mhurhangee/ep-ind-claims huggingface dataset:
A skin contact detector, comprising a signal generator configured to generate an electric trigger signal; a reference circuit comprising a capacitance (Cref) and a resistance (RPref) arranged in parallel for acting as a model of electrical properties of the skin to generate a reference signal in dependence on the trigger signal; a probe touchable by a skin, wherein the probe is configured to measure a skin response signal in dependence on the trigger signal, and wherein the probe is configured to obtain the response signal dependent on a resistance and capacitance of the skin in electrical contact with the probe; and a comparator configured to compare the skin response signal with the reference signal so as to generate a signal indicative of skin contact.
An engine brake rocker arm assembly (10,110) operable in an engine drive mode and an engine braking mode, the engine brake rocker arm assembly selectively opening first (30,130) and second (32,132) exhaust valves and comprising: an exhaust valve rocker arm assembly having an exhaust rocker arm (14,114) that is configured to rotate around a rocker shaft; and an engine brake actuation assembly comprising: an actuator assembly (40,140); an actuator lever (42,142); and a mechanically controlled engine brake actuator (26,144); wherein the mechanically controlled engine brake actuator (26,144) moves between (i) a first position corresponding to the engine brake mode wherein the second exhaust valve (32,132) is opened prior to the first exhaust valve (30,130), and (ii) a second position corresponding to the drive mode wherein the second valve (32,132) is not opened prior to the first exhaust valve (30,130), and wherein the actuator assembly (40,140) is hydraulically actuated and includes an actuator piston (44,184) that translates within an actuation cylinder causing movement of the actuator lever (42,142) and ultimately movement of the mechanically controlled engine brake actuator (26,144) between the first and second positions, characterized in that, the actuator assembly further comprises an actuation shaft that extends out of the actuation cylinder and is coupled to a compliance piston received in a compliance cylinder, wherein the actuator piston and the compliance piston translate together. an exhaust valve rocker arm assembly having an exhaust rocker arm (14,114) that is configured to rotate around a rocker shaft; and an engine brake actuation assembly comprising: an actuator assembly (40,140); an actuator lever (42,142); and a mechanically controlled engine brake actuator (26,144); an actuator assembly (40,140); an actuator lever (42,142); and a mechanically controlled engine brake actuator (26,144); wherein the mechanically controlled engine brake actuator (26,144) moves between (i) a first position corresponding to the engine brake mode wherein the second exhaust valve (32,132) is opened prior to the first exhaust valve (30,130), and (ii) a second position corresponding to the drive mode wherein the second valve (32,132) is not opened prior to the first exhaust valve (30,130), and wherein the actuator assembly (40,140) is hydraulically actuated and includes an actuator piston (44,184) that translates within an actuation cylinder causing movement of the actuator lever (42,142) and ultimately movement of the mechanically controlled engine brake actuator (26,144) between the first and second positions, characterized in that, the actuator assembly further comprises an actuation shaft that extends out of the actuation cylinder and is coupled to a compliance piston received in a compliance cylinder, wherein the actuator piston and the compliance piston translate together.
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked, a first frame member that houses the battery cell stack and has an opened upper part, a second frame member that covers the battery cell stack from an upper part of the first frame member, and a thermally conductive resin layer that is located between the first frame member and the battery cell stack, wherein the first frame member includes a bottom part and two side surface parts that are connected by the bottom part and face each other, wherein the thermally conductive resin layer is located between the bottom part and the battery cell stack, and wherein the thermally conductive resin layer includes a plurality of coating lines formed by reciprocally coating along the direction in which the two side parts face each other. a battery cell stack in which a plurality of battery cells are stacked, a first frame member that houses the battery cell stack and has an opened upper part, a second frame member that covers the battery cell stack from an upper part of the first frame member, and a thermally conductive resin layer that is located between the first frame member and the battery cell stack, wherein the first frame member includes a bottom part and two side surface parts that are connected by the bottom part and face each other, wherein the thermally conductive resin layer is located between the bottom part and the battery cell stack, and wherein the thermally conductive resin layer includes a plurality of coating lines formed by reciprocally coating along the direction in which the two side parts face each other.
A method of manufacturing a semiconductor device, the semiconductor device comprising: a crystalline semiconductor substrate; an etch stop layer disposed on a first surface of the crystalline semiconductor substrate; a conductive through via structure penetrating the crystalline semiconductor substrate and the etch stop layer; and an insulating separation layer disposed between the conductive through via structure and the crystalline semiconductor substrate, wherein a lower portion of the insulating separation layer contacts a portion of the etch stop layer. wherein the method comprises: performing a first etching process to form a through hole in the semiconductor substrate and to expose the etch stop layer; and performing a second etching process to extend the through hole into the etch stop layer. a crystalline semiconductor substrate; an etch stop layer disposed on a first surface of the crystalline semiconductor substrate; a conductive through via structure penetrating the crystalline semiconductor substrate and the etch stop layer; and an insulating separation layer disposed between the conductive through via structure and the crystalline semiconductor substrate, wherein a lower portion of the insulating separation layer contacts a portion of the etch stop layer. wherein the method comprises: performing a first etching process to form a through hole in the semiconductor substrate and to expose the etch stop layer; and performing a second etching process to extend the through hole into the etch stop layer. performing a first etching process to form a through hole in the semiconductor substrate and to expose the etch stop layer; and performing a second etching process to extend the through hole into the etch stop layer.
A hybrid orthodontic appliance comprising two or more orthodontic aligner segments (210,230) and orthodontic arch wires, wherein the two or more orthodontic aligner segments are segments of a traditional plastic aligner tray, wherein each of the aligner segments exerts an aligning force on one or more teeth of a dental arch, but less than all the teeth of the dental arch, of a patient, and wherein a front segment is for exerting an aligning force on the front segment of the dental arch, and a back segment is for exerting an aligning force on the back segment on the left side and right side of the dental arch, wherein the orthodontic arch wires impart controllability to the appliance and augment properties of the aligner with the properties of orthodontic arch wires, thereby enhancing the effectiveness of the aligner segments for realigning the one or more teeth, and wherein the orthodontic arch wires hold together the aligner segments (210 and 220) and include: - a buccal wire and a lingual wire including respectively buccal springs and lingual springs between the front segment and the back segment, and - a discrete spring expansion wire between the left side and right side of the back segment. wherein the two or more orthodontic aligner segments are segments of a traditional plastic aligner tray, wherein each of the aligner segments exerts an aligning force on one or more teeth of a dental arch, but less than all the teeth of the dental arch, of a patient, and wherein a front segment is for exerting an aligning force on the front segment of the dental arch, and a back segment is for exerting an aligning force on the back segment on the left side and right side of the dental arch, wherein the orthodontic arch wires impart controllability to the appliance and augment properties of the aligner with the properties of orthodontic arch wires, thereby enhancing the effectiveness of the aligner segments for realigning the one or more teeth, and wherein the orthodontic arch wires hold together the aligner segments (210 and 220) and include: - a buccal wire and a lingual wire including respectively buccal springs and lingual springs between the front segment and the back segment, and - a discrete spring expansion wire between the left side and right side of the back segment. - a buccal wire and a lingual wire including respectively buccal springs and lingual springs between the front segment and the back segment, and - a discrete spring expansion wire between the left side and right side of the back segment.
A rodent with at least 30% of all of its glial cells in its corpus callosum and/or at least 5% of all of its glial cells in the white matter of its brain and/or brain stem being human glial cells arising from transplantation of human glial progenitor cells, wherein said transplantation comprises introducing the human glial progenitor cells into multiple locations within the forebrain and/or brain stem of said rodent at a pre-natal or neonatal stage, and wherein said rodent has native glial brain cells replaced with human glial progenitor cells.
A wireless transmit/receive unit, WTRU, comprising: a processor; and a transceiver (116, 117), the processor and the transceiver are configured to acquire a first random access configuration and a second random access configuration, wherein the first random access configuration and the second random access configuration are different, and the processor and the transceiver are further configured to perform a first random access procedure using the first random access configuration using first physical resources and a second random access procedure using the second random access configuration using second physical resources, wherein the first random access configuration is used for at least initial random access and the second random access configuration is used for timing adjustments, wherein the first physical resources are different physical resources than the second physical resources, and the processor and the transceiver are further configured to receive a first message for the first random access procedure and to receive a second message for the second random access procedure, wherein the first message includes a single medium access control, MAC, header and a plurality of first random access responses and the second message includes a single MAC header and a plurality of second random access responses. a processor; and a transceiver (116, 117), the processor and the transceiver are configured to acquire a first random access configuration and a second random access configuration, wherein the first random access configuration and the second random access configuration are different, and the processor and the transceiver are further configured to perform a first random access procedure using the first random access configuration using first physical resources and a second random access procedure using the second random access configuration using second physical resources, wherein the first random access configuration is used for at least initial random access and the second random access configuration is used for timing adjustments, wherein the first physical resources are different physical resources than the second physical resources, and the processor and the transceiver are further configured to receive a first message for the first random access procedure and to receive a second message for the second random access procedure, wherein the first message includes a single medium access control, MAC, header and a plurality of first random access responses and the second message includes a single MAC header and a plurality of second random access responses.
Relay socket for accommodating a relais, comprising a base body with a receptacle for the relais, wherein the receptacle has, in particular, at least two electronic connections for the relais, wherein the relay socket also comprises at least one pair of connecting terminals connected to the two electronic connections to close a circuit, wherein the pair of connecting terminals comprises a first connecting terminal for a first connecting wire and a second connecting terminal for a second connecting wire, wherein the first connecting terminal is spaced apart from the receptacle by a first distance in a first direction, characterized in that the second connecting terminal is spaced apart from the receptacle by a second distance in the first direction, wherein the first distance and the second distance are different, wherein the pair of connecting terminals is embodied as a separate unit from the base body, which can be plugged, in particular latched, into the base body, characterized in that the relais socket comprises a second pair of connecting terminals in the second direction.
An LED illuminating method of an image measuring device that performs, on a work piece to be measured, low brightness continuous illumination and stroboscopic illumination, the method comprising: switching driving circuits of a common high-brightness LED, between - pseudo-continuous illumination, in which average brightness is reduced by pulse lighting, performed by a pulse lighting circuit, and - stroboscopic illumination in response to a received stroboscopic pulse, in which high-brightness light is emitted instantaneously and continuously for the duration of the received stroboscopic pulse, performed by a continuous lighting circuit and a gate circuit together, wherein the pulse lighting circuit is provided separately and independently from the continuous lighting circuit, wherein switching is performed by turning on one of the pulse lighting circuit and the pair of the continuous lighting circuit and the gate circuit, and turning off the other. switching driving circuits of a common high-brightness LED, between - pseudo-continuous illumination, in which average brightness is reduced by pulse lighting, performed by a pulse lighting circuit, and - stroboscopic illumination in response to a received stroboscopic pulse, in which high-brightness light is emitted instantaneously and continuously for the duration of the received stroboscopic pulse, performed by a continuous lighting circuit and a gate circuit together, wherein the pulse lighting circuit is provided separately and independently from the continuous lighting circuit, - pseudo-continuous illumination, in which average brightness is reduced by pulse lighting, performed by a pulse lighting circuit, and - stroboscopic illumination in response to a received stroboscopic pulse, in which high-brightness light is emitted instantaneously and continuously for the duration of the received stroboscopic pulse, performed by a continuous lighting circuit and a gate circuit together, wherein the pulse lighting circuit is provided separately and independently from the continuous lighting circuit, wherein switching is performed by turning on one of the pulse lighting circuit and the pair of the continuous lighting circuit and the gate circuit, and turning off the other.
A process for selectively removing molybdenum from a solution which comprises molybdenum, said process comprising the following steps: ▪ bringing the solution to an acid pH lower or equal than 3 by means of the addition of an inorganic acid; wherein said process is characterized by ▪ adding at least one organic solvent to the solution and stirring continuously so as to create a water - organic emulsion; ▪ adding to the water - organic emulsion of at least one metal alkaline xanthate of general formula MeRX, wherein R is a linear or branched alkyl group having a carbon atom number higher or equal than 2, Me is an alkaline metal selected from Li, Na, K, Rb, Cs and Fr, and X is the xanthate group, so as to form a complex with molybdenum wherein the molar ratio molybdenum/metal alkaline xanthate ranges from 1/6 to 1/2, keeping the emulsion to a acid pH by means of the addition of an inorganic acid, and interrupting the stirring so as to allow the separation of the aqueous phase from the organic phase. ▪ bringing the solution to an acid pH lower or equal than 3 by means of the addition of an inorganic acid; wherein said process is characterized by ▪ adding at least one organic solvent to the solution and stirring continuously so as to create a water - organic emulsion; ▪ adding to the water - organic emulsion of at least one metal alkaline xanthate of general formula MeRX, wherein R is a linear or branched alkyl group having a carbon atom number higher or equal than 2, Me is an alkaline metal selected from Li, Na, K, Rb, Cs and Fr, and X is the xanthate group, so as to form a complex with molybdenum wherein the molar ratio molybdenum/metal alkaline xanthate ranges from 1/6 to 1/2, keeping the emulsion to a acid pH by means of the addition of an inorganic acid, and interrupting the stirring so as to allow the separation of the aqueous phase from the organic phase.
A radio station comprising: a communication control unit that is configured to control Coordinated Multi Point, CoMP, transmission and reception to and from a single radio terminal, by cooperating with another radio station; and an interface unit that is configured to transmit, to the another radio station, CoMP information that includes: an identity of each cell on which the CoMP transmission and reception to and from the single terminal is capable of being performed; and traffic information including at least a usage rate per physical resource block of the each cell including a cell belonging to the radio station and a cell belonging to the another radio station. a communication control unit that is configured to control Coordinated Multi Point, CoMP, transmission and reception to and from a single radio terminal, by cooperating with another radio station; and an interface unit that is configured to transmit, to the another radio station, CoMP information that includes: an identity of each cell on which the CoMP transmission and reception to and from the single terminal is capable of being performed; and traffic information including at least a usage rate per physical resource block of the each cell including a cell belonging to the radio station and a cell belonging to the another radio station. an identity of each cell on which the CoMP transmission and reception to and from the single terminal is capable of being performed; and traffic information including at least a usage rate per physical resource block of the each cell including a cell belonging to the radio station and a cell belonging to the another radio station.
Shower partition with a panel and a guide rail, wherein the panel is provided with a fitting over which the panel is movably guided at the top by the guide rail, wherein the fitting has a roller axis with rollers arranged thereon, wherein the roller axis runs through the panel, wherein the roller axis is pivotable around a swivel axis running in the direction of movement and in the panel, characterised in that the roller axis is designed to form a cross for the pivot mounting and runs together with the swivel axis in a horizontal plane and has corresponding bearing pins therefor extending in the direction of the swivel axis.
Transformer, in particular cast-resin transformer, having at least one lower voltage winding and at least one upper voltage winding, characterized in that an electrical shield coaxially surrounds the upper voltage winding, and the electrical shield is interrupted in the radial direction, and the electrical shield is connected to the electrical ground.
A method for generating a representation of physical degradations in an optical communication network comprising transparent switching nodes (1, 2, 3, 4) mutually linked by optical connections (11, 12, 21, 22, 31, 32, 41, 42), characterized in that said method comprises: associating a pair of opposite-direction optical connections as a bidirectional link (10, 20, 30, 40), providing at least one respective physical degradation parameter of each of said opposite-direction optical connections of said pair, determining at least one physical degradation parameter that is characteristic of said bidirectional link based on said physical degradation parameters of the opposite-direction optical connections of said pair, storing a descriptor of the bidirectional link comprising said at least one physical degradation parameter that is characteristic of said bidirectional link. associating a pair of opposite-direction optical connections as a bidirectional link (10, 20, 30, 40), providing at least one respective physical degradation parameter of each of said opposite-direction optical connections of said pair,