mhurhangee/ep-ind-claims huggingface dataset:
A semiconductor crystal comprising a clathrate compound represented by the following formula, the semiconductor crystal having one end portion and the other end portion, wherein the one and the other end portions differ in concentration of at least one element in the formula: A x D y E 46-y wherein A represents at least one element selected from the group consisting of Ba, Na, Sr, and K, D represents at least one element selected from the group consisting of B, Ga, and In, E represents at least one element selected from the group consisting of Si, Ge, and Sn, x is 7 or more and 8 or less, and y is 14 or more and 20 or less.
A method of forming a charge pattern on a microchip, comprising: laminating a dry film photoresist onto an insulator layer over a microchip wafer; exposing the dry film photoresist to ultraviolet light so as to form an exposed region having a low conductivity and an unexposed region having a high conductivity; grounding the microchip wafer; charging the exposed region with a scorotron or corotron to form a charge pattern that has one polarity of charge; and singulating the wafer into microchips after charging. laminating a dry film photoresist onto an insulator layer over a microchip wafer; exposing the dry film photoresist to ultraviolet light so as to form an exposed region having a low conductivity and an unexposed region having a high conductivity; grounding the microchip wafer; charging the exposed region with a scorotron or corotron to form a charge pattern that has one polarity of charge; and singulating the wafer into microchips after charging.
A torque compensated walking beam assembly for a vehicle that includes an engine, a chassis, and a wheel, the walking beam assembly comprising: a support beam that includes an end (38, 40); a mount member that is configured to mount the support beam on the chassis such that the support beam is able to rotate relative to the chassis; a gear assembly (28, 30) that is supported proximate the end of the support beam, the gear assembly (28,30) including a gear train (46, 52) and a gear housing (48, 54), the gear train (46, 52) operably coupled to a wheel hub (50, 56), the wheel hub (50, 56) configured to support the wheel (16b, 16c), the gear housing (48, 54) substantially enclosing the gear train (46, 52); and an input drive assembly with at least one movable part configured to deliver an input torque from the engine to the gear train (46, 52), the input drive assembly including an input drive housing that substantially encloses the at least one movable part, characterised by the input drive housing being attached to the gear housing (48, 54); wherein one of the gear housing (48, 54) and the input drive housing includes an intermediate member that substantially closes off the one of the gear housing (48, 54) and the input drive housing; wherein the other of the gear housing (48, 54) and the input drive housing is attached to the intermediate member; and wherein the intermediate member includes an opening that provides fluid communication between an interior of the input drive housing and an interior of the gear housing (48, 54). a support beam that includes an end (38, 40); a mount member that is configured to mount the support beam on the chassis such that the support beam is able to rotate relative to the chassis; a gear assembly (28, 30) that is supported proximate the end of the support beam, the gear assembly (28,30) including a gear train (46, 52) and a gear housing (48, 54), the gear train (46, 52) operably coupled to a wheel hub (50, 56), the wheel hub (50, 56) configured to support the wheel (16b, 16c), the gear housing (48, 54) substantially enclosing the gear train (46, 52); and an input drive assembly with at least one movable part configured to deliver an input torque from the engine to the gear train (46, 52), the input drive assembly including an input drive housing that substantially encloses the at least one movable part, characterised by the input drive housing being attached to the gear housing (48, 54); wherein one of the gear housing (48, 54) and the input drive housing includes an intermediate member that substantially closes off the one of the gear housing (48, 54) and the input drive housing; wherein the other of the gear housing (48, 54) and the input drive housing is attached to the intermediate member; and wherein the intermediate member includes an opening that provides fluid communication between an interior of the input drive housing and an interior of the gear housing (48, 54).
Coextruded, unstretched, transparent and thermoformable polyester film containing at least one base layer made of a-PET and a heat-sealable outer layer, wherein the heat-sealable outer layer comprises at least 80 % by weight of polyester, wherein a) the polyester of the outer layer is composed of 25 to 95 mol% of units derived from at least one aromatic dicarboxylic acid and 5 to 75 mol% of units derived from at least one aliphatic dicarboxylic acid, and is constructed on the basis of aliphatic diols, wherein the reported amounts in mol% always sum to 100 %, b) the outer layer contains up to 0.4 % by weight of inorganic or organic particles having an average diameter d 50 of 2.0 to 8.0 μ m, wherein the d 50 is determined as disclosed in the description, c) the outer layer has a layer thickness of 10 to 100 μ m and d) the film has a thickness in the range from 100 to 1500 μ m and e) has a haze of less than 10 % and a clarity of at least 80 %, wherein the haze and the clarity are determined as disclosed in the description and f) has a sealed seam strength to itself (= FIN sealing) measured as disclosed in the description in the range from 3 to 10 N/15 mm. a) the polyester of the outer layer is composed of 25 to 95 mol% of units derived from at least one aromatic dicarboxylic acid and 5 to 75 mol% of units derived from at least one aliphatic dicarboxylic acid, and is constructed on the basis of aliphatic diols, wherein the reported amounts in mol% always sum to 100 %, b) the outer layer contains up to 0.4 % by weight of inorganic or organic particles having an average diameter d 50 of 2.0 to 8.0 μ m, wherein the d 50 is determined as disclosed in the description, c) the outer layer has a layer thickness of 10 to 100 μ m and d) the film has a thickness in the range from 100 to 1500 μ m and e) has a haze of less than 10 % and a clarity of at least 80 %, wherein the haze and the clarity are determined as disclosed in the description and f) has a sealed seam strength to itself (= FIN sealing) measured as disclosed in the description in the range from 3 to 10 N/15 mm.
A device for actively controlling vibrations, adapted to be interposed between the tool of an operating machine and the main structure of said operating machine, said device comprising a housing shell, in which component parts of said device are housed, adapted to operate synergistically for actively controlling, in particular for reducing, the vibrations generated by said tool during use of said operating machine, so that said vibrations are not transmitted to said main structure of said operating machine; wherein said component parts housed inside said housing shell comprise at least one inertial mass, adapted to be moved with respect to said housing shell, at least one accelerometer adapted to, when subjected to vibrations, generate an electric voltage for each of said vibrations, and at least one piezoelectric actuator, in electrical connection with said at least one accelerometer and interposed between said at least one mass and said housing shell, and adapted to transform each of said electric voltages into an input applied to said at least one inertial mass and thus into a displacement of said inertial mass, wherein said housing shell is shaped so that each of the inputs applied to said at least one inertial mass by said at least one piezoelectric actuator results in a displacement on a plane of said at least one inertial mass, characterized in that the plan shape of said housing shell on a plane parallel to the plane of displacement of said at least one inertial mass is like a circular crown, and in that said at least one inertial mass is semicircular in shape.
A data processing system comprising: a processor; a visual display screen; and a memory accessible to the processor storing programs and data objects therein, the programs including a graphical user interface generator configured to present graphical information on the visual display screen, wherein the processor is configured to, upon execution of the programs while obtaining electrophysiologic data from a heart with a cardiac catheter, present a series of visual displays on the visual display screen, each visual display including: a respective current image of the heart, a representation of a distal portion of the cardiac catheter shown within the current image of the heart, and a catheter icon that represents the distal portion of the cardiac catheter, characterized in that: the catheter icon is separated from the image of the heart, and the catheter icon has indicia that represent sensors and electrodes of the cardiac catheter and which encode a current status of the sensors and electrodes. a processor; a visual display screen; and a memory accessible to the processor storing programs and data objects therein, the programs including a graphical user interface generator configured to present graphical information on the visual display screen, wherein the processor is configured to, upon execution of the programs while obtaining electrophysiologic data from a heart with a cardiac catheter, present a series of visual displays on the visual display screen, each visual display including: a respective current image of the heart, a representation of a distal portion of the cardiac catheter shown within the current image of the heart, and a catheter icon that represents the distal portion of the cardiac catheter, characterized in that: a respective current image of the heart, a representation of a distal portion of the cardiac catheter shown within the current image of the heart, and a catheter icon that represents the distal portion of the cardiac catheter, characterized in that: the catheter icon is separated from the image of the heart, and the catheter icon has indicia that represent sensors and electrodes of the cardiac catheter and which encode a current status of the sensors and electrodes.
A network element for a software-defined network, the network element comprising: - a data transfer interface for transmitting data to the software-defined network and for receiving data from the software-defined network, and - a processing system for implementing a forwarding-section, the forwarding-section being suitable for maintaining a configuration system enabling the network element to operate as a part of the software-defined network, the configuration system comprising one or more look-up tables defining one or more actions to be carried out in response to a situation in which one or more entries of the one or more look-up tables are matched as a corollary of receiving data from the software-defined network, wherein the processing system is adapted to implement a control-section for: - constructing the one or more look-up tables of the configuration system on the basis of a first portion of configuration data received from the software-defined network, - addressing at least a second portion of the configuration data to at least one first other network element of the software-defined network, the second portion of the configuration data comprising data for constructing one or more look-up tables of a configuration system of each of two or more other network elements including the first other network element, and - delivering at least the second portion of the configuration data to the forwarding-section so as to transmit at least the second portion of the configuration data to the first other network element in accordance with the configuration system constructed on the basis of the first portion of the configuration data. - a data transfer interface for transmitting data to the software-defined network and for receiving data from the software-defined network, and - a processing system for implementing a forwarding-section, the forwarding-section being suitable for maintaining a configuration system enabling the network element to operate as a part of the software-defined network, the configuration system comprising one or more look-up tables defining one or more actions to be carried out in response to a situation in which one or more entries of the one or more look-up tables are matched as a corollary of receiving data from the software-defined network, - constructing the one or more look-up tables of the configuration system on the basis of a first portion of configuration data received from the software-defined network, - addressing at least a second portion of the configuration data to at least one first other network element of the software-defined network, the second portion of the configuration data comprising data for constructing one or more look-up tables of a configuration system of each of two or more other network elements including the first other network element, and - delivering at least the second portion of the configuration data to the forwarding-section so as to transmit at least the second portion of the configuration data to the first other network element in accordance with the configuration system constructed on the basis of the first portion of the configuration data.
A process device wireless adapter (300, 600, 700, 800) comprising: a wireless communications module (310, 602, 702) configured to communicatively couple to a process device (350, 850) of a type in an industrial process control or monitoring system, a process control loop to which the process device is coupled, and to a wireless receiver, the wireless communications module being configured to be powered, at least in part, by the process device (350, 850) and also configured to interact with the process device in accordance with a standard industry protocol and to provide wireless communication capabilities to the process device (350, 850); a metallic housing (302, 606, 820) that surrounds the wireless communications module, the metallic housing having a first end and a second end, the first end configured to attach to the process device (350, 850); an end cap (304, 610, 824) having a metallic shield (608, 708) that contacts the housing second end such that the metallic shield (608, 708) and the housing form a substantially continuous conductive surface and shields the wireless communication module from electromagnetic interference; and an antenna (320, 604, 826) communicatively coupled to the wireless communications module through an aperture in the metallic shield and separated from the wireless communications module by the metallic shield. a wireless communications module (310, 602, 702) configured to communicatively couple to a process device (350, 850) of a type in an industrial process control or monitoring system, a process control loop to which the process device is coupled, and to a wireless receiver, the wireless communications module being configured to be powered, at least in part, by the process device (350, 850) and also configured to interact with the process device in accordance with a standard industry protocol and to provide wireless communication capabilities to the process device (350, 850); a metallic housing (302, 606, 820) that surrounds the wireless communications module, the metallic housing having a first end and a second end, the first end configured to attach to the process device (350, 850); an end cap (304, 610, 824) having a metallic shield (608, 708) that contacts the housing second end such that the metallic shield (608, 708) and the housing form a substantially continuous conductive surface and shields the wireless communication module from electromagnetic interference; and an antenna (320, 604, 826) communicatively coupled to the wireless communications module through an aperture in the metallic shield and separated from the wireless communications module by the metallic shield.
An electronic device (510, 520, 530, 540) comprising: a detection unit configured to detect the approach or presence of a detection target; an electronic component that is electrically connected to the detection unit; a case member (60, 60T, 60U) configured to accommodate the detection unit and the electronic component therein; and a sealing resin that is formed in the case member (60, 60T, 60U), wherein the sealing resin comprises: a thermosetting resin portion that is formed in the case member (60, 60T, 60U) so as to seal the detection unit; characterised by a thermoplastic resin portion that is formed in a portion other than the thermosetting resin portion in the case member (60, 60T, 60U) so as to seal the electronic component, the thermoplastic resin portion having a Shore D hardness of 60 or less. a detection unit configured to detect the approach or presence of a detection target; an electronic component that is electrically connected to the detection unit; a case member (60, 60T, 60U) configured to accommodate the detection unit and the electronic component therein; and a sealing resin that is formed in the case member (60, 60T, 60U), wherein the sealing resin comprises: a thermosetting resin portion that is formed in the case member (60, 60T, 60U) so as to seal the detection unit; characterised by a thermoplastic resin portion that is formed in a portion other than the thermosetting resin portion in the case member (60, 60T, 60U) so as to seal the electronic component, the thermoplastic resin portion having a Shore D hardness of 60 or less. a thermosetting resin portion that is formed in the case member (60, 60T, 60U) so as to seal the detection unit; characterised by a thermoplastic resin portion that is formed in a portion other than the thermosetting resin portion in the case member (60, 60T, 60U) so as to seal the electronic component, the thermoplastic resin portion having a Shore D hardness of 60 or less.
Method for determining a state of motion of a vehicle with an acceleration sensor, in which - a vibration signal, which is representative of vibrations of the vehicle, is determined as a function of a measurement signal of the acceleration sensor, characterized in that - in which a predefined upper threshold value and a predefined lower threshold value are determined as a function of at least one GPS signal (GPS_S) of a GPS module and/or a speed signal (G_S) of a speed signal generator and - in which it is determined whether the vehicle is stationary or whether the vehicle is moving, as a function of a comparison of the vibration signal with the predefined upper threshold value and with the predefined lower threshold value. - a vibration signal, which is representative of vibrations of the vehicle, is determined as a function of a measurement signal of the acceleration sensor, characterized in that - in which a predefined upper threshold value and a predefined lower threshold value are determined as a function of at least one GPS signal (GPS_S) of a GPS module and/or a speed signal (G_S) of a speed signal generator and - in which it is determined whether the vehicle is stationary or whether the vehicle is moving, as a function of a comparison of the vibration signal with the predefined upper threshold value and with the predefined lower threshold value.
A lead-free glass material for organic-EL sealing, the material comprising: a glass composition consisting of, in terms of mol%, 30 to 60% V 2 O 5, 5 to 20% ZnO, 5 to 20% BaO, 15 to 40% TeO 2, 0 to 7% Nb 2 O 5, 0 to 7% Al 2 O 3, 0 to 5% SiO 2, 0 to 5% MgO, 0 to 5% Sb 2 O 3, 0 to 4% CuO, and 0 to 4% SnO, wherein Nb 2 O 5 +Al 2 O 3 is 0.5 to 10%, and SiO 2 +MgO+Sb 2 O 3 is 0 to 5%, and CuO+SnO is 0 to 4%. a glass composition consisting of, in terms of mol%, 30 to 60% V 2 O 5, 5 to 20% ZnO, 5 to 20% BaO, 15 to 40% TeO 2, 0 to 7% Nb 2 O 5, 0 to 7% Al 2 O 3, 0 to 5% SiO 2, 0 to 5% MgO, 0 to 5% Sb 2 O 3, 0 to 4% CuO, and 0 to 4% SnO, wherein Nb 2 O 5 +Al 2 O 3 is 0.5 to 10%, and SiO 2 +MgO+Sb 2 O 3 is 0 to 5%, and CuO+SnO is 0 to 4%.
A windproof cover unit for an optical fiber fusion splicer, said windproof cover unit comprising a windproof cover, a mounting base unit, a flexible printed circuit unit, FPC unit and a rotational axle of the windproof cover, wherein the windproof cover comprises a protruding cover surface and an internal accommodation space, where a white-light lamp unit comprising two white lamps and an FPC cable providing power supply for the operating illumination of the fusion splicer is configured; and wherein the white-light lamp unit is configured on the FPC unit, which is configured between the mounting base unit and the internal accommodation space of the windproof cover and is fixed firmly inside the windproof cover by the mounting base unit; characterized in that said mounting base unit comprises a mounting base, two lampshades, a pressing device base, and two pairs of retaining screws for the lampshades, wherein the mounting base comprises a mounting plate in the middle, on which different threaded holes matching with the mounting holes on the inner surface of the windproof cover and those on the lampshades respectively are configured; the mounting plate is configured with lampshade support frames on both sides, and the lampshades are configured with mounting holes, through which the retaining screws for the lampshades connect and fix the lampshade support frames with the lampshades; the pressing device base is configured with mounting holes on the bottom that correspond with those on the mounting plate one by one, thus the pressing device base can be fixed onto the mounting plate by the fastening structure; the FPC unit comprises a reinforcement plate unit comprising several reinforcement plates for supporting the FPC cable that is connected with red-light lamps and the white-light lamps emerged from the surfaces of the reinforcement plates respectively; the reinforcement plate unit matches and connects with the lampshade support frames to jointly support and fix the white-light lamps and the red-light lamps.
A method for a first User Equipment, in the following also referred to as UE, to indicate a network node for releasing Sidelink Radio Bearer, in the following also referred to as SLRB, or Sidelink-Data Radio Bearer, in the following also referred to as SL-DRB, comprising: transmitting a first Radio Resource Control, in the following also referred to as RRC, message to a network node for requesting sidelink resource, wherein the first RRC message includes a PC5 QoS Flow Identifier, in the following also referred to as PFI, of a PC5 Quality of Service, in the following also referred to as QoS, flow in a first list of PC5 QoS flows; receiving a second RRC message from the network node, wherein the second RRC message configures a SLRB and maps the PC5 QoS flow to the SLRB; and transmitting a third RRC message to the network node if the PC5 QoS flow is deactivated or released, wherein the PFI of the PC5 QoS flow is removed from a second list of PC5 QoS flows included in the third RRC message. transmitting a first Radio Resource Control, in the following also referred to as RRC, message to a network node for requesting sidelink resource, wherein the first RRC message includes a PC5 QoS Flow Identifier, in the following also referred to as PFI, of a PC5 Quality of Service, in the following also referred to as QoS, flow in a first list of PC5 QoS flows; receiving a second RRC message from the network node, wherein the second RRC message configures a SLRB and maps the PC5 QoS flow to the SLRB; and transmitting a third RRC message to the network node if the PC5 QoS flow is deactivated or released, wherein the PFI of the PC5 QoS flow is removed from a second list of PC5 QoS flows included in the third RRC message.