mhurhangee/ep-ind-claims huggingface dataset:
A grounding connector comprising: a shell having a mating end provided at a front-end of the grounding connector and a mounting end, the shell defining a cavity open at the mating end configured to receive a mating component, the shell having a base at the mounting end defining the bottom of the cavity and having a plurality of contact channels open to the cavity; and grounding contacts received in corresponding said contact channels, the grounding contacts having mating ends and rear ends opposite the mating ends, the mating ends being positioned in the cavity for mating with the mating component, wherein the mounting end of the shell includes a mounting flange for mounting the grounding connector to another structure, characterized in that the mounting end is provided at a rear end of the grounding connector, and in that the grounding contacts have compliant portions at or near the rear ends, the compliant portions being received in the contact channels to mechanically and electrically connect by press-fit each of the grounding contacts to the shell and to each other through the shell, wherein the compliant portions are directly supported by the shell and physically engage the shell to electrically connect to the shell. a shell having a mating end provided at a front-end of the grounding connector and a mounting end, the shell defining a cavity open at the mating end configured to receive a mating component, the shell having a base at the mounting end defining the bottom of the cavity and having a plurality of contact channels open to the cavity; and grounding contacts received in corresponding said contact channels, the grounding contacts having mating ends and rear ends opposite the mating ends, the mating ends being positioned in the cavity for mating with the mating component, wherein the mounting end of the shell includes a mounting flange for mounting the grounding connector to another structure, characterized in that the mounting end is provided at a rear end of the grounding connector, and in that the grounding contacts have compliant portions at or near the rear ends, the compliant portions being received in the contact channels to mechanically and electrically connect by press-fit each of the grounding contacts to the shell and to each other through the shell, wherein the compliant portions are directly supported by the shell and physically engage the shell to electrically connect to the shell.
Device for dividing a room, particularly a cellar room, with a plurality of metal supports (1A,..., 1C), which are fixable between floor and ceiling of the room and between which metal grid elements (2A, 2B) are arranged that comprise longitudinal wires and transverse wires and that are connected each on two sides opposite to one another with one of the metal supports (1A, 1B; 1B, 1C), characterised in that each of the metal supports (1A,..., 1C) is provided with a mounting profile that comprises two rows of hooks and that each of the grid elements (2A; 2B), is engaged on both sides each into one of the rows of hooks of the neighbouring metal supports (1A, 1B; 1B, 1C), whereby some of the transverse wires comprise end members, which are bent hook-shaped downwards, so that they engage into the hooks of the rows of hooks and are held self-acting.
An electric vehicle charging connector configured to interconnect three alternating current electrical cables and two higher power direct current electrical cables, comprising: three cylindrical AC terminals connected to ends of the three AC electrical cables; a housing defining a plurality of housing terminal cavities in which the AC terminals are disposed; and a cover attached to the housing having a plurality of cover cavities that is axially aligned with the plurality of housing terminal cavities which are configured to receive the AC terminals as they are inserted within the plurality of housing terminal cavities, characterized in that it comprises furthermore two planar electrical terminals attached to the two higher power DC electrical cables received within a plurality of cover terminal cavities, wherein the two planar electrical terminals are attached to two cylindrical DC terminals disposed within the cover via a plurality of threaded fasteners, wherein one planar electrical terminal is laterally and longitudinally offset from the other planar electrical terminal, and wherein holes in the planar DC electrical terminals are keyed to the cylindrical DC terminals to assure proper alignment between the planar DC electrical terminals and the cylindrical DC terminals. three cylindrical AC terminals connected to ends of the three AC electrical cables; a housing defining a plurality of housing terminal cavities in which the AC terminals are disposed; and a cover attached to the housing having a plurality of cover cavities that is axially aligned with the plurality of housing terminal cavities which are configured to receive the AC terminals as they are inserted within the plurality of housing terminal cavities, characterized in that it comprises furthermore two planar electrical terminals attached to the two higher power DC electrical cables received within a plurality of cover terminal cavities, wherein the two planar electrical terminals are attached to two cylindrical DC terminals disposed within the cover via a plurality of threaded fasteners, wherein one planar electrical terminal is laterally and longitudinally offset from the other planar electrical terminal, and wherein holes in the planar DC electrical terminals are keyed to the cylindrical DC terminals to assure proper alignment between the planar DC electrical terminals and the cylindrical DC terminals.
A cart, comprising: a body having driving wheels mounted to left and right sides thereof; a motor for rotating the driving wheels; a frame comprising a lower part connected to the body, the frame extending upwards from the lower part; a handle connected to the frame; a sensor unit comprising a touch sensor configured to detect whether the handle is grasped; and a controller configured to perform control such that a braking operation is performed in different ways depending on whether the motor is rotating upon determining that the handle is not grasped based on data detected by the touch sensor, characterized by: the sensor unit comprising a tilt sensor configured to detect a tilt of the body, and the controller being configured to determine whether the cart is located on a slope based on data detected by the tilt sensor upon determining that the handle is not grasped based on data detected by the touch sensor, and to change a control parameter of the motor depending on whether the cart is located on a slope. a body having driving wheels mounted to left and right sides thereof; a motor for rotating the driving wheels; a frame comprising a lower part connected to the body, the frame extending upwards from the lower part; a handle connected to the frame; a sensor unit comprising a touch sensor configured to detect whether the handle is grasped; and a controller configured to perform control such that a braking operation is performed in different ways depending on whether the motor is rotating upon determining that the handle is not grasped based on data detected by the touch sensor, characterized by: the sensor unit comprising a tilt sensor configured to detect a tilt of the body, and the controller being configured to determine whether the cart is located on a slope based on data detected by the tilt sensor upon determining that the handle is not grasped based on data detected by the touch sensor, and to change a control parameter of the motor depending on whether the cart is located on a slope. the sensor unit comprising a tilt sensor configured to detect a tilt of the body, and the controller being configured to determine whether the cart is located on a slope based on data detected by the tilt sensor upon determining that the handle is not grasped based on data detected by the touch sensor, and to change a control parameter of the motor depending on whether the cart is located on a slope. to determine whether the cart is located on a slope based on data detected by the tilt sensor upon determining that the handle is not grasped based on data detected by the touch sensor, and to change a control parameter of the motor depending on whether the cart is located on a slope.
Valve arrangement for dosing a fluid medium into an exhaust line of an internal combustion engine, comprising: a valve seat which interacts with a closing body and in which a valve passage is formed; a perforated disk which is arranged downstream of the valve seat and which closes off the valve passage and which, in the region of the valve passage, has at least one axial hole through which the fluid medium can be injected into the exhaust line, wherein the perforated disk is attached, in particular welded, to a static holding body on which the valve seat is formed; characterized in that the valve arrangement comprises a connecting flange for the fluid-tight connection of the valve arrangement to the exhaust line, wherein the perforated disk extends from the valve passage to the connecting flange and is designed such that, in the installed state, it seals off the connecting flange in a fluid-tight manner with respect to the exhaust line. a valve seat which interacts with a closing body and in which a valve passage is formed; a perforated disk which is arranged downstream of the valve seat and which closes off the valve passage and which, in the region of the valve passage, has at least one axial hole through which the fluid medium can be injected into the exhaust line, wherein the perforated disk is attached, in particular welded, to a static holding body on which the valve seat is formed; characterized in that the valve arrangement comprises a connecting flange for the fluid-tight connection of the valve arrangement to the exhaust line, wherein the perforated disk extends from the valve passage to the connecting flange and is designed such that, in the installed state, it seals off the connecting flange in a fluid-tight manner with respect to the exhaust line.
An artificial graphite for the negative electrode of a lithium ion secondary battery, having a crystallite size Lc of 60-120 nm in the c-axial direction according to X-ray diffraction, and a crystallite size Lc of 150 nm or greater when subjected to graphitizing at a temperature of 3000°C under an inert gas atmosphere, wherein the artificial graphite is obtainable by coking treatment of a stock oil composition obtained by combining two or more different stock oils selected from among vacuum residue oil, FCC heavy oil and desulfurized heavy oil produced in the petroleum refining process, followed by calcining at a temperature of 1200-1500°C and heat treatment at 2300-2600°C.
High tension ignition cable for a spark-ignition internal combustion engine, the cable having a resistance per unit length of less than 7kΩ/m, comprising a number of co-axial layers characterised in that: the innermost layer is a core that comprises a plurality of electrically conducting fibres of carbon or graphite arranged in a bundle; and the next innermost layer is an insulating layer contacting on and surrounding the core. the innermost layer is a core that comprises a plurality of electrically conducting fibres of carbon or graphite arranged in a bundle; and the next innermost layer is an insulating layer contacting on and surrounding the core.
A disposable processing bag containing one or more ports, the bag formed of one or more pieces of plastic sealed to form a closed container; and an alignment plate, wherein the alignment plate is affixed to the bag or the one or more ports such that the alignment plate cannot be realigned or moved out of register when placed into a holder comprising an opening having a shape that corresponds to an outer edge shape of the alignment plate such that the bag with the affixed alignment plate will only fit into the opening in one orientation.
Separating device for a packaging machine, comprising a first belt system and a second belt system which are successively arranged, wherein the belt systems (2, 3) each have a plurality of conveyor belts arranged in parallel side by side, wherein the first belt system is switchable between a first operating mode in which all conveyor belts of the first belt system are activated simultaneously, and a second operating mode in which an even number n of conveyor belts or groups of conveyor belts are activatable independently of one another in order to transport a maximum of a single track from an even number of tracks of packages at any time in the second operating mode, and wherein the second belt system is switchable between a first operating mode in which all conveyor belts of the second belt system are activated simultaneously, and a second operating mode in which an odd number m of at least three conveyor belts or groups of conveyor belts are each individually activatable in order to transport a maximum of a single track from an odd number m of tracks of packages at any time in this second operating mode, wherein the first belt system and the second belt system each have a motor drive (9, 10), preferably a servomotor, characterized in that each conveyor belt of a belt system (2, 3) is drivable by means of a coupling unit (5, 6) with the motor drive (9, 10) of the respective belt system (2, 3), wherein the first belt system comprises a first coupling unit with at least four individually actuable couplers which is configured to be adapted to selectively generate a track number n of one, two or four, and/or wherein the second belt system comprises a second coupling unit with at least seven individually actuable couplers which is configured to be adapted to selectively generate a track number n of one, three or five, wherein by way of different widths of the couplers (6, 7) and their arrangement a total width of the first or second belt system (2, 3) is selectively switchable to a different number n, m of tracks.
A method for using a predetermined palette of IIR coefficient sets to configure an audio signal prediction filter including an IIR filter and an FIR filter, said method including the steps of: (a) for each of the IIR coefficient sets in the palette, generating configuration data indicative of output generated by applying the IIR filter configured with said each of the IIR coefficient sets to input data, and identifying as a selected IIR coefficient set one of the IIR coefficient sets which configures the IIR filter to generate configuration data that satisfy a predetermined criterion; (b) determining an optimal FIR filter coefficient set by performing a recursion operation on test data indicative of output generated by applying the prediction filter to input data with the IIR filter configured with the selected IIR coefficient set; and (c) configuring the FIR filter with the optimal FIR coefficient set and configuring the IIR filter with the selected IIR coefficient set, thereby configuring the prediction filter. (a) for each of the IIR coefficient sets in the palette, generating configuration data indicative of output generated by applying the IIR filter configured with said each of the IIR coefficient sets to input data, and identifying as a selected IIR coefficient set one of the IIR coefficient sets which configures the IIR filter to generate configuration data that satisfy a predetermined criterion; (b) determining an optimal FIR filter coefficient set by performing a recursion operation on test data indicative of output generated by applying the prediction filter to input data with the IIR filter configured with the selected IIR coefficient set; and (c) configuring the FIR filter with the optimal FIR coefficient set and configuring the IIR filter with the selected IIR coefficient set, thereby configuring the prediction filter.
A surgical stapling device comprising: a body portion; a head portion supported on the distal end of the body portion, the head portion including an anvil and a shell assembly defining a bore, the anvil being movable in relation to the shell assembly between approximated and unapproximated positions; and a tissue tensioning device (80; 210) including a tissue engagement member (86; 216), the tissue engagement member being positioned between the anvil and the shell assembly and movable in relation to the anvil and in relation to the shell assembly, wherein: the anvil includes an anvil head and an anvil shaft and the tissue tensioning device is movably supported by the anvil shaft, characterized in that: prior to approximation of the anvil and the shell assembly, the depth of internal haemorrhoids within the bore of the shell assembly can be adjusted by engagement of the haemorrhoids by the tissue engagement member; and during approximation of the anvil and the shell assembly, the depth of the internal haemorrhoids within the bore of the shell assembly can be readjusted by repositioning the tissue engagement member. a body portion; a head portion supported on the distal end of the body portion, the head portion including an anvil and a shell assembly defining a bore, the anvil being movable in relation to the shell assembly between approximated and unapproximated positions; and a tissue tensioning device (80; 210) including a tissue engagement member (86; 216), the tissue engagement member being positioned between the anvil and the shell assembly and movable in relation to the anvil and in relation to the shell assembly, wherein: the anvil includes an anvil head and an anvil shaft and the tissue tensioning device is movably supported by the anvil shaft, the anvil includes an anvil head and an anvil shaft and the tissue tensioning device is movably supported by the anvil shaft, characterized in that: prior to approximation of the anvil and the shell assembly, the depth of internal haemorrhoids within the bore of the shell assembly can be adjusted by engagement of the haemorrhoids by the tissue engagement member; and during approximation of the anvil and the shell assembly, the depth of the internal haemorrhoids within the bore of the shell assembly can be readjusted by repositioning the tissue engagement member. prior to approximation of the anvil and the shell assembly, the depth of internal haemorrhoids within the bore of the shell assembly can be adjusted by engagement of the haemorrhoids by the tissue engagement member; and during approximation of the anvil and the shell assembly, the depth of the internal haemorrhoids within the bore of the shell assembly can be readjusted by repositioning the tissue engagement member.
An apparatus comprising: an electrode plane; a memory material disposed through and coupled to the electrode plane, wherein the memory material includes a chalcogenide; a memory cell included in the memory material aligned in a same plane as the electrode plane, the memory cell configured to exhibit a first threshold voltage representative of a first logic state and a second threshold voltage representative of a second logic state, wherein the memory cell is further configured to act as a selector device and a memory element; and a conductive pillar disposed through and coupled to the memory cell, wherein the conductive pillar and electrode plane are configured to provide a write voltage across the memory cell to write a logic state to the memory cell and to provide a read voltage across the memory cell to read the logic state of the memory cell, wherein the memory cell is configured to exhibit the first threshold voltage when the write voltage is in a same polarity as the read voltage, and wherein the memory cell is configured to exhibit the second threshold voltage when the write voltage is in an opposite polarity as the read voltage. an electrode plane; a memory material disposed through and coupled to the electrode plane, wherein the memory material includes a chalcogenide; a memory cell included in the memory material aligned in a same plane as the electrode plane, the memory cell configured to exhibit a first threshold voltage representative of a first logic state and a second threshold voltage representative of a second logic state, wherein the memory cell is further configured to act as a selector device and a memory element; and a conductive pillar disposed through and coupled to the memory cell, wherein the conductive pillar and electrode plane are configured to provide a write voltage across the memory cell to write a logic state to the memory cell and to provide a read voltage across the memory cell to read the logic state of the memory cell, wherein the memory cell is configured to exhibit the first threshold voltage when the write voltage is in a same polarity as the read voltage, and wherein the memory cell is configured to exhibit the second threshold voltage when the write voltage is in an opposite polarity as the read voltage.
A method of reducing settling of residual comminuted hydrocarbonaceous material during processing, comprising: a) forming a constructed permeability control infrastructure which defines a substantially encapsulated volume; b) introducing a composite comminuted hydrocarbonaceous material into the control infrastructure to form a permeable body, said composite hydrocarbonaceous material comprising comminuted hydrocarbonaceous material particles mixed with non-hydrocarbon yielding particulate structural material particles, wherein the non-hydrocarbon yielding particulate structural material particles comprise rock, shale, or combinations thereof and wherein the particulate structural material particles provides structural integrity to the permeable body sufficient to maintain convective flow of fluids throughout the permeable body during heating; c) heating the permeable body sufficient to remove hydrocarbons therefrom wherein the composite comminuted hydrocarbonaceous material is substantially stationary during heating, exclusive of subsidence and settling. a) forming a constructed permeability control infrastructure which defines a substantially encapsulated volume; b) introducing a composite comminuted hydrocarbonaceous material into the control infrastructure to form a permeable body, said composite hydrocarbonaceous material comprising comminuted hydrocarbonaceous material particles mixed with non-hydrocarbon yielding particulate structural material particles, wherein the non-hydrocarbon yielding particulate structural material particles comprise rock, shale, or combinations thereof and wherein the particulate structural material particles provides structural integrity to the permeable body sufficient to maintain convective flow of fluids throughout the permeable body during heating; c) heating the permeable body sufficient to remove hydrocarbons therefrom wherein the composite comminuted hydrocarbonaceous material is substantially stationary during heating, exclusive of subsidence and settling.