mhurhangee/ep-ind-claims huggingface dataset:
A battery frame comprising: a battery frame main body made of resin, the battery frame main body being configured to be disposed at a vehicle body lower side of a floor panel and to support a battery; and a ductile member made of metal, the ductile member being integrally provided to the battery frame main body and being configured to be fastened and fixed to a lower face side of the floor panel, and to have the battery fastened and fixed thereto, wherein the battery frame main body includes an upper frame forming an apex portion, a lower frame forming a bottom portion, and an intermediate member provided between the upper frame and the lower frame; and wherein the ductile member is formed in a ring shape surrounding at least the intermediate member. a battery frame main body made of resin, the battery frame main body being configured to be disposed at a vehicle body lower side of a floor panel and to support a battery; and a ductile member made of metal, the ductile member being integrally provided to the battery frame main body and being configured to be fastened and fixed to a lower face side of the floor panel, and to have the battery fastened and fixed thereto, wherein the battery frame main body includes an upper frame forming an apex portion, a lower frame forming a bottom portion, and an intermediate member provided between the upper frame and the lower frame; and wherein the ductile member is formed in a ring shape surrounding at least the intermediate member.
A recombinant polypeptide or active fragment thereof of the Bacillus Gibsonii -clade, wherein the recombinant polypeptide or active fragment thereof has proteolytic activity and comprises an amino acid sequence having at least 90% identity to the amino acid sequence of SEQ ID NO: 79, with the proviso that the amino acid sequence does not comprise the amino acid sequence set forth in NCBI Accession Nos. CAE48421, CAS91385, CAV33594, or AGS78407.
A microphone circuit comprising: a microphone; an analogue to digital converter at the output of the microphone; a clip detection circuit for detecting when the analogue to digital converter output has reached a threshold; a variable attenuator associated with the microphone to cause attenuation of the microphone signal; a control circuit for controlling the variable attenuator based on the clip detection circuit output thereby providing autonomic behaviour; an overrule circuit (50,52,58) for overruling the autonomic behaviour of the control of the variable attenuator based on clip detection; wherein the microphone circuit comprises a format circuit for setting the microphone as a left or right microphone based on a left/right control input to the microphone circuit; and wherein the overrule circuit comprises a timing circuit and a controller, wherein the left/right control input is used by the controller to control the overruling operation after a delay set by the timing circuit. a microphone; an analogue to digital converter at the output of the microphone; a clip detection circuit for detecting when the analogue to digital converter output has reached a threshold; a variable attenuator associated with the microphone to cause attenuation of the microphone signal; a control circuit for controlling the variable attenuator based on the clip detection circuit output thereby providing autonomic behaviour; an overrule circuit (50,52,58) for overruling the autonomic behaviour of the control of the variable attenuator based on clip detection; wherein the microphone circuit comprises a format circuit for setting the microphone as a left or right microphone based on a left/right control input to the microphone circuit; and wherein the overrule circuit comprises a timing circuit and a controller, wherein the left/right control input is used by the controller to control the overruling operation after a delay set by the timing circuit.
A jigsaw (100, 200, 300) comprising: a housing (102, 202, 306) containing a motor (108, 208) activated by a trigger assembly(110, 210); a control member (118, 216, 402, 604, 702) connected to the housing, the control member configured to be accessible by a user and operable to be positioned among a plurality of positions (710, 712, 714, 716, 718, 720, 722); and a reciprocating shaft (112, 416) that moves at a reciprocation speed and at a magnitude of orbital motion when said trigger assembly is in a retracted condition; characterised in that said control member (118, 216, 402, 604, 702) is a single control member arranged to control said reciprocation speed and said magnitude of orbital motion, each of said positions corresponding to a predetermined combination of values of said reciprocation speed and said magnitude of orbital motion. a housing (102, 202, 306) containing a motor (108, 208) activated by a trigger assembly(110, 210); a control member (118, 216, 402, 604, 702) connected to the housing, the control member configured to be accessible by a user and operable to be positioned among a plurality of positions (710, 712, 714, 716, 718, 720, 722); and a reciprocating shaft (112, 416) that moves at a reciprocation speed and at a magnitude of orbital motion when said trigger assembly is in a retracted condition; characterised in that said control member (118, 216, 402, 604, 702) is a single control member arranged to control said reciprocation speed and said magnitude of orbital motion, each of said positions corresponding to a predetermined combination of values of said reciprocation speed and said magnitude of orbital motion.
Camera device for reading optical codes, comprising at least a first camera unit with a first camera control and a first image sensor for capturing image data from a first detection area, and a second camera unit with a second camera control and a second image sensor for capturing image data from a second detection area, which at least partially overlaps with the first detection area, and a common control unit, wherein the respective camera control (26a-b) is configured to detect regions of interest with optical codes in the image data and to transmit the image data of the regions of interest to the common control unit, characterized in that the common control unit is configured to combine the image data in regions of interest captured by more than one camera unit (18a-b) and to read an optical code in the region of interest therefrom, wherein the respective camera control is configured to determine the position of a detected region of interest in world coordinates and to transmit the world coordinates to the common control unit, or the respective camera control (26a-b) transmits the position of a detected region of interest in camera coordinates to the common control unit, and the common control unit is configured to convert the camera coordinates into world coordinates. the common control unit is configured to combine the image data in regions of interest captured by more than one camera unit (18a-b) and to read an optical code in the region of interest therefrom, wherein the respective camera control is configured to determine the position of a detected region of interest in world coordinates and to transmit the world coordinates to the common control unit, or the respective camera control (26a-b) transmits the position of a detected region of interest in camera coordinates to the common control unit, and the common control unit is configured to convert the camera coordinates into world coordinates.
Arrangement comprising a first semiconductor chip and a second semiconductor chip connected thereto, - wherein the second semiconductor chip is additionally connected to electrical loads and drives these electrical loads according to a timing specified by load control data, - wherein the first semiconductor chip transmits to the second semiconductor chip the aforementioned load control data and control data for configuring the second semiconductor chip, and - wherein the second semiconductor chip transmits to the first semiconductor chip diagnostic data which represent states prevailing in the second semiconductor chip or events which occur, characterized in that the transmission of the diagnostic data occurs via a first transmission channel and the transmission of the load control data and the pilot data occurs via a second transmission channel. - wherein the second semiconductor chip is additionally connected to electrical loads and drives these electrical loads according to a timing specified by load control data, - wherein the first semiconductor chip transmits to the second semiconductor chip the aforementioned load control data and control data for configuring the second semiconductor chip, and - wherein the second semiconductor chip transmits to the first semiconductor chip diagnostic data which represent states prevailing in the second semiconductor chip or events which occur,
Method for producing a short-circuit rotor of an asynchronous machine using the following steps: - provision of a laminated core of the rotor with substantially axially running slots, - insertion of conductor bars into the slots made of a first conductive material, such that the conductor bars protrude out of the end faces of the laminated core, wherein the laminated core is skewed, in that the axial skew over the axial length of the laminated core is 0.3 to 3 times a slot pitch of the rotor, wherein the conductor bars protrude in a skewed manner out of the laminated core, wherein the conductor bars, but at least the overhangs of the conductor bars out of the laminated core of the rotor, are coated with a galvanic layer made of aluminium, tin or a solderable alloy, wherein the coating serves as a lubricating layer when axially pushing onto the overhangs of the conductor bars, - provision of a specifiable number of pre-stamped individual laminations, each with a specified contour, made of a second conductive material, - individual, axial pressing of these individual laminations one after the other onto the conductor bars protruding from the end face of the laminated core, wherein the individual laminations short-circuit the conductor bars protruding from an end face and thus form a short-circuit ring, which is composed of multiple individual laminations. - provision of a laminated core of the rotor with substantially axially running slots, - insertion of conductor bars into the slots made of a first conductive material, such that the conductor bars protrude out of the end faces of the laminated core, wherein the laminated core is skewed, in that the axial skew over the axial length of the laminated core is 0.3 to 3 times a slot pitch of the rotor, wherein the conductor bars protrude in a skewed manner out of the laminated core, wherein the conductor bars, but at least the overhangs of the conductor bars out of the laminated core of the rotor, are coated with a galvanic layer made of aluminium, tin or a solderable alloy, wherein the coating serves as a lubricating layer when axially pushing onto the overhangs of the conductor bars, - provision of a specifiable number of pre-stamped individual laminations, each with a specified contour, made of a second conductive material, - individual, axial pressing of these individual laminations one after the other onto the conductor bars protruding from the end face of the laminated core, wherein the individual laminations short-circuit the conductor bars protruding from an end face and thus form a short-circuit ring, which is composed of multiple individual laminations.
Mounting bracket of a sidewall element (7, 9, 12, 14) of a folding side box body of a commercial vehicle, in particular a heavy goods vehicle, trailer and/or semitrailer, with a slide unit for operating the mounting bracket along a longitudinal beam of the commercial vehicle, a swivel unit for swivelling the sidewall element (7, 9, 12, 14) relative to the slide unit, an assembly unit for attaching the sidewall element (7, 9, 12, 14) to the mounting bracket and a spring element to press the sidewall element (7, 9, 12, 14) against the longitudinal beam of the commercial vehicle, characterised in that the assembly unit is held on the swivel unit via the spring element.
Operating method for a combined casting and rolling plant, having an upstream part of the plant with a continuous casting installation (1, 2, 4), a downstream part of the plant with a multi-stand rolling train and a pair of shears between the two parts of the plant, comprising the following method steps: - continuous casting of a strand of metal in the continuous casting installation (1, 2, 4), - wherein, in normal operation, the strand of metal, starting from the upstream part of the plant, is conveyed uncut in the main conveying direction (x) via the pair of shears to the downstream part of the plant and is rolled in the rolling train to a finished strip, - wherein, in the event of an interruption in production in the downstream part of the plant, the strand of metal is separated by means of the pair of shears and the strand-guidance-side strand of metal is conveyed further in the upstream part of the plant and divided by means of the pair of shears into pieces, - wherein a pivotable roller table section of a roller table downstream of the pair of shears immediately adjacent to the pair of shears, is pivoted downwards by an angle (α) about an axis of rotation (y) disposed transverse to the main conveying direction (x), - wherein the pieces are conducted via the roller table section pivoted downwards at an angle to a conveying device, and - wherein the pieces are transported by means of the conveying device transverse to the main conveying direction (x) to a collecting station, wherein the collecting station possesses at least three receiving containers (19, 19' and 19") and can also be emptied while the pieces are being cut off by the pair of shears. - continuous casting of a strand of metal in the continuous casting installation (1, 2, 4), - wherein, in normal operation, the strand of metal, starting from the upstream part of the plant, is conveyed uncut in the main conveying direction (x) via the pair of shears to the downstream part of the plant and is rolled in the rolling train to a finished strip, - wherein, in the event of an interruption in production in the downstream part of the plant, the strand of metal is separated by means of the pair of shears and the strand-guidance-side strand of metal is conveyed further in the upstream part of the plant and divided by means of the pair of shears into pieces, - wherein a pivotable roller table section of a roller table downstream of the pair of shears immediately adjacent to the pair of shears, is pivoted downwards by an angle (α) about an axis of rotation (y) disposed transverse to the main conveying direction (x), - wherein the pieces are conducted via the roller table section pivoted downwards at an angle to a conveying device, and - wherein the pieces are transported by means of the conveying device transverse to the main conveying direction (x) to a collecting station, wherein the collecting station possesses at least three receiving containers (19, 19' and 19") and can also be emptied while the pieces are being cut off by the pair of shears.
A display apparatus comprising: a plurality of display modules (30A-30P), each of the plurality of display modules (30A-30P) comprising a substrate and a plurality of inorganic light emitting diodes mounted on a mounting surface of the substrate; a cover layer configured to cover the mounting surface of each of the plurality of display modules (30A-30P); and an adhesive layer arranged between the cover layer and the mounting surface of each of the plurality of display modules (30A-30P) to cause the cover layer to adhere to the mounting surface of each of the plurality of display modules (30A-30P), wherein the adhesive layer comprises a first region, disposed on a gap formed between the plurality of display modules (30A-30P), and a second region disposed on the mounting surface of each of the plurality of display modules (30A-30P), wherein the adhesive layer includes a photosensitive material such that the first region of the adhesive layer is configured to undergo a photosensitive reaction based on an external light source, and characterised in that the first region is configured to generate a change in physical properties by the photosensitive reaction so that the first region becomes a light absorbing region. a plurality of display modules (30A-30P), each of the plurality of display modules (30A-30P) comprising a substrate and a plurality of inorganic light emitting diodes mounted on a mounting surface of the substrate; a cover layer configured to cover the mounting surface of each of the plurality of display modules (30A-30P); and an adhesive layer arranged between the cover layer and the mounting surface of each of the plurality of display modules (30A-30P) to cause the cover layer to adhere to the mounting surface of each of the plurality of display modules (30A-30P), wherein the adhesive layer comprises a first region, disposed on a gap formed between the plurality of display modules (30A-30P), and a second region disposed on the mounting surface of each of the plurality of display modules (30A-30P), wherein the adhesive layer includes a photosensitive material such that the first region of the adhesive layer is configured to undergo a photosensitive reaction based on an external light source, and characterised in that the first region is configured to generate a change in physical properties by the photosensitive reaction so that the first region becomes a light absorbing region.
A flexible shaft for transmitting torque, said shaft having a core and at least one layer thereon, the outer layer comprising a plurality of wires (21,22,23,24,25) including at least one wire having a noncircular cross-section, said wires being helically wound in a first winding direction, the maximum thickness of said wire of noncircular cross-section being substantially less than the maximum diameter of said outer layer wires (22,23,24,25) of circular cross-section; and a strand of resilient compressible material wound on said wire of noncircular cross-section, said strand protruding above the adjacent portions of said outer layer. the maximum thickness of said wire of noncircular cross-section being substantially less than the maximum diameter of said outer layer wires (22,23,24,25) of circular cross-section; and said strand protruding above the adjacent portions of said outer layer.
An image data entropy-encoding method based on context-based adaptive binary arithmetic coding, CABAC, the method comprising: setting current context model information for entropy-encoding a syntax element of a first block of the image data and a syntax element of a second block of the image data based on previous context model information that is used to entropy-encode the syntax element of a previously encoded block that is adjacent to the first block; and entropy-encoding the syntax element of the first block and the syntax element of the second block based on the current context model information, characterized in that the previous context model information indicates a most probable symbol, corresponding to a context index, and an occurrence probability of the most probable symbol applied to context-based adaptive binary arithmetic coding, CABAC, of the previously encoded block, and the current context model information is obtained by updating the information that indicates the most probable symbol and the occurrence probability of the most probable symbol in the previous context model information based on a result of the context-based adaptive binary arithmetic coding of the previously encoded block. setting current context model information for entropy-encoding a syntax element of a first block of the image data and a syntax element of a second block of the image data based on previous context model information that is used to entropy-encode the syntax element of a previously encoded block that is adjacent to the first block; and entropy-encoding the syntax element of the first block and the syntax element of the second block based on the current context model information, characterized in that the previous context model information indicates a most probable symbol, corresponding to a context index, and an occurrence probability of the most probable symbol applied to context-based adaptive binary arithmetic coding, CABAC, of the previously encoded block, and the current context model information is obtained by updating the information that indicates the most probable symbol and the occurrence probability of the most probable symbol in the previous context model information based on a result of the context-based adaptive binary arithmetic coding of the previously encoded block.
An ophthalmic lens having a front main face and a back main face, at least one of both main faces comprising a filter, which provides the main face comprising said filter with the following properties: - an average blue reflectance factor (R m,B) within a wavelength range of from 420 nanometers to 450 nanometers, which is higher than or equal to 5%, for an angle of incidence ranging from 0° to 15°, - a spectral reflectivity curve for an angle of incidence ranging from 0° to 15°, this reflectivity curve having: - a maximum reflectivity at a wavelength of less than 435 nanometers, and - a full width at half maximum (FWHM) higher than or equal to 80 nanometers, and - for an angle of incidence θ ranging from 0° to 15° and for an angle of incidence θ' ranging from 30° to 45°, a parameter Δ(θ,θ') defined by the relation Δ(θ,θ') = 1 - [R θ' (435 nm) / R θ (435 nm)], in such a way that this parameter Δ(θ,θ') is higher than or equal to 0.6, where - R θ (435 nm) represents the reflectivity value of the main face comprising said filter at a 435 nanometer-wavelength for the angle of incidence θ, and - R θ' (435 nm) represents the reflectivity value of the main face comprising said filter at a 435 nanometer-wavelength for the angle of incidence θ'. - an average blue reflectance factor (R m,B) within a wavelength range of from 420 nanometers to 450 nanometers, which is higher than or equal to 5%, for an angle of incidence ranging from 0° to 15°, - a spectral reflectivity curve for an angle of incidence ranging from 0° to 15°, this reflectivity curve having: - a maximum reflectivity at a wavelength of less than 435 nanometers, and - a full width at half maximum (FWHM) higher than or equal to 80 nanometers, and - a maximum reflectivity at a wavelength of less than 435 nanometers, and - a full width at half maximum (FWHM) higher than or equal to 80 nanometers, and - for an angle of incidence θ ranging from 0° to 15° and for an angle of incidence θ' ranging from 30° to 45°, a parameter Δ(θ,θ') defined by the relation Δ(θ,θ') = 1 - [R θ' (435 nm) / R θ (435 nm)], in such a way that this parameter Δ(θ,θ') is higher than or equal to 0.6, where - R θ (435 nm) represents the reflectivity value of the main face comprising said filter at a 435 nanometer-wavelength for the angle of incidence θ, and - R θ' (435 nm) represents the reflectivity value of the main face comprising said filter at a 435 nanometer-wavelength for the angle of incidence θ'. - R θ (435 nm) represents the reflectivity value of the main face comprising said filter at a 435 nanometer-wavelength for the angle of incidence θ, and - R θ' (435 nm) represents the reflectivity value of the main face comprising said filter at a 435 nanometer-wavelength for the angle of incidence θ'.