mhurhangee/ep-ind-claims huggingface dataset:
A wiring module including a plurality of bus bars (14, 15, 16) for connecting, in a battery module in which a plurality of electric cells including positive and negative electrode terminals (12A, 12B) are lined up, the electrode terminals (12A, 12B) of adjacent electric cells to each other, and a resin protector holding the plurality of bus bars (14, 15, 16), wherein: the plurality of bus bars (14, 15, 16) comprise first bus bars (15, 15A, 15B) that connect the electrode terminals (12A, 12B) of adjacent electric cells to each other, and second bus bars that connect the electrode terminals (12A, 12B) of adjacent electric cells to each other in a direction intersecting a connection direction of the first bus bars (15, 15A, 15B); the resin protector comprises a plurality of coupling units (21A-E) that are coupled via the first and second bus bars (14, 15, 16); adjacent coupling units (21A-E) of the plurality of coupling units (21A-E) are slidably coupled and locked via the first and second bus bars (14, 15, 16) in a connection direction of said bus bars (14, 15, 16); one coupling unit of the coupling units (21A-E) is slidably coupled and locked by one bus bar of the first bus bars (14, 15, 16) to another coupling unit of the coupbling units (21A-E), characterized in that: the one coupling unit includes an extension portion extending toward another bus bar, wherein this other bus bar couples and locks two other coupling units (21B, 21D), the extension portion being further interposed between the two other coupling units (21B, 21D) to receive and hold an intermediate portion of the other bus bar that is not held by the two other coupling units (21B, 21D). the plurality of bus bars (14, 15, 16) comprise first bus bars (15, 15A, 15B) that connect the electrode terminals (12A, 12B) of adjacent electric cells to each other, and second bus bars that connect the electrode terminals (12A, 12B) of adjacent electric cells to each other in a direction intersecting a connection direction of the first bus bars (15, 15A, 15B); the resin protector comprises a plurality of coupling units (21A-E) that are coupled via the first and second bus bars (14, 15, 16); adjacent coupling units (21A-E) of the plurality of coupling units (21A-E) are slidably coupled and locked via the first and second bus bars (14, 15, 16) in a connection direction of said bus bars (14, 15, 16); one coupling unit of the coupling units (21A-E) is slidably coupled and locked by one bus bar of the first bus bars (14, 15, 16) to another coupling unit of the coupbling units (21A-E), the one coupling unit includes an extension portion extending toward another bus bar, wherein this other bus bar couples and locks two other coupling units (21B, 21D), the extension portion being further interposed between the two other coupling units (21B, 21D) to receive and hold an intermediate portion of the other bus bar that is not held by the two other coupling units (21B, 21D).
A base station apparatus configured to transmit a signal to a terminal apparatus and receive an acknowledgement from the terminal apparatus, the base station apparatus comprising: transmission means configured to transmit, to the terminal apparatus, information pertaining to a resource to be used to transmit the acknowledgement and determined in accordance with a length of a period from when the signal is transmitted to the terminal apparatus until the acknowledgement is received; and reception means configured to receive the acknowledgement transmitted by the terminal apparatus using the resource specified based on the information, characterized in that a plurality of resources usable to transmit the acknowledgement are respectively associated with different indices, the information is used to determine a value of an index among the different indices corresponding to the length of the period, and the reception means is configured to receive the acknowledgement in a resource associated with a combination of the determined value and a resource used to transmit control information included in the signal. transmission means configured to transmit, to the terminal apparatus, information pertaining to a resource to be used to transmit the acknowledgement and determined in accordance with a length of a period from when the signal is transmitted to the terminal apparatus until the acknowledgement is received; and reception means configured to receive the acknowledgement transmitted by the terminal apparatus using the resource specified based on the information, characterized in that a plurality of resources usable to transmit the acknowledgement are respectively associated with different indices, the information is used to determine a value of an index among the different indices corresponding to the length of the period, and the reception means is configured to receive the acknowledgement in a resource associated with a combination of the determined value and a resource used to transmit control information included in the signal.
A method for aligning test environments, comprising: measuring, by a measurement device located in an anechoic chamber, a standard signal transmitted from a base station simulator and went through to a channel emulator, then output with noise added inside the channel emulator, to multiple antennas within the anechoic chamber; obtaining, by a computing device, measurement information based on the standard signal and the noise transmitted from the measurement device; determining, by the computing device, whether the measurement information is within a predetermined range of a target value; and transmitting, by the computing device, a control signal to the channel emulator to adjust the noise output from the channel emulator so that the computing device obtains desired measurement information based on the standard signal and the adjusted noise when the measurement information is not within the predetermined range of the target value; wherein the measurement information comprises a signal strength; characterized in that the signal strength is a received power of a particular reference signal, or a total power of a full bandwidth signal, and the particular reference signal is a downlink reference signal, a Synchronization Signal and PBCH block, in the following also referred to as SSB, signal, or a pilot reference signal. measuring, by a measurement device located in an anechoic chamber, a standard signal transmitted from a base station simulator and went through to a channel emulator, then output with noise added inside the channel emulator, to multiple antennas within the anechoic chamber; obtaining, by a computing device, measurement information based on the standard signal and the noise transmitted from the measurement device; determining, by the computing device, whether the measurement information is within a predetermined range of a target value; and transmitting, by the computing device, a control signal to the channel emulator to adjust the noise output from the channel emulator so that the computing device obtains desired measurement information based on the standard signal and the adjusted noise when the measurement information is not within the predetermined range of the target value; wherein the measurement information comprises a signal strength; characterized in that the signal strength is a received power of a particular reference signal, or a total power of a full bandwidth signal, and the particular reference signal is a downlink reference signal, a Synchronization Signal and PBCH block, in the following also referred to as SSB, signal, or a pilot reference signal.
A high-throughput, maskless fabrication apparatus for fabricating scaffolds or constructs, comprising: a light source to produce a probe light; a digital display device to receive the probe light and to cause spatial modulation of the received probe light to produce a programmable spatial pattern in a spatially-modulated light; a stage to hold a target surface or chamber including a multi-well plate, wherein the target surface or chamber contains a solution including a material or multiple materials that forms a scaffold or construct based on interaction with the spatially-modulated light projected at the solution; and a computer control device in communication with the light source and the digital display device to control a change of the solution including the material or multiple materials to form the scaffold or construct, characterised in that the digital display device is configured to generate optical patterns which are projected to (i) the entire bottom of the multi-well plate or (ii) a part of the bottom of the multi-well comprising two or more wells to expose solutions contained in at least some different wells to cause selective photopolymerization of the solution in the respective well. a light source to produce a probe light; a digital display device to receive the probe light and to cause spatial modulation of the received probe light to produce a programmable spatial pattern in a spatially-modulated light; a stage to hold a target surface or chamber including a multi-well plate, wherein the target surface or chamber contains a solution including a material or multiple materials that forms a scaffold or construct based on interaction with the spatially-modulated light projected at the solution; and a computer control device in communication with the light source and the digital display device to control a change of the solution including the material or multiple materials to form the scaffold or construct, characterised in that the digital display device is configured to generate optical patterns which are projected to (i) the entire bottom of the multi-well plate or (ii) a part of the bottom of the multi-well comprising two or more wells to expose solutions contained in at least some different wells to cause selective photopolymerization of the solution in the respective well.
Device for tempering preforms of PET with a heater box comprising at least two radiators, wherein each radiator consists at least of an elongated housing and of conductive connections mounted at the ends, wherein the conductive connections are operatively connected to insulators provided with electrical terminals, characterized in that the heater box comprises a base plate and two support plates arranged substantially perpendicular to the base plate, wherein the radiators are mounted on the base plate and the support plates, and the conductive connections and the insulators are operatively interconnected in a detachable manner by way of a plug connection.
Holding element comprising a rod in which one portion of the length, referred to as working length, corresponds to the thickness of a construction element to be held by said element, with the rod having a thread, the holding element comprising an adjusting knob of substantially circular shape and removably receiving the rod in a median recess, the adjusting knob being provided with securing means (12, 12a) for securing to the rod comprising screwing means engaging with the thread of the rod in order to adjust the working length of the rod by screwing or unscrewing the adjusting knob around the rod, with the holding element being characterised in that the securing means comprise two securing plates (12, 12a) housed in the adjusting knob of the holding element and extending in an opposite direction from one another along an axis of displacement along a diameter of the adjusting knob, with each plate (12, 12a) being mobile between, on the one hand, a first position wherein its inner end portion is on the passage of the recess and its outer end laterally protrudes from the adjusting knob, with this first position being taken when no action by an installer is carried out on its outer end and, on the other hand, a second position wherein its inner end portion releases the passage of the recess when an action is exerted on its outer end by the installer.
A system for manufacturing three-dimensional structures, the system comprising a plurality of printing stations for performing parallel printing in an confined space, wherein each printing station comprises a carrier, a deposition unit with at least one nozzle arranged for dispensing filaments of build material paste through an opening area thereof and a station controller configured to operate the deposition unit for deposition of filaments of a build material paste on the carrier in an interconnected arrangement in a plurality of stacked layers in order to form one or more three-dimensional structures, the at least one nozzle and the carrier being relatively moveable with respect to each other, characterized in that the system comprises a reservoir unit that is configured to house the build material paste, wherein the deposition unit is coupled to the reservoir unit, wherein the reservoir unit includes at least one reservoir arranged outside of the confined space, wherein the deposition unit includes at least a first nozzle and a second nozzle, wherein the first nozzle is coupled to a first reservoir for first feeding build material paste and the second nozzle is coupled to a second reservoir for second feeding build material paste, and wherein the first nozzle is further coupled to the second reservoir, and the second nozzle is further coupled to the first reservoir.
A melt transfer system, comprising a vessel for receiving molten metal, a flow duct for feeding the molten metal from a vessel through the flow duct, and a vessel cover for closing the vessel in an air-tight manner, and an oblique positioning device for tilting the vessel, characterized in that the oblique positioning device comprises at least one leg (12.2) connected to the vessel in an articulated manner and a vessel-side locking device for locking the leg (12.2) in a functional position, the leg (12.2) being movable from an idle position into a functional position and protruding over a vessel underside in the functional position.
A controller for a variable valve mechanism applied to an internal combustion engine including a plurality of cylinders, intake valves provided respectively in the cylinders, and a variable valve mechanism (600, 610) for changing a valve characteristic of the intake valves, wherein the internal combustion engine is capable of switching an operation mode between a cylinder deactivation mode for retaining the intake valves of some of the cylinders in a valve closing state and an all-cylinder operation mode for performing opening and closing actions of the intake valves of all the cylinders, the controller comprising: a control section for controlling the valve characteristic, wherein the control section is capable of setting, as the valve characteristic at the time of executing the all-cylinder operation mode, a valve characteristic with which an overlap is generated in valve opening periods of the intake valves between the cylinders, characterized in that, when the internal combustion engine returns from the cylinder deactivation mode, the control section is configured to execute overlap adjustment processing for controlling the valve characteristic such that an overlap amount in the valve opening periods of the intake valves between the cylinders becomes smaller than an overlap amount set in the all-cylinder operation mode. a control section for controlling the valve characteristic, wherein the control section is capable of setting, as the valve characteristic at the time of executing the all-cylinder operation mode, a valve characteristic with which an overlap is generated in valve opening periods of the intake valves between the cylinders, characterized in that, when the internal combustion engine returns from the cylinder deactivation mode, the control section is configured to execute overlap adjustment processing for controlling the valve characteristic such that an overlap amount in the valve opening periods of the intake valves between the cylinders becomes smaller than an overlap amount set in the all-cylinder operation mode.
A method of detecting attacks on a communication authentication layer of an in-vehicle network, the method comprising: determining, by at least one network node, at least one attack attempt on the communication authentication layer of the in-vehicle network, wherein the determination is carried out by identifying anomalies in at least one of messages, data and metadata directed to the communication authentication layer; and wherein the determination is carried out by: counting, by the at least one network node, the number of valid messages and the number of invalid messages received by the node during a predefined time interval, and identifying an anomaly based on one of two alternatives: the first alternative being the number of valid messages is less than a first threshold and the number of invalid messages is greater than a second threshold, and the second alternative being relating the number of valid messages to the number of invalid messages to a ratio; and selecting, by the at least one network node, a response corresponding to the determined attack attempt, said response selected from at least one of: modification of parameter values corresponding to a security protocol; a failsafe response; and rejection of messages identified as anomalies. the first alternative being the number of valid messages is less than a first threshold and the number of invalid messages is greater than a second threshold, and the second alternative being relating the number of valid messages to the number of invalid messages to a ratio; and selecting, by the at least one network node, a response corresponding to the determined attack attempt, said response selected from at least one of: modification of parameter values corresponding to a security protocol; a failsafe response; and rejection of messages identified as anomalies. modification of parameter values corresponding to a security protocol; a failsafe response; and rejection of messages identified as anomalies.
A document feeder device configured to turn by a hinge with respect to a reading unit which includes a reader configured to read an image on a sheet, the document feeder device comprising: a pressing plate arranged to press a sheet on the reading glass against the reading glass when the document feeder device is at a position blocking the reading glass, an attachment part to which a communication device main unit for receiving data from outside the reading unit is attached, and wherein at least part of the pressing plate is removable from the document feeder device to externally expose the attachment part. a pressing plate arranged to press a sheet on the reading glass against the reading glass when the document feeder device is at a position blocking the reading glass, an attachment part to which a communication device main unit for receiving data from outside the reading unit is attached, and wherein at least part of the pressing plate is removable from the document feeder device to externally expose the attachment part.
A rendering method, comprising the steps of: subdividing a frame where a two-dimensional image is formed into predetermined unit areas; determining an area in the frame corresponding to a first object of the two-dimensional image; determining whether or not overwrite rendering is possible for each unit area in the area, wherein said overwrite rendering provides means for rendering a portion of a second object in an area overlapping (ab) the area that corresponds to a portion of a second object in the two-dimensional image; and wherein the second object is positioned nearer a virtual viewpoint than the first object and rendering is inhibited in each unit area (Mc) in the overlapping area (ab) for which overwrite rendering is determined to be inhibited; making a determination that the overwrite rendering is inhibited with respect to each unit area (Mc) corresponding to a predetermined pattern of the unit area included in the area; making a determination that the overwrite rendering is inhibited by setting a Z coordinate value indicative of a distance from a virtual viewpoint to be identical to a Z coordinate value of the virtual viewpoint, with respect to the unit area (Mc) corresponding to the predetermined pattern; and rendering a predetermined object in the frame, wherein the area is determined based on a rendering range where the predetermined object is rendered, and wherein either the predetermined pattern (Mc) includes a predetermined design, or the method comprises the step of changing a degree of semi-transparency of the predetermined object by setting the predetermined pattern (Mc). subdividing a frame where a two-dimensional image is formed into predetermined unit areas; determining an area in the frame corresponding to a first object of the two-dimensional image; determining whether or not overwrite rendering is possible for each unit area in the area, wherein said overwrite rendering provides means for rendering a portion of a second object in an area overlapping (ab) the area that corresponds to a portion of a second object in the two-dimensional image; and wherein the second object is positioned nearer a virtual viewpoint than the first object and rendering is inhibited in each unit area (Mc) in the overlapping area (ab) for which overwrite rendering is determined to be inhibited; making a determination that the overwrite rendering is inhibited with respect to each unit area (Mc) corresponding to a predetermined pattern of the unit area included in the area; making a determination that the overwrite rendering is inhibited by setting a Z coordinate value indicative of a distance from a virtual viewpoint to be identical to a Z coordinate value of the virtual viewpoint, with respect to the unit area (Mc) corresponding to the predetermined pattern; and rendering a predetermined object in the frame, wherein the area is determined based on a rendering range where the predetermined object is rendered, and wherein either the predetermined pattern (Mc) includes a predetermined design, or the method comprises the step of changing a degree of semi-transparency of the predetermined object by setting the predetermined pattern (Mc).