E2 is a volume elasticity (GPa) of the second plate-like member at 25° C., and a is a coefficient determined on the basis of conditions during manufacturing. | ||||||
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