mhurhangee/ep-ind-claims huggingface dataset:
A manufacturing method for a toothed part including a bottom surface portion and a side wall portion provided to extend upright from an outer peripheral end portion of the bottom surface portion, the side wall portion being formed with teeth, the manufacturing method for a toothed part comprising: a half drawing process of performing draw shaping on a material having a disk shape by a toothed punch and a drawing die to form the bottom surface portion and the side wall portion, an inside diameter of which becomes larger in a direction away from the bottom surface portion; and a tooth shaping process of forming the teeth in the side wall portion by the toothed punch and a toothed die, characterized in that a clearance (c) is provided between the surface of a larger-diameter portion of the outer peripheral surface of the toothed punch and the inner peripheral surface with a minimum inside diameter in a draw shaping hole provided in the drawing die such that only a distal-end portion of the side wall portion contacts the inner peripheral surface with the minimum inside diameter, and the tooth shaping process is performed after the distal-end portion of the side wall portion contacts the inner peripheral surface with the minimum inside diameter, and after the half drawing process is performed. a half drawing process of performing draw shaping on a material having a disk shape by a toothed punch and a drawing die to form the bottom surface portion and the side wall portion, an inside diameter of which becomes larger in a direction away from the bottom surface portion; and a tooth shaping process of forming the teeth in the side wall portion by the toothed punch and a toothed die, a clearance (c) is provided between the surface of a larger-diameter portion of the outer peripheral surface of the toothed punch and the inner peripheral surface with a minimum inside diameter in a draw shaping hole provided in the drawing die such that only a distal-end portion of the side wall portion contacts the inner peripheral surface with the minimum inside diameter, and the tooth shaping process is performed after the distal-end portion of the side wall portion contacts the inner peripheral surface with the minimum inside diameter, and after the half drawing process is performed.
A solution comprising at least one water-soluble polymer, liposomes, and an aqueous carrier, the solution being for use in the treatment of ocular discomfort associated with a contact lens, wherein said treatment comprises contacting a contact lens surface with the solution.
Induction cooker (100, 200) comprising: a cooking surface (101, 201), a coil (103, 203) that is arranged under the cooking surface (101, 201), a power electronics circuit (104, 204) that is electrically coupled to the coil (103, 203) for driving the coil (103, 203) with a high frequency electric current, a movement arrangement (106, 206) that is coupled to the coil (103, 203) and that is configured to controllably move the coil (103, 203) towards the cooking surface (101, 201) and away from the cooking surface (101, 201), characterised by a fluid conduction arrangement (107, 207) that is filled with a fluid (108, 208) and that is thermally coupled to the power electronics circuit (104, 204) and that is mechanically coupled to the movement arrangement (106, 206) such that a volume of the fluid (108, 208) controls the movement of the movement arrangement (106, 206). a cooking surface (101, 201), a coil (103, 203) that is arranged under the cooking surface (101, 201), a power electronics circuit (104, 204) that is electrically coupled to the coil (103, 203) for driving the coil (103, 203) with a high frequency electric current, a movement arrangement (106, 206) that is coupled to the coil (103, 203) and that is configured to controllably move the coil (103, 203) towards the cooking surface (101, 201) and away from the cooking surface (101, 201), characterised by a fluid conduction arrangement (107, 207) that is filled with a fluid (108, 208) and that is thermally coupled to the power electronics circuit (104, 204) and that is mechanically coupled to the movement arrangement (106, 206) such that a volume of the fluid (108, 208) controls the movement of the movement arrangement (106, 206).
An apparatus for monitoring a functionality of a device for position, length or angle determination, wherein the apparatus comprises: - a transmission region comprising at least one transmission element; - a reception region comprising at least one reception element; - a coding region which forms a code word of a predefined finite length comprising a plurality of consecutive elements that represent a logical one or a logical zero; - wherein the transmission region, the reception region and the coding region are arranged and formed movable relative to one another such that the reception element receives a logical one or a logical zero depending on the position of the coding region relative to the reception region; and - an evaluation unit which is configured to detect all the transitions from a logical one to a logical zero and all the transitions from a logical zero to a logical one of the code word and to compare them with a reference value of the code word, characterized in that the evaluation unit is configured to detect a point in time of the transitions from a logical one to a logical zero and of the transitions from a logical zero to a logical one and to compare said points in time with a reference value of the points in time, and the evaluation unit is further configured to detect a temporal deviation of the transitions from a logical one to a logical zero and of the transitions from a logical zero to a logical one relative to a respective reference value. - a transmission region comprising at least one transmission element; - a reception region comprising at least one reception element; - a coding region which forms a code word of a predefined finite length comprising a plurality of consecutive elements that represent a logical one or a logical zero; - wherein the transmission region, the reception region and the coding region are arranged and formed movable relative to one another such that the reception element receives a logical one or a logical zero depending on the position of the coding region relative to the reception region; and - an evaluation unit which is configured to detect all the transitions from a logical one to a logical zero and all the transitions from a logical zero to a logical one of the code word and to compare them with a reference value of the code word, the evaluation unit is configured to detect a point in time of the transitions from a logical one to a logical zero and of the transitions from a logical zero to a logical one and to compare said points in time with a reference value of the points in time, and the evaluation unit is further configured to detect a temporal deviation of the transitions from a logical one to a logical zero and of the transitions from a logical zero to a logical one relative to a respective reference value.
A method of securing a second object to a first object, the method comprising the steps of: - Providing the first object comprising an attachment face; - Providing the second object with a generally flat sheet portion; - Providing a connector, - Placing the second object relative to the first object so that the sheet portion lies against the attachment face and a protruding section of the sheet portion extends into an opening of the first object, the opening having a mouth in the attachment face, the protruding section extending through the mouth into the opening; characterized in that - the connector comprises a thermoplastic material in a solid state; and characterized by the further steps of: - While the protruding section extends into the opening, causing energy to impinge on the connector while the connector is placed relative to the first and second objects and extends through the mouth into the opening, until a flow portion of the thermoplastic material becomes flowable and flows relative to the first object and relative to the protruding section; and - Causing the flow portion to resolidify; - Wherein the resolidified flow portion locks the protruding section relative to the opening. - Providing the first object comprising an attachment face; - Providing the second object with a generally flat sheet portion; - Providing a connector, - Placing the second object relative to the first object so that the sheet portion lies against the attachment face and a protruding section of the sheet portion extends into an opening of the first object, the opening having a mouth in the attachment face, the protruding section extending through the mouth into the opening; characterized in that - the connector comprises a thermoplastic material in a solid state; - While the protruding section extends into the opening, causing energy to impinge on the connector while the connector is placed relative to the first and second objects and extends through the mouth into the opening, until a flow portion of the thermoplastic material becomes flowable and flows relative to the first object and relative to the protruding section; and - Causing the flow portion to resolidify; - Wherein the resolidified flow portion locks the protruding section relative to the opening.
Optical mirror assembly for beam guiding, - comprising a mirror main body carrying a reflection surface, - wherein the mirror main body has a solid foam region at least in sections below the reflection surface, - said solid foam region being thermally conductively connected to the reflection surface, - wherein the solid foam region is connectable to a fluid source via at least one fluid connection (14 to 17), which fluid source can be fluid-connected via at least one fluid channel (27, 29; 32, 33; 36, 37) to the solid foam region in order to produce a fluid flow of at least one heat transfer fluid through the solid foam region, - the solid foam region is subdivided into at least two solid foam subregions (9, 10), between which is arranged a boundary region for minimizing or preventing heat transfer fluid from crossing directly between adjacent solid foam subregions (9, 10), - characterized in that the solid foam subregions (9, 10) consist of different materials. - comprising a mirror main body carrying a reflection surface, - wherein the mirror main body has a solid foam region at least in sections below the reflection surface, - said solid foam region being thermally conductively connected to the reflection surface, - wherein the solid foam region is connectable to a fluid source via at least one fluid connection (14 to 17), which fluid source can be fluid-connected via at least one fluid channel (27, 29; 32, 33; 36, 37) to the solid foam region in order to produce a fluid flow of at least one heat transfer fluid through the solid foam region, - the solid foam region is subdivided into at least two solid foam subregions (9, 10), between which is arranged a boundary region for minimizing or preventing heat transfer fluid from crossing directly between adjacent solid foam subregions (9, 10), - characterized in that the solid foam subregions (9, 10) consist of different materials.
A door hinge comprising two hinge halves, which are supported against one another in a pivotably movable manner, wherein one hinge half comprises a hinge strap, which is pivotably movably connected to the other hinge half, and a receiving body, which can be placed into recesses of a door frame or of a door wing, and wherein the hinge strap can be inserted into the receiving body, wherein the hinge strap has at least two recesses, with which pins, which are arranged on the receiving body, engage in response to the insertion of the hinge strap, characterized in that the hinge strap has at least two pins, which protrude on both sides and which engage with assigned recesses of the receiving body in response to the insertion of the hinge strap, wherein the recesses (5, 6) have a vertical section, so that the hinge strap, which is completely inserted into the receiving body, can be secured against being pulled out by a lowering of a hinge half on the door wing side.
An optical sensing system, comprising a plurality of optical sensors, a first input tree, each sensor being optically connected to a first optical input via the first input tree, wherein the first input tree is configured to direct signals from the first input to sensors, a first output tree, each sensor being optically connected to a first optical output via the first output tree, the first output tree being configured to direct signals from each sensor to the first optical output, characterised by a second input tree, each sensor being optically connected to a second optical input via the second input tree, wherein the second input tree is configured to direct signals from the second input to sensors, and a second output tree, each sensor being optically connected to a second optical output via the second output tree, the second output tree being configured to direct signals from each sensor to the second optical output, wherein the first input tree is configured to direct signals of particular wavelengths from the first input to particular sensors and/or the first output tree is configured to direct signals of particular wavelengths from particular sensors to the first output, and the second input tree is configured to direct signals of particular wavelengths from the second input to particular sensors and/or the second output tree is configured to direct signals of particular wavelengths from particular sensors to the second output.
A method of detecting alarm data signals originating at security systems on incoming calls received by way of a telecommunications line at an alarm monitoring station, said method comprising: for each call, measuring a noise level in at least one frequency band, on said line in the absence of signals originated by said security systems in said at least one frequency band (S606, S622); based on said measuring, setting at least one signal detection threshold above said noise level, wherein a level of a signal must exceed said signal detection threshold in order to be detected as a data signal (S610, S624); and detecting said alarm data signals in said call using said signal detection threshold (S632, S634). for each call, measuring a noise level in at least one frequency band, on said line in the absence of signals originated by said security systems in said at least one frequency band (S606, S622); based on said measuring, setting at least one signal detection threshold above said noise level, wherein a level of a signal must exceed said signal detection threshold in order to be detected as a data signal (S610, S624); and detecting said alarm data signals in said call using said signal detection threshold (S632, S634). measuring a noise level in at least one frequency band, on said line in the absence of signals originated by said security systems in said at least one frequency band (S606, S622); based on said measuring, setting at least one signal detection threshold above said noise level, wherein a level of a signal must exceed said signal detection threshold in order to be detected as a data signal (S610, S624); and detecting said alarm data signals in said call using said signal detection threshold (S632, S634).
A bladder for an article of footwear, the bladder comprising: a plate; a first tensile layer (14a, 14b) disposed adjacent to a first side of the plate; a second tensile (14a, 14b) layer disposed on an opposite side of the plate from the first tensile layer (14a, 14b), an inner surface (36a, 36b) of the second tensile layer (14a, 14b) joined to an inner surface (36a, 36b) of the first tensile layer (14a, 14b) through the plate by a plurality of inner bonds; a first barrier layer (16a, 16b) disposed adjacent to the first tensile layer (14a, 14b) and joined to the first tensile layer (14a, 14b) by a plurality of first outer bonds to form a first chamber (12a, 12b), one or more of the first outer bonds interposed between adjacent ones of the inner bonds; and a second barrier layer (16a, 16b) disposed adjacent to the second tensile layer (14a, 14b) and joined to the second tensile layer (14a, 14b) by a plurality of second outer bonds to form a second chamber (12a, 12b) on the opposite side of the plate than the first chamber (12a, 12b). a plate; a first tensile layer (14a, 14b) disposed adjacent to a first side of the plate; a second tensile (14a, 14b) layer disposed on an opposite side of the plate from the first tensile layer (14a, 14b), an inner surface (36a, 36b) of the second tensile layer (14a, 14b) joined to an inner surface (36a, 36b) of the first tensile layer (14a, 14b) through the plate by a plurality of inner bonds; a first barrier layer (16a, 16b) disposed adjacent to the first tensile layer (14a, 14b) and joined to the first tensile layer (14a, 14b) by a plurality of first outer bonds to form a first chamber (12a, 12b), one or more of the first outer bonds interposed between adjacent ones of the inner bonds; and a second barrier layer (16a, 16b) disposed adjacent to the second tensile layer (14a, 14b) and joined to the second tensile layer (14a, 14b) by a plurality of second outer bonds to form a second chamber (12a, 12b) on the opposite side of the plate than the first chamber (12a, 12b).
A pipe with a reinforced inner wall, into which in sections, which are exposed to increased stress compared to the remaining pipe, pipe elements are arranged in a force-fit manner such that they impact the inner wall of the pipe, wherein at least parts of the section of the pipe feature a reduced outer diameter resulting from a plastic deformation and the pipe element arranged as reinforcement has a flow limit which is greater than that of the pipe, wherein on the inner wall, the transfer from the pipe to the pipe element that is in contact with it features a conical form in the area of the pipe, and the conical transfer finishes behind the end of the pipe element, so that the end of the pipe element protrudes freely into the pipe.
A hydraulic device comprising a housing, a shaft which is mounted in the housing and rotatable about a first axis of rotation, wherein the shaft has a flange extending perpendicularly to the first axis, a plurality of pistons which are fixed to the flange at equiangular distance about the first axis of rotation, a plurality of cylindrical sleeves cooperating with the pistons to form respective compression chambers of variable volume, wherein the sleeves are rotatable about a second axis of rotation which intersects the first axis of rotation by an acute angle such that upon rotating the shaft the volumes of the compression chambers change, wherein each piston has a piston head including a ball-shaped circumferential outer side, characterized in that each of the pistons has a modular structure comprising a piston head member which forms said piston head, a piston pin which is fixed to the flange and to which the piston head member is mounted, and a spacer which is located at the outer side of the piston pin and sandwiched between the piston head member and the flange.
A capacitor of an electric vehicle, comprising: a housing; multiple groups of capacitor cores independently disposed in the housing so that there is no connection between every two groups of capacitor cores, and multiple groups of capacitor cores work independently, each group of the capacitor cores comprising at least one capacitor core; and multiple groups of connecting terminals disposed on the housing and connected to the multiple groups of capacitor cores in an one-to-one manner, wherein each group of the connecting terminals comprises a pair of electrodes, the pair of electrodes protrudes from the housing, such that the pair of electrodes can be connected to a DC bus of the electric vehicle and an insulated gate bipolar transistor, characterized in that the multiple pairs of electrodes are disposed on a first sidewall of the housing and spaced apart from each other; and a slot is disposed on a bottom wall of the housing and configured to fix a conducting wire connected to the DC bus and the electrodes. a housing; multiple groups of capacitor cores independently disposed in the housing so that there is no connection between every two groups of capacitor cores, and multiple groups of capacitor cores work independently, each group of the capacitor cores comprising at least one capacitor core; and multiple groups of connecting terminals disposed on the housing and connected to the multiple groups of capacitor cores in an one-to-one manner, wherein each group of the connecting terminals comprises a pair of electrodes, the pair of electrodes protrudes from the housing, such that the pair of electrodes can be connected to a DC bus of the electric vehicle and an insulated gate bipolar transistor, characterized in that the multiple pairs of electrodes are disposed on a first sidewall of the housing and spaced apart from each other; and a slot is disposed on a bottom wall of the housing and configured to fix a conducting wire connected to the DC bus and the electrodes.
A method comprising: mounting one or more light emitting diodes (LEDs) on a printed circuit board, the printed circuit board having a first alignment feature, wherein the alignment feature is a hole or a space, in which a bolt or pin can be placed; optically sensing a position of the one or more LEDs mounted on the printed circuit board; modifying the first alignment feature on the printed circuit board, based on the optical sensing of the position of the one or more LEDs, to form a modified alignment feature on the printed circuit board that reduces the space made available by the first alignment feature; and aligning secondary optics with the one or more LEDs by mounting the printed circuit board on a support surface using the modified alignment feature such that a misalignment of the LEDs on the printed circuit board is offset by the modified alignment feature. mounting one or more light emitting diodes (LEDs) on a printed circuit board, the printed circuit board having a first alignment feature, wherein the alignment feature is a hole or a space, in which a bolt or pin can be placed; optically sensing a position of the one or more LEDs mounted on the printed circuit board; modifying the first alignment feature on the printed circuit board, based on the optical sensing of the position of the one or more LEDs, to form a modified alignment feature on the printed circuit board that reduces the space made available by the first alignment feature; and aligning secondary optics with the one or more LEDs by mounting the printed circuit board on a support surface using the modified alignment feature such that a misalignment of the LEDs on the printed circuit board is offset by the modified alignment feature.