mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing at least one cutting edge structure comprising the steps of: providing a first polymeric material (205, 220) in liquid form in a container; providing at least one cutting edge template within said first polymeric material (205, 220); curing said first polymeric material (205, 220) while said at least one cutting edge template is disposed in said first polymeric material to form a base structure; removing said template to obtain a cavity in said base structure; filling said cavity with a second material, said second material being a precursor for a polymeric material; curing said second material; and separating said base structure and said cured second polymeric material, said at least one cutting edge structure comprised of said cured second polymeric material, characterized in that the at least one cutting edge structure is a razor blade or a portion of a blade box. providing a first polymeric material (205, 220) in liquid form in a container; providing at least one cutting edge template within said first polymeric material (205, 220); curing said first polymeric material (205, 220) while said at least one cutting edge template is disposed in said first polymeric material to form a base structure; removing said template to obtain a cavity in said base structure; filling said cavity with a second material, said second material being a precursor for a polymeric material; curing said second material; and separating said base structure and said cured second polymeric material, said at least one cutting edge structure comprised of said cured second polymeric material, characterized in that the at least one cutting edge structure is a razor blade or a portion of a blade box.
An aeroengine after-body assembly comprising an exhaust casing made of metal having a plurality of arms extending radially between an inner shroud and an outer shroud, said assembly further comprising at least one axisymmetric part (200; 300) made of composite material extending between an upstream end (201; 301) fastened to said exhaust casing and a downstream end (202; 302) that is free, the assembly being characterized in that said axisymmetric part has an annular portion (210; 310) at its upstream end (201; 301), which annular portion includes a plurality of slots (211; 311) defining between them a plurality of resilient fastener tabs (212; 312), each slot co-operating with an arm of the exhaust casing, the exhaust casing further including fastener parts (131; 132) to which the resilient fastening tabs (212; 312) are attached.
A pigment-dispersed composition comprising at least a polymer compound (A-1) having the structural unit represented by the following formula having an acid number of from 20 mg KOH/g to 300 mg KOH/g, a pigment, and a solvent: wherein R 1, R 2, R 3, R 4, R 5, and R 6 each independently represent a hydrogen atom or a monovalent organic group, A 1 represents an oxygen atom, a sulfur atom or -N(R 21)-, R 21 represents an alkyl group which may be substituted, G 1 represents an unsubstituted alkylene group, X represents an oxygen atom, a sulfur atom or -N(R 22)-, R 22 represents an alkyl group which may be substituted; and wherein the polymer compound (A-1) has an unsaturation equivalent of less than 600.
A personal health care article comprising at least one porous disintegratable solid substrate comprising: a. from about 1% to about 70%, by weight of the substrate, preferably from about 2.5% to about 40%, and more preferably from about 5% to about 20%, of a surfactant; b. from about 10% to about 70%, preferably from about 15% to about 50%, and more preferably from about 20% to about 30%, by weight of the substrate, of a polymer; c. from about 0.025% to about 85%, preferably from about 0.3% to about 60%, and more preferably from about 3% to about 40%, by weight of the substrate, of a health care active; and wherein the article is ingestible. a. from about 1% to about 70%, by weight of the substrate, preferably from about 2.5% to about 40%, and more preferably from about 5% to about 20%, of a surfactant; b. from about 10% to about 70%, preferably from about 15% to about 50%, and more preferably from about 20% to about 30%, by weight of the substrate, of a polymer; c. from about 0.025% to about 85%, preferably from about 0.3% to about 60%, and more preferably from about 3% to about 40%, by weight of the substrate, of a health care active; and
washing machine comprising: a sensor configured to emit white light including infrared light to washing water and receive visible light of a specific wavelength and infrared light of a specific wavelength which are reflected by the washing water or transmitted through the washing water among the white light emitted to the washing water, wherein the sensor includes a light emitter configured to emit the white light including the infrared light to the washing water and a light receiver configured to simultaneously receive the visible and infrared light of the specific wavelengths among the white light emitted to the washing water; and a processor configured to determine turbidity value and color of the washing water based on intensity and patterns of the visible and infrared light of the specific wavelengths which are received from the sensor and control an operation of the washing machine based on the turbidity value and color of the washing water; characterized in that the processor is configured to determine color and concentration grade of the washing water on the basis of the intensity and pattern of the visible light of the specific wavelength which is received from the light receiver and control the washing machine to perform a dye transfer prevention operation in case that the color of the washing water has a grade equal to or higher than a predetermined concentration grade. a sensor configured to emit white light including infrared light to washing water and receive visible light of a specific wavelength and infrared light of a specific wavelength which are reflected by the washing water or transmitted through the washing water among the white light emitted to the washing water, wherein the sensor includes a light emitter configured to emit the white light including the infrared light to the washing water and a light receiver configured to simultaneously receive the visible and infrared light of the specific wavelengths among the white light emitted to the washing water; and a processor configured to determine turbidity value and color of the washing water based on intensity and patterns of the visible and infrared light of the specific wavelengths which are received from the sensor and control an operation of the washing machine based on the turbidity value and color of the washing water; characterized in that the processor is configured to determine color and concentration grade of the washing water on the basis of the intensity and pattern of the visible light of the specific wavelength which is received from the light receiver and control the washing machine to perform a dye transfer prevention operation in case that the color of the washing water has a grade equal to or higher than a predetermined concentration grade.
A production method of a ceramic compact, comprising: a coating process in which a slurry comprising ceramic particles and a polymer binder is coated to a surface of a substrate to obtain a film-coated substrate having a coat formed on an upper side of the substrate, and a degreasing process in which the film-coated substrate obtained in the coating process is heated to degrease the coat, characterized in that the degreasing process includes non-uniformly heating a lower surface of the film-coated substrate so as to have a partial temperature difference by forming a part heated at a desired temperature and a part heated at a lower temperature on the lower surface of the film-coated substrate upon heating. a coating process in which a slurry comprising ceramic particles and a polymer binder is coated to a surface of a substrate to obtain a film-coated substrate having a coat formed on an upper side of the substrate, and a degreasing process in which the film-coated substrate obtained in the coating process is heated to degrease the coat, characterized in that the degreasing process includes non-uniformly heating a lower surface of the film-coated substrate so as to have a partial temperature difference by forming a part heated at a desired temperature and a part heated at a lower temperature on the lower surface of the film-coated substrate upon heating.
A magnetic field detection method comprising the following steps: a) applying a first high-frequency pulse (S b) to one end of a magnetic material of a magnetism detection element in which a coil is wound around or placed close to the magnetic material, and b) detecting a magnetic flux ( φ) change of the magnetic material by using the coil, characterised in that: - the step a) further includes applying a second high-frequency pulse (S c) delayed from said first high-frequency pulse (S b) by a predetermined time (δt) to the other end of the magnetic material, thereby intermittently supplying a plus electric current and a minus electric current (S d) to the magnetic material, and in that - the magnetic flux (φ) change of the magnetic material detected in step b) corresponds to a rising edge and a falling edge of the delayed pulse. a) applying a first high-frequency pulse (S b) to one end of a magnetic material of a magnetism detection element in which a coil is wound around or placed close to the magnetic material, and b) detecting a magnetic flux ( φ) change of the magnetic material by using the coil, - the step a) further includes applying a second high-frequency pulse (S c) delayed from said first high-frequency pulse (S b) by a predetermined time (δt) to the other end of the magnetic material, thereby intermittently supplying a plus electric current and a minus electric current (S d) to the magnetic material, and in that - the magnetic flux (φ) change of the magnetic material detected in step b) corresponds to a rising edge and a falling edge of the delayed pulse.
A power conversion device, comprising: a printed wiring board assembly, comprising: a printed circuit board having a plurality of through holes; and a plurality of electronic components disposed on the printed circuit board; a grounding member, wherein the grounding member further comprises a heat-dissipating member; a clamping member fixed to the heat-dissipating member, wherein the electronic component is clamped between the heat-dissipating member and the clamping member and is uprightly disposed on the printed circuit board; and a plurality of insulating struts corresponding to the through holes and physically connecting and electrically insulating the printed circuit board and the grounding member, wherein the heat-dissipating member comprises a plurality of fixing portions, some of the insulating struts fix the printed circuit board to the fixing portions. a printed circuit board having a plurality of through holes; and a plurality of electronic components disposed on the printed circuit board; a grounding member, wherein the grounding member further comprises a heat-dissipating member; a clamping member fixed to the heat-dissipating member, wherein the electronic component is clamped between the heat-dissipating member and the clamping member and is uprightly disposed on the printed circuit board; and a plurality of insulating struts corresponding to the through holes and physically connecting and electrically insulating the printed circuit board and the grounding member, wherein the heat-dissipating member comprises a plurality of fixing portions, some of the insulating struts fix the printed circuit board to the fixing portions.
A rear concealment device (10, 50, 60, 70, 80) for a motor vehicle, of the type comprising: - an object support member intended to be mounted in a mobile manner in said vehicle; - at least one linkage element connected to said object support member having a retention end on said object support member and a free end, characterised in that a surface of said object support member defines at least one elongated groove, said linkage element being movable between a rest position inside said groove and an operating position, in which at least part of said linkage element protrudes outside of said groove beyond said surface of said object support member. - an object support member intended to be mounted in a mobile manner in said vehicle; - at least one linkage element connected to said object support member having a retention end on said object support member and a free end,
An apparatus, comprising: a flexure layer (108, 200, 300, 408) defining a plate (202, 302) and a first flexible portion and a second flexible portion, each of the first and second flexible portions (110, 210, 304, 410) configured to exhibit a varying electrical characteristic responsive to an acoustic pressure communicated to the plate (202, 302), the first flexible portion and the second flexible portion extending directly away from the plate (202, 302) in respective opposite directions; a spine layer (106, 406) bonded to the flexure layer (108, 200, 300, 408); and a membrane layer (102, 402) bonded to the spine layer (106, 406), wherein the membrane communicates the acoustic pressure to the spine layer (106, 406) that, in turn, communicates the acoustic pressure to the plate (202, 302) of the flexure layer (108, 200, 300, 408), wherein the flexible portions (110, 210, 304, 410) are configured to exhibit tensile strain under the influence of the acoustic pressure, and characterized in that the spine layer (106, 406) is a continuous layer of material overlying and continuously bonded to the plate (202, 302) of the flexure layer (108, 200, 300, 408) so as to cover all but the flexible portions (110, 210, 304, 410) of the flexure layer (108, 200, 300, 408). a flexure layer (108, 200, 300, 408) defining a plate (202, 302) and a first flexible portion and a second flexible portion, each of the first and second flexible portions (110, 210, 304, 410) configured to exhibit a varying electrical characteristic responsive to an acoustic pressure communicated to the plate (202, 302), the first flexible portion and the second flexible portion extending directly away from the plate (202, 302) in respective opposite directions; a spine layer (106, 406) bonded to the flexure layer (108, 200, 300, 408); and a membrane layer (102, 402) bonded to the spine layer (106, 406), wherein the membrane communicates the acoustic pressure to the spine layer (106, 406) that, in turn, communicates the acoustic pressure to the plate (202, 302) of the flexure layer (108, 200, 300, 408), wherein the flexible portions (110, 210, 304, 410) are configured to exhibit tensile strain under the influence of the acoustic pressure, and characterized in that the spine layer (106, 406) is a continuous layer of material overlying and continuously bonded to the plate (202, 302) of the flexure layer (108, 200, 300, 408) so as to cover all but the flexible portions (110, 210, 304, 410) of the flexure layer (108, 200, 300, 408).
A charged particle beam device comprising: a detection chamber flange which airtightly seals a detection chamber; a detector which is provided in the detection chamber; a detector holding stand which holds the detector; a first shaft which is slidably inserted into a guide hole and connected to the detector holding stand, the guide hole being provided in the detection chamber flange; a first flange which is attached to the detection chamber flange and has a spherical bearing; a second flange which is supported by the spherical bearing of the first flange; and a second shaft which is slidably inserted into a guide hole provided in the second flange and passes through a through-hole provided in the detection chamber flange; the second shaft being connected to the detector holding stand, each of the first shaft and the second shaft being provided with a flow channel (121, 123) configured for a heat transfer medium for cooling or heating the detector. a detection chamber flange which airtightly seals a detection chamber; a detector which is provided in the detection chamber; a detector holding stand which holds the detector; a first shaft which is slidably inserted into a guide hole and connected to the detector holding stand, the guide hole being provided in the detection chamber flange; a first flange which is attached to the detection chamber flange and has a spherical bearing; a second flange which is supported by the spherical bearing of the first flange; and a second shaft which is slidably inserted into a guide hole provided in the second flange and passes through a through-hole provided in the detection chamber flange; the second shaft being connected to the detector holding stand, each of the first shaft and the second shaft being provided with a flow channel (121, 123) configured for a heat transfer medium for cooling or heating the detector.
A method for error correction, the method comprises the steps of: opening a selected row (418) of a memory bank out of multiple memory banks (411, 418) of a dynamic memory module; receiving selected data sub-blocks (401,..., (401), while the selected row (418) is open, by the dynamic memory module, wherein the selected data sub-blocks (401,..., (401) are received over a communication link and are targeted to be written to the selected row (418); calculating, while the selected row (418) is open and by an error correction unit, selected error correction code sub-blocks (408(1,1),..., 401(1,8)) that are related to the selected data sub-blocks (401,..., (401); caching the selected error correction code sub-blocks (408(1,1),..., 401(1,8)) in a cache memory that differs from the dynamic memory module; closing the selected row (418); and writing, by a dynamic memory controller and to the selected row (418), the selected error correction code sub-blocks (408(1,1),..., 401(1,8)) while the selected row (418) is open, wherein the writing comprises sending the selected error correction code sub-blocks (408(1,1),..., 401(1,8)) to the dynamic memory module over the communication link; characterized in that the writing of the selected error correction code sub-blocks to the dynamic memory module is triggered by a need to clean a state of the dynamic memory controller before entering low power modes. opening a selected row (418) of a memory bank out of multiple memory banks (411, 418) of a dynamic memory module; receiving selected data sub-blocks (401,..., (401), while the selected row (418) is open, by the dynamic memory module, wherein the selected data sub-blocks (401,..., (401) are received over a communication link and are targeted to be written to the selected row (418); calculating, while the selected row (418) is open and by an error correction unit, selected error correction code sub-blocks (408(1,1),..., 401(1,8)) that are related to the selected data sub-blocks (401,..., (401); caching the selected error correction code sub-blocks (408(1,1),..., 401(1,8)) in a cache memory that differs from the dynamic memory module; closing the selected row (418); and writing, by a dynamic memory controller and to the selected row (418), the selected error correction code sub-blocks (408(1,1),..., 401(1,8)) while the selected row (418) is open, wherein the writing comprises sending the selected error correction code sub-blocks (408(1,1),..., 401(1,8)) to the dynamic memory module over the communication link; characterized in that the writing of the selected error correction code sub-blocks to the dynamic memory module is triggered by a need to clean a state of the dynamic memory controller before entering low power modes.
Tyre, defining three main directions: circumferential, axial and radial, comprising a crown comprising a tread, two sidewalls, and two beads, each sidewall connecting each bead to the crown, a carcass reinforcement anchored in each of the beads and extending in the sidewalls and in the crown, a crown reinforcement extending in the crown in the circumferential direction and situated radially between the carcass reinforcement and the tread, the crown reinforcement comprising a working reinforcement comprising at least first and second working plies (16, 18), each first and second working ply (16, 18) respectively comprising first and second reinforcing elements (50, 52) arranged substantially parallel to one another in each first and second working ply (16, 18), characterized in that at least one of the following relationships I and II is satisfied: − 4053 × E 1 + 4720 ≤ D 1 4 × d 1 × 1000 / E 1 where: - D1 is the diameter of each first reinforcing element made up of a metallic monofilament, expressed in mm, with D1 ranging from 0.34 to 0.38 mm, - d1 is the density of the first reinforcing elements in the first working ply, expressed in monofilaments per decimetre and measured in a direction perpendicular to the main axis of the metallic monofilaments, - E1 is the mean thickness of the first working ply, expressed in mm and measured in the radial direction; − 4053 × E 2 + 4720 ≤ D 2 4 × d 2 × 1000 / E 2 where - D2 is the diameter of each second reinforcing element made up of a metallic monofilament, expressed in mm, with D2 ranging from 0.34 to 0.38 mm, - d2 is the density of the second reinforcing elements in the second working ply, expressed in monofilaments per decimetre and measured in a direction perpendicular to the main axis of the metallic monofilaments, - E2 is the mean thickness of the second working ply, expressed in mm and measured in the radial direction; the characteristics D1, D2, d1, d2, E1, E2 being measured in the central part of the crown reinforcement of the tyre in the vulcanized state, on each side of the midplane over a total axial width of 4 cm. - D1 is the diameter of each first reinforcing element made up of a metallic monofilament, expressed in mm, with D1 ranging from 0.34 to 0.38 mm, - d1 is the density of the first reinforcing elements in the first working ply, expressed in monofilaments per decimetre and measured in a direction perpendicular to the main axis of the metallic monofilaments, - E1 is the mean thickness of the first working ply, expressed in mm and measured in the radial direction; − 4053 × E 2 + 4720 ≤ D 2 4 × d 2 × 1000 / E 2 - D2 is the diameter of each second reinforcing element made up of a metallic monofilament, expressed in mm, with D2 ranging from 0.34 to 0.38 mm, - d2 is the density of the second reinforcing elements in the second working ply, expressed in monofilaments per decimetre and measured in a direction perpendicular to the main axis of the metallic monofilaments, - E2 is the mean thickness of the second working ply, expressed in mm and measured in the radial direction;
A positive electrode active material for a secondary battery, the positive electrode active material comprising: a lithium cobalt oxide; a coating layer including element A and formed on a surface of particles of the lithium cobalt oxide; and a dopant containing element B which is substituted in the lithium cobalt oxide, wherein the element A and the element B are each independently at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), zirconium (Zr), barium (Ba), calcium (Ca), tantalum (Ta), niobium (Nb), and molybdenum (Mo), and a molar ratio of the element A in the coating layer: the element B of the dopant is greater than 1: 1 and equal to or smaller than 10: 1, wherein the element A and the element B are a same element. a lithium cobalt oxide; a coating layer including element A and formed on a surface of particles of the lithium cobalt oxide; and a dopant containing element B which is substituted in the lithium cobalt oxide, wherein the element A and the element B are each independently at least one selected from the group consisting of aluminum (Al), titanium (Ti), magnesium (Mg), zirconium (Zr), barium (Ba), calcium (Ca), tantalum (Ta), niobium (Nb), and molybdenum (Mo), and a molar ratio of the element A in the coating layer: the element B of the dopant is greater than 1: 1 and equal to or smaller than 10: 1,