mhurhangee/ep-ind-claims huggingface dataset:
Slip ring assembly comprising a slip-ring module, a slip-ring brush block and a wear indication circuit, the slip-ring module having a plurality of sliding tracks (11, 12, 13, 14), the slip-ring brush block having a plurality of sliding brushes (21, 22, 23, 24) sliding on the tracks, wherein at least one sliding track (11, 12) is a wear indication track electrically connected to the wear indication circuit, characterized in, that the at least one wear indication track is configured to have a shorter lifetime than the remaining tracks and/or the wear indication brush sliding thereon is configured to have a shorter lifetime than the remaining brushes. brush block and a wear indication circuit, the slip-ring module having a plurality of sliding tracks (11, 12, 13, 14), the slip-ring brush block having a plurality of sliding brushes (21, 22, 23, 24) sliding on the tracks, wherein at least one sliding track (11, 12) is a wear indication track electrically connected to the wear indication circuit, characterized in, that the at least one wear indication track is configured to have a shorter lifetime than the remaining tracks and/or the wear indication brush sliding thereon is configured to have a shorter lifetime than the remaining brushes.
A display substrate, comprising: a substrate including a sealing region; and a driving wire on the substrate, wherein: at least a portion of the driving wire is in the sealing region, the portion of the driving wire includes: a first surface, a second surface opposite to the first surface and in contact with the substrate, sides there-between connecting to the first surface and the second surface, and each of the sides forms an acute angle with the second surface, characterised in that each side has a vertical projection on the substrate with a projection width of at least 1 μm and at most 5 μm. a substrate including a sealing region; and a driving wire on the substrate, wherein: at least a portion of the driving wire is in the sealing region, the portion of the driving wire includes: a first surface, a second surface opposite to the first surface and in contact with the substrate, sides there-between connecting to the first surface and the second surface, and each of the sides forms an acute angle with the second surface, characterised in that each side has a vertical projection on the substrate with a projection width of at least 1 μm and at most 5 μm. at least a portion of the driving wire is in the sealing region, the portion of the driving wire includes: a first surface, a second surface opposite to the first surface and in contact with the substrate, sides there-between connecting to the first surface and the second surface, and each of the sides forms an acute angle with the second surface, characterised in that each side has a vertical projection on the substrate with a projection width of at least 1 μm and at most 5 μm.
A rolling bearing usable in a power transmission device for transmitting power such as turning force, wherein a magnet for holding in a lubrication portion of said rolling bearing a lubricating magnetic fluid for lubricating said lubrication portion is provided on at least one side of an outer race of the rolling bearing, and an annular yoke made of a magnetic material loosely fitted to a rotating shaft is provided on the opposite side of said magnet relative to said outer race, characterized in that a projecting portion is provided on a side of an annular yoke facing a magnet, a plurality of cylindrical or rectangular recessed portions is provided in a circumferential direction in said projecting portion, the recessed portions opening toward the outer race side of the rolling bearing, and a magnet being fitted into each of the recessed portions.
Device with a handle element of an appliance door, which is provided to move relative to the appliance door during a movement of the appliance door, wherein the handle element is provided to adapt its movement to an operator hand movement, characterised in that an attenuating element is provided to attenuate a movement of the handle element.
A bite indicator assembly comprising a bite indicator comprising a housing, the housing comprising: a first face and a second face which face in opposite directions; a surface for supporting a fishing rod in a position in which a line of the fishing rod makes contact with a sensing device to cause the sensing device to sense movement of the line; indicating means to indicate movement of the line; and a location indicator to indicate the location of the bite indicator, the location indicator comprising a light which is remotely operable by a portable remote control unit; characterised in that: the indicating means is located on the first face of the housing and the location indicator is located on the second face. a first face and a second face which face in opposite directions; a surface for supporting a fishing rod in a position in which a line of the fishing rod makes contact with a sensing device to cause the sensing device to sense movement of the line; indicating means to indicate movement of the line; and a location indicator to indicate the location of the bite indicator, the location indicator comprising a light which is remotely operable by a portable remote control unit; characterised in that: the indicating means is located on the first face of the housing and the location indicator is located on the second face.
A method for machining a toothing, wherein, to form a chamfer on a tooth edge formed between a front face of the toothing and a tooth flank belonging to a tooth space of the toothing, material is removed from the tooth edge by cutting, by means of a machining tool equipped with a cutting edge, in a machining operation, wherein the machining tool is toothed, and the machining operation is a skiving machining operation at an axis intersection angle (Σ) between the axes of rotation (Z10, Z2) of the machining tool and the toothing, which operation does not extend beyond the tooth root section of the tooth space, characterised in that first toothing data of a first equivalent toothing, whose helix angle is determined by the orientation of the chamfer and whose transverse section profile matches that of the toothing being machined in the transition from the tooth flank into the tooth edge chamfer being formed, is determined from predetermined chamfer parameter relating to the size of the chamfer and its orientation to the front face, as well as from toothing parameters relating to the profile of the toothing being machined and, where applicable, its helix angle, and in that the machining tool is configured according to the first toothing data and consists in a skiving wheel designed to generate the first equivalent toothing by means of power skiving.
Battery arrangement having a retention module with identical recesses which are formed therein for receiving electrical battery cells, wherein a component of each battery cell is a cylindrical cell base member which is provided in the region of one end side thereof with a plus contact having a metallically bright outer face and in the region of the other end side thereof with a minus contact having a metallically bright outer face, and having means for cooling and/or heating the retention module, characterised in that the retention module is a homogeneous member through which a heat-transfer fluid can flow and which comprises heat-conductive material, such as, for example, aluminium, having a first outer side and a second outer side which is parallel therewith, in that the recesses extend in each case continuously and without changing the cross-section thereof between the outer sides (7A, 7B) and are open only at the outer sides (7A, 7B), in that at least wall portions (22, 23) of the recesses are cylindrical, and in that each cell base member is surrounded over the periphery thereof and the majority of the length thereof by an individual heat-conducting cover, and is in planar abutment therewith against the cylindrical wall portions (22, 23).
A method of generating a codeword comprising: receiving a plurality of bits at a polar encoder; encoding the plurality of bits using a plurality of polar encoder kernels, the plurality of polar encoder kernels including: a first kernel that is a binary kernel that receives a set of input q -ary symbols represented by bits, and that modifies the set of input q -ary symbols according to a first kernel generator matrix to produce a set of output q -ary symbols represented by bits; and a second kernel that is a Reed-Solomon, RS, based kernel that receives a set of input l -ary symbols represented by bits, where l > 2 and q = 2, and that modifies the set of input l -ary symbols according to a second kernel generator matrix to produce a set of output l -ary symbols represented by bits, characterized in that the method further comprises: performing the encoding the plurality of bits based on at least one of a coding rate R and a transmitted bit length M, wherein the codeword has bit length N b > M, wherein the method further comprises puncturing the codeword to result in the transmitted bit length M, the method further comprises executing an algorithm, wherein the algorithm receives as an input the coding rate and an indication of whether to prioritize error performance or lower complexity, and generates an output indicating how many encoding layers of each type of kernel to use, wherein the algorithm generates as the output a combination of kernels for meeting the prioritizing. receiving a plurality of bits at a polar encoder; encoding the plurality of bits using a plurality of polar encoder kernels, the plurality of polar encoder kernels including: a first kernel that is a binary kernel that receives a set of input q -ary symbols represented by bits, and that modifies the set of input q -ary symbols according to a first kernel generator matrix to produce a set of output q -ary symbols represented by bits; and a second kernel that is a Reed-Solomon, RS, based kernel that receives a set of input l -ary symbols represented by bits, where l > 2 and q = 2, and that modifies the set of input l -ary symbols according to a second kernel generator matrix to produce a set of output l -ary symbols represented by bits, characterized in that the method further comprises: performing the encoding the plurality of bits based on at least one of a coding rate R and a transmitted bit length M, wherein the codeword has bit length N b > M, wherein the method further comprises puncturing the codeword to result in the transmitted bit length M, the method further comprises executing an algorithm, wherein the algorithm receives as an input the coding rate and an indication of whether to prioritize error performance or lower complexity, and generates an output indicating how many encoding layers of each type of kernel to use, wherein the algorithm generates as the output a combination of kernels for meeting the prioritizing.
Ironing appliance comprising: - an iron, - a steam-generating chamber configured to generate a flow of steam, - an electric pump configured to supply liquid to the steam-generating chamber, - an electronic card configured to control the electric pump, and - an activation trigger carried by the iron and intended to be actuated manually by a user, the activation trigger being connected to the electronic card so as to communicate an activation signal to the electronic card representing an activation state of the activation trigger or a release state of the activation trigger, characterised in that the electronic card is configured to control the electric pump so as to supply liquid to the steam-generating chamber with a feed rate greater than 160 g/min for a feed duration of less than 2 seconds when an activation signal corresponding to an activation state of the activation trigger is communicated to the electronic card after a period of release of the activation trigger of more than 4 seconds, and in that the electronic card is configured to interrupt the operation of the electric pump when an activation signal corresponding to a release state of the activation trigger is communicated to the electronic card. - an iron, - a steam-generating chamber configured to generate a flow of steam, - an electric pump configured to supply liquid to the steam-generating chamber, - an electronic card configured to control the electric pump, and - an activation trigger carried by the iron and intended to be actuated manually by a user, the activation trigger being connected to the electronic card so as to communicate an activation signal to the electronic card representing an activation state of the activation trigger or a release state of the activation trigger, characterised in that the electronic card is configured to control the electric pump so as to supply liquid to the steam-generating chamber with a feed rate greater than 160 g/min for a feed duration of less than 2 seconds when an activation signal corresponding to an activation state of the activation trigger is communicated to the electronic card after a period of release of the activation trigger of more than 4 seconds, and in that the electronic card is configured to interrupt the operation of the electric pump when an activation signal corresponding to a release state of the activation trigger is communicated to the electronic card.
A method for manufacturing a tipped circular saw blade, comprising a first step of forming a disk-shaped metal base of steel, a second step of producing cutting edge tips (21; 26; 28; 31; 35), a third step of coating at least cutting edges of the cutting edge tips (21; 26; 28; 31; 35) with hard coating film, and a fourth step of fixing the cutting edge tips (21; 26; 28; 31; 35) coated with the hard coating film by welding to teeth formed on the metal base, the hard coating film being of one material selected from the group consisting of a first material comprising one of nitrides, oxides and oxynitrides containing at least one of Al, Ti, and Cr, a second material comprising the first material containing at least one of Si, V, Ni, Y, Zr, Nb, Mo, Ta and W, a third material comprising the first material containing at least one of B and C, and a fourth material comprising the second material containing at least one of B and C, characterized in that part of both side faces (21e; 26e; 28e; 31e; 36a, 36b, 36c) of each one of the cutting edge tips (21; 26; 28; 31; 35) are provided with parts (23; 27; 29) parallel to each other or parts (32; 36c) slanted to depart from each other as they go in an opposite direction to a cutting edge of the cutting edge tip (21; 26; 28; 31; 35), wherein both side faces (21e; 26e; 28e; 31e; 36a, 36b, 36c) have a side-face radial clearance angle or a side-face tangential clearance angle, and the cutting edge tips (21; 26; 28; 31; 35) are welded to the teeth with the parallel parts (23; 27; 29) or the slanted parts (32; 36c) pinched by a clamping member.
A cutting head (22, 122, 222), having a head longitudinal axis extending in a forward (D F) to rearward direction (D R), comprising: a forward portion forming a cutting portion and a rearward portion forming a mounting portion; the mounting portion having two opposing major surfaces and a base surface extending therebetween; a male coupling member protruding from the base surface, the male coupling member comprising a coupling member rear surface spaced apart from the base surface and a coupling member peripheral surface extending therebetween; a central resilience slit extending between the two major surfaces and opening out to the male coupling member and having a forwardmost central resilience slit point (P CS) located forward of the base surface; characterised by: at least one lateral resilience slit extending between the two major surfaces and opening out to the base surface and having a forwardmost lateral resilience slit point (P LS) located forward of the base surface. a forward portion forming a cutting portion and a rearward portion forming a mounting portion; the mounting portion having two opposing major surfaces and a base surface extending therebetween; a male coupling member protruding from the base surface, the male coupling member comprising a coupling member rear surface spaced apart from the base surface and a coupling member peripheral surface extending therebetween; a central resilience slit extending between the two major surfaces and opening out to the male coupling member and having a forwardmost central resilience slit point (P CS) located forward of the base surface; characterised by: at least one lateral resilience slit extending between the two major surfaces and opening out to the base surface and having a forwardmost lateral resilience slit point (P LS) located forward of the base surface.
A method for transporting and manipulating packs of beverage containers that are gathered together, wherein the packs comprise filled beverage containers, the method comprising the following steps: - moving a multitude of packs together, - manipulating packs of the multitude of packs that are being moved together, wherein a specific formation is formed by the manipulation from a plurality of packs, and/or wherein packs are distributed by the manipulation onto a plurality of transport lanes that are oriented preferably parallel to each other, wherein - manipulated packs reach a detection range of a sensor system or are located in a detection range of a sensor system, wherein manipulated packs are checked by a control unit and/or regulating unit with the help of the sensor system with regard to a damage resulting from the manipulation, characterised in that - a leak of liquid that is undesired, and, in particular, associated with a breaking open of the particular filled beverage container, is identified and/or detected as a damage in the context of checking, and in that, - in the instance of a damage of a pack having been detected and/or identified by the control unit and/or regulating unit while checking, at least one process is initiated for the removal of the particular damaged pack and/or at least one process is initiated that is aimed at preventing future damages of packs. - moving a multitude of packs together, - manipulating packs of the multitude of packs that are being moved together, wherein a specific formation is formed by the manipulation from a plurality of packs, and/or wherein packs are distributed by the manipulation onto a plurality of transport lanes that are oriented preferably parallel to each other, wherein - manipulated packs reach a detection range of a sensor system or are located in a detection range of a sensor system, wherein manipulated packs are checked by a control unit and/or regulating unit with the help of the sensor system with regard to a damage resulting from the manipulation, characterised in that - a leak of liquid that is undesired, and, in particular, associated with a breaking open of the particular filled beverage container, is identified and/or detected as a damage in the context of checking, and in that, - in the instance of a damage of a pack having been detected and/or identified by the control unit and/or regulating unit while checking, at least one process is initiated for the removal of the particular damaged pack and/or at least one process is initiated that is aimed at preventing future damages of packs.
A manifold (112, 212; 200) for a steam system (102, 202); wherein the manifold (112, 212; 200) comprises: a body (144; 228) forming a first chamber extending between an inlet and an outlet, and a second chamber extending inward from a face of the body (144; 228) to intersect the first chamber, the body (144; 228) further forming a first passage (162, 254) extending from an intermediate region of the second chamber to a first port and a second passage (164, 256) extending from a distal region of the second chamber to a second port; a first gasket (196, 196', 294') disposed in the intermediate region of the second chamber; a second gasket (196, 196', 294") disposed in the distal region of the second chamber; and a valve stem, mounted for translation within the second chamber between four positions to individually activate and deactivate the first port and the second port, with a central piston (182, 182', 276) sized to engage the first gasket (196, 196', 294') to block steam flow to the first port, and a distal piston (180, 180', 282) longitudinally spaced apart from the central piston (182, 182', 276) by a shaft portion and sized to engage the second gasket (196, 196', 294") to block steam flow to the second port. a body (144; 228) forming a first chamber extending between an inlet and an outlet, and a second chamber extending inward from a face of the body (144; 228) to intersect the first chamber, the body (144; 228) further forming a first passage (162, 254) extending from an intermediate region of the second chamber to a first port and a second passage (164, 256) extending from a distal region of the second chamber to a second port; a first gasket (196, 196', 294') disposed in the intermediate region of the second chamber; a second gasket (196, 196', 294") disposed in the distal region of the second chamber; and a valve stem, mounted for translation within the second chamber between four positions to individually activate and deactivate the first port and the second port, with a central piston (182, 182', 276) sized to engage the first gasket (196, 196', 294') to block steam flow to the first port, and a distal piston (180, 180', 282) longitudinally spaced apart from the central piston (182, 182', 276) by a shaft portion and sized to engage the second gasket (196, 196', 294") to block steam flow to the second port.
A method for manufacturing a moisture-proof film including a film body and a moisture-proof part formed on a surface of the film body, the moisture-proof part having a first layer made of a silicon oxycarbonitride compound containing carbon atoms in a composition thereof, and a second layer made of a silicon oxynitride compound which, in a composition thereof, contains carbon atoms less than those of the first layer or does not contain carbon atoms and having a density higher than that of the first layer, the method comprising the steps of: forming the first layer by using plasma chemical vapor deposition; and forming the second layer by using sputtering, wherein, in the forming the first layer, plasma irradiation intensity is stepwisely decreased or increased for forming part of the first layer closer to the second layer, thereby forming the first layer such that a density of the first layer is increased toward the second layer. forming the first layer by using plasma chemical vapor deposition; and forming the second layer by using sputtering, wherein, in the forming the first layer, plasma irradiation intensity is stepwisely decreased or increased for forming part of the first layer closer to the second layer, thereby forming the first layer such that a density of the first layer is increased toward the second layer.