mhurhangee/ep-ind-claims huggingface dataset:
A substrate comprising: a ceramic base body including first and second ends (91, 92), the second end being opposite to the first end, and the ceramic base body being provided with a plurality of cells each extending between the first and second ends (91, 92); and a plurality of metal particles or metal fragments introduced into respective internal spaces of a plurality of selected cells in the plurality of cells, the metal particles or metal fragments including metal particles or metal fragments of ferritic stainless steel and/or martensitic stainless steel, austenitic stainless steel, invar or super invar; and the number of selected cells being less than the number of non-selected cells, wherein each of the plurality of metal particles or metal fragments has a size equal to or less than an opening width of the cell and is configured to generate heat in accordance with varying magnetic field, and wherein (i) or (ii) is satisfied (i) the selected cell is occupied by the plurality of metal particles or metal fragments entirely between the first and second ends (91, 92), and (ii) a coating layer, where the metal particles or metal fragments are dispersed, is formed on an inner surface of a cell-wall of the selected cell, characterized in that: the first end and the second end is provided with a plurality of sealing portions, each of the plurality of sealing portions being configured to seal an open end of the selected cell and to prevent a catalyst from flowing into the selected cell, wherein the substrate consists of cordierite, and the plurality of sealing portions consist of cordierite. a ceramic base body including first and second ends (91, 92), the second end being opposite to the first end, and the ceramic base body being provided with a plurality of cells each extending between the first and second ends (91, 92); and a plurality of metal particles or metal fragments introduced into respective internal spaces of a plurality of selected cells in the plurality of cells, the metal particles or metal fragments including metal particles or metal fragments of ferritic stainless steel and/or martensitic stainless steel, austenitic stainless steel, invar or super invar; and the number of selected cells being less than the number of non-selected cells, wherein each of the plurality of metal particles or metal fragments has a size equal to or less than an opening width of the cell and is configured to generate heat in accordance with varying magnetic field, and wherein (i) or (ii) is satisfied (i) the selected cell is occupied by the plurality of metal particles or metal fragments entirely between the first and second ends (91, 92), and (ii) a coating layer, where the metal particles or metal fragments are dispersed, is formed on an inner surface of a cell-wall of the selected cell, (i) the selected cell is occupied by the plurality of metal particles or metal fragments entirely between the first and second ends (91, 92), and (ii) a coating layer, where the metal particles or metal fragments are dispersed, is formed on an inner surface of a cell-wall of the selected cell,
A ballistic resistant article comprising a material sheet, said material sheet comprising a woven fabric of unidirectional tapes of drawn polymer, characterized in that the width of a tape varies less than 1 % on average in the longitudinal direction of the tape, and the gap between adjacent tapes in the warp and/or weft direction is smaller than 3% of the width of the adjacent unidirectional tapes.
A sheet folding device that performs a folding process on a sheet, the sheet folding device comprising: a sheet holding member (31 a 31b) on which the sheet is placed; a detector configured to detect the thickness of the sheet that has been placed on the sheet holding member (31a, 31b); a first folding unit configured to form a first fold in the sheet that has been placed on the sheet holding member (31a, 31b); a retreat path configured to be entered by the sheet having the first fold formed by the first folding unit, the retreat path having a stop portion to be contacted by the first fold; a sheet retaining mechanism configured to move a movable member with respect to the sheet that enters the retreat path, the sheet retaining mechanism being configured to regulate movement of the sheet in the retreat path in a direction of thickness of the sheet; and a second folding unit configured to form a second fold in the sheet having the first fold while allowing the sheet that has contacted the stop portion to exit the retreat path, characterized in that the sheet retaining mechanism regulates the space in the retreat path in accordance with the thickness of the sheet that enters the retreat path. a sheet holding member (31 a 31b) on which the sheet is placed; a detector configured to detect the thickness of the sheet that has been placed on the sheet holding member (31a, 31b); a first folding unit configured to form a first fold in the sheet that has been placed on the sheet holding member (31a, 31b); a retreat path configured to be entered by the sheet having the first fold formed by the first folding unit, the retreat path having a stop portion to be contacted by the first fold; a sheet retaining mechanism configured to move a movable member with respect to the sheet that enters the retreat path, the sheet retaining mechanism being configured to regulate movement of the sheet in the retreat path in a direction of thickness of the sheet; and a second folding unit configured to form a second fold in the sheet having the first fold while allowing the sheet that has contacted the stop portion to exit the retreat path, characterized in that the sheet retaining mechanism regulates the space in the retreat path in accordance with the thickness of the sheet that enters the retreat path.
A lamp system for a vehicle provided with a head-up display, comprising: a variable light distribution lamp structured to irradiate a beam to a road surface with a variable light intensity distribution so as to draw a pattern; and a controller structured to control the variable light distribution lamp in cooperation with the head-up display, wherein the pattern includes a warning for the driver relating to the information displayed on the head-up display, characterized in that the controller is structured to control the variable light distribution lamp to draw the pattern only when a driver has not taken an action according to information displayed on the head-up display. a variable light distribution lamp structured to irradiate a beam to a road surface with a variable light intensity distribution so as to draw a pattern; and a controller structured to control the variable light distribution lamp in cooperation with the head-up display, wherein the pattern includes a warning for the driver relating to the information displayed on the head-up display, characterized in that the controller is structured to control the variable light distribution lamp to draw the pattern only when a driver has not taken an action according to information displayed on the head-up display.
A sealing device for sealing an opening of a transverse wall which separates the engine compartment from the passenger compartment of a motor vehicle and through which an intermediate steering shaft of the vehicle steering system is guided, having a sealing member of resilient material which covers the opening and which surrounds the intermediate steering shaft and which is secured with a first end region to the transverse wall and which lies in a sealing manner with a second end region against an outer peripheral face of a sealing sleeve which is secured to the intermediate steering shaft (4, 15) and which can be rotated with the intermediate steering shaft (4, 15), characterized in that the sealing sleeve comprises an inner covering face which has radially inwardly protruding projections and which by pressing onto an outer covering face of the intermediate steering shaft (4, 15) is connected thereto.
A method for monitoring cutting processing on a workpiece for separating a part of the workpiece from a remainder of the workpiece along a desired cut contour, characterized in that, after the cutting processing, the following steps are carried out: irradiating the workpiece with an in particular pulsed laser beam or laser beam pulse at a location within the desired cut contour, detecting radiation generated by an interaction between the laser beam and the workpiece, and evaluating the detected radiation in order to check whether, during the cutting processing, the part of the workpiece was completely separated from the remainder of the workpiece. irradiating the workpiece with an in particular pulsed laser beam or laser beam pulse at a location within the desired cut contour, detecting radiation generated by an interaction between the laser beam and the workpiece, and evaluating the detected radiation in order to check whether, during the cutting processing, the part of the workpiece was completely separated from the remainder of the workpiece.
A method of singulating semiconductor die from a semiconductor wafer comprising: providing a semiconductor wafer having a plurality of semiconductor die (12, 14, 16, 18) formed on the semiconductor wafer and separated from each other by spaces, wherein the semiconductor wafer includes a bulk substrate having first and second opposing major surfaces (21, 22), and wherein a layer of material is formed on at least a portion of the second major surface, and wherein each semiconductor die has at least one contact pad adjacent the first major surface; placing the semiconductor wafer onto a first carrier substrate, such that the layer of material is adjacent the first carrier substrate; plasma etching the bulk substrate within the spaces to form singulation lines (13, 15, 17, 19) extending from the first major surface completely through the bulk substrate to the second major surface; stopping the plasma etching step at the layer of material such that the layer of material is exposed within the singulation lines (13, 15, 17, 19); and removing the layer of material exposed within the singulation lines (13, 15, 17, 19) using a pressurized fluid, wherein the pressurized fluid is applied to the layer of material, wherein the first major surface is facing upward from the first carrier substrate, wherein the fluid is dispensed through a nozzle or dispense fixture which is placed above the semiconductor wafer. providing a semiconductor wafer having a plurality of semiconductor die (12, 14, 16, 18) formed on the semiconductor wafer and separated from each other by spaces, wherein the semiconductor wafer includes a bulk substrate having first and second opposing major surfaces (21, 22), and wherein a layer of material is formed on at least a portion of the second major surface, and wherein each semiconductor die has at least one contact pad adjacent the first major surface; placing the semiconductor wafer onto a first carrier substrate, such that the layer of material is adjacent the first carrier substrate; plasma etching the bulk substrate within the spaces to form singulation lines (13, 15, 17, 19) extending from the first major surface completely through the bulk substrate to the second major surface; stopping the plasma etching step at the layer of material such that the layer of material is exposed within the singulation lines (13, 15, 17, 19); and removing the layer of material exposed within the singulation lines (13, 15, 17, 19) using a pressurized fluid, wherein the pressurized fluid is applied to the layer of material, wherein the first major surface is facing upward from the first carrier substrate, wherein the fluid is dispensed through a nozzle or dispense fixture which is placed above the semiconductor wafer.
A vessel comprising: a first shell; a second shell disposed within the first shell, the second shell comprising a first end, a second end, and a wall extending between the first end and the second end, the second shell defining a cavity and a longitudinal axis extending between the first end and the second end, a cross section of the second shell transverse to the longitudinal axis including: a first arcuate inner wall portion having a first radius of curvature; and a second arcuate inner wall portion having a second radius of curvature, wherein the first radius of curvature is larger than the second radius of curvature; an annular enclosure is defined between the first shell and the second shell; and a support structure disposed within the annular enclosure, wherein portions of the support structure extend transverse to the longitudinal axis and extending circumferentially about a portion of an exterior surface of the second shell, wherein the first shell comprises a first outer end, a second outer end, and a first shell wall defining a cylindrical shape that extends between the first outer end and the second outer end, and wherein the cross section of the second shell transverse to the longitudinal axis comprises a third arcuate inner wall portion and a fourth arcuate inner wall portion. a first shell; a second shell disposed within the first shell, the second shell comprising a first end, a second end, and a wall extending between the first end and the second end, the second shell defining a cavity and a longitudinal axis extending between the first end and the second end, a cross section of the second shell transverse to the longitudinal axis including: a first arcuate inner wall portion having a first radius of curvature; and a second arcuate inner wall portion having a second radius of curvature, a first arcuate inner wall portion having a first radius of curvature; and a second arcuate inner wall portion having a second radius of curvature, wherein the first radius of curvature is larger than the second radius of curvature; an annular enclosure is defined between the first shell and the second shell; and a support structure disposed within the annular enclosure, wherein portions of the support structure extend transverse to the longitudinal axis and extending circumferentially about a portion of an exterior surface of the second shell, wherein the first shell comprises a first outer end, a second outer end, and a first shell wall defining a cylindrical shape that extends between the first outer end and the second outer end, and wherein the cross section of the second shell transverse to the longitudinal axis comprises a third arcuate inner wall portion and a fourth arcuate inner wall portion.
An interior trim component, comprising: a plurality of substantially parallel ribs each configured to engage a track to facilitate movement of the interior trim component along the track; and a cushion having an integral outer skin forming a show surface of the interior trim component, wherein the cushion is coupled to the plurality of substantially parallel ribs, characterized in that the cushion is formed from pourable foam, the integral outer skin is formed from the pourable foam of the cushion,, and a first density of the integral outer skin is greater than a second density of the cushion. a plurality of substantially parallel ribs each configured to engage a track to facilitate movement of the interior trim component along the track; and a cushion having an integral outer skin forming a show surface of the interior trim component, wherein the cushion is coupled to the plurality of substantially parallel ribs, characterized in that the cushion is formed from pourable foam, the integral outer skin is formed from the pourable foam of the cushion,, and a first density of the integral outer skin is greater than a second density of the cushion.
A pellicle demounting method, comprising: a step of providing a stack including a photomask, a pellicle frame, and a pellicle film that are arranged in this order; a step of providing an electrode; and a demounting step including disposing the stack and the electrode such that the pellicle film in the stack and the electrode face each other, and applying a voltage to the electrode to generate an electrostatic attractive force, which attracts the pellicle film in a direction toward the electrode, thereby demounting the pellicle film from the photomask in the stack. a step of providing a stack including a photomask, a pellicle frame, and a pellicle film that are arranged in this order; a step of providing an electrode; and a demounting step including disposing the stack and the electrode such that the pellicle film in the stack and the electrode face each other, and applying a voltage to the electrode to generate an electrostatic attractive force, which attracts the pellicle film in a direction toward the electrode, thereby demounting the pellicle film from the photomask in the stack.
A latch apparatus, comprising a body, wherein the latch apparatus comprises a locking bolt arranged movably in relation to the body, the locking bolt being movable via an operating means transmitting pulling tension that can be arranged in connection with the latch apparatus, which locking bolt is movable to a position providing an opening of the latch apparatus via a force effect exerted on the operating means transmitting pulling tension, and back to a position providing a locking of the latch apparatus as a response to a termination of the force effect exerted on the operating means, and wherein the latch apparatus comprises a tension adjuster arranged to be rotatable in relation to at least one axis for adjusting the tension of the operating means, characterized in that the latch apparatus comprises an auxiliary body, the auxiliary body being connected to the locking bolt so that the auxiliary body and the locking bolt are arranged to move in relation to the body of the latch apparatus when connected to each other when using the operating means, and that the tension adjuster is located in the auxiliary body, and the auxiliary body comprises a mating area and pressure claw compatible with the adjustment area of the tension adjuster. a body, wherein the latch apparatus comprises a locking bolt arranged movably in relation to the body, the locking bolt being movable via an operating means transmitting pulling tension that can be arranged in connection with the latch apparatus, which locking bolt is movable to a position providing an opening of the latch apparatus via a force effect exerted on the operating means transmitting pulling tension, and back to a position providing a locking of the latch apparatus as a response to a termination of the force effect exerted on the operating means, and wherein the latch apparatus comprises a tension adjuster arranged to be rotatable in relation to at least one axis for adjusting the tension of the operating means, characterized in that the latch apparatus comprises an auxiliary body, the auxiliary body being connected to the locking bolt so that the auxiliary body and the locking bolt are arranged to move in relation to the body of the latch apparatus when connected to each other when using the operating means, and that the tension adjuster is located in the auxiliary body, and the auxiliary body comprises a mating area and pressure claw compatible with the adjustment area of the tension adjuster.
Sanitary functional unit (1, 2, 3, 4, 5,41,42) which comprises a housing which can be releasably attached to the water outlet of a sanitary outlet fitting, wherein the housing has an outflow-side housing end face with outflow openings, wherein the outflow-side housing end face comprises at least one slot, of which the opposite longitudinal sides of the slot are configured as turning or tool engagement surfaces for a turning tool which can be releasably inserted into the at least one slot, wherein the at least one slot is formed as a groove which has a groove base, and wherein in use the housing of the functional unit (1,2, 3, 4, 5, 41, 42) is rotatably held on the water outlet of the outlet fitting, characterised in that the groove base is configured to be permeable to liquid by reason of a lattice structure which forms the groove base.
A long folding machine for machining a workpiece made of sheet metal, comprising: a workpiece table defining a supporting area on which the workpiece can be placed at least in sections during machining; and at least one machining unit for machining the workpiece while the workpiece is placed on the supporting area; characterized in that the workpiece table comprises at least one table assembly having a base plate and a swivel plate, the base plate and the swivel plate each defining a portion of the supporting area, and the swivel plate being pivotably mounted relative to the base plate in such a way that a swivel movement of the swivel plate can be generated for turning the workpiece over. a workpiece table defining a supporting area on which the workpiece can be placed at least in sections during machining; and at least one machining unit for machining the workpiece while the workpiece is placed on the supporting area; characterized in that the workpiece table comprises at least one table assembly having a base plate and a swivel plate, the base plate and the swivel plate each defining a portion of the supporting area, and the swivel plate being pivotably mounted relative to the base plate in such a way that a swivel movement of the swivel plate can be generated for turning the workpiece over.
A method of producing a photoacoustic gas sensor comprising a gas-filled reference chamber within which a MEMS component and optionally an electronic circuit are present, comprising the following steps: a) providing a first and a second wafer, wherein at least the first wafer and/or the second wafer have/has a cavity and wherein the MEMS component is present on the first and/or second wafer, wherein the MEMS component is a MEMS sensor, b) bonding the first wafer to the second wafer within a bonding chamber to form a volume that can be filled with reference gas, wherein, after the bonding, an opening remains on a contact surface of the two wafers, or an opening is made in the first and/or second wafer before or after the bonding, c) flooding a reference gas into the reference chamber via the opening within a coating system, d) sealing the opening of the reference chamber within the coating system e) providing a modulable emitter, f) arranging the reference chamber filled with the reference gas and the modulable emitter, wherein the reference chamber is present in the beam path of the emitter, so that the emitter can excite the reference gas in the reference chamber by means of modulably emittable radiation to form sound pressure waves that can be detected by means of the MEMS sensor. a) providing a first and a second wafer, wherein at least the first wafer and/or the second wafer have/has a cavity and wherein the MEMS component is present on the first and/or second wafer, wherein the MEMS component is a MEMS sensor, b) bonding the first wafer to the second wafer within a bonding chamber to form a volume that can be filled with reference gas, wherein, after the bonding, an opening remains on a contact surface of the two wafers, or an opening is made in the first and/or second wafer before or after the bonding, c) flooding a reference gas into the reference chamber via the opening within a coating system, d) sealing the opening of the reference chamber within the coating system e) providing a modulable emitter, f) arranging the reference chamber filled with the reference gas and the modulable emitter, wherein the reference chamber is present in the beam path of the emitter, so that the emitter can excite the reference gas in the reference chamber by means of modulably emittable radiation to form sound pressure waves that can be detected by means of the MEMS sensor.