mhurhangee/ep-ind-claims huggingface dataset:
System for fastening a first or a first and a second interior cladding element (3, 4) on a cladding carrier arranged in an interior region, preferably of a rail vehicle, the system comprising: - a first interior cladding element with a fixing element, which fixing element has two latching sections each having an outer surface, wherein the fixing element comprises two rod-shaped sections (3s 1, 3s 2), which between them form a receiving volume and each rod-shaped section (3s 1, 3s 2) is provided with one of the latching sections, - at least one retaining element (x, y) having a retaining receptacle (2b, 4b) defining a smallest clear width (b) for engaging the fixing element by means of the latching sections thereof, - a fixing bolt with a fixing head which fixing head is movable along a fixing direction (F R) into a first position and along a removal direction (E R) from the first position into a second position, - wherein in the first position the fixing head is received and engaged in the receiving volume whereby a compression of the outer surfaces of the two latching sections to a distance which is smaller than the smallest clear width (b), and enables the removal of the fixing element from the retaining receptacle (2b, 4b), is prevented, - and in the second position the fixing head is arranged outside the receiving volume wherein the latching sections can be compressed so that the distance of the outer surfaces of the latching sections is smaller than the smallest clear width (b) to enable the fixing element to be removed from the retaining receptacle (2b, 4b), characterized in that the removal direction (E R) corresponds to the fixing direction (F R). - a first interior cladding element with a fixing element, which fixing element has two latching sections each having an outer surface, wherein the fixing element comprises two rod-shaped sections (3s 1, 3s 2), which between them form a receiving volume and each rod-shaped section (3s 1, 3s 2) is provided with one of the latching sections, - at least one retaining element (x, y) having a retaining receptacle (2b, 4b) defining a smallest clear width (b) for engaging the fixing element by means of the latching sections thereof, - a fixing bolt with a fixing head which fixing head is movable along a fixing direction (F R) into a first position and along a removal direction (E R) from the first position into a second position, - wherein in the first position the fixing head is received and engaged in the receiving volume whereby a compression of the outer surfaces of the two latching sections to a distance which is smaller than the smallest clear width (b), and enables the removal of the fixing element from the retaining receptacle (2b, 4b), is prevented, - and in the second position the fixing head is arranged outside the receiving volume wherein the latching sections can be compressed so that the distance of the outer surfaces of the latching sections is smaller than the smallest clear width (b) to enable the fixing element to be removed from the retaining receptacle (2b, 4b), characterized in that the removal direction (E R) corresponds to the fixing direction (F R).
A method for deriving pathloss estimation values within a cellular communication network, the method comprising: receiving pathloss data obtained from a plurality of wireless communication units located within the cellular communication network; receiving location information corresponding to the plurality of wireless communication units; associating received pathloss data with individual sectors within a coverage area of the cellular communication network based at least partly on the location information for the respective wireless communications units that sent the pathloss data and location information; filtering out unreliable received pathloss data, the unreliable received pathloss data corresponding to locations outside an antenna main-lobe for a sector; and deriving pathloss estimation values for individual sectors within the cellular communication network based at least partly on the filtered pathloss data. receiving pathloss data obtained from a plurality of wireless communication units located within the cellular communication network; receiving location information corresponding to the plurality of wireless communication units; associating received pathloss data with individual sectors within a coverage area of the cellular communication network based at least partly on the location information for the respective wireless communications units that sent the pathloss data and location information; filtering out unreliable received pathloss data, the unreliable received pathloss data corresponding to locations outside an antenna main-lobe for a sector; and the unreliable received pathloss data corresponding to locations outside an antenna main-lobe for a sector; and deriving pathloss estimation values for individual sectors within the cellular communication network based at least partly on the filtered pathloss data.
Motor vehicle having a control device, with an electronic power unit and with an energy storage device which comprises a first electric energy store and a second electric energy store which is connected or can be connected in parallel with the first electric energy store, wherein - the two energy stores have a common coupling voltage at respective different states of charge, wherein when there is a direct galvanic connection between the two energy stores the coupling voltage is set as a voltage which is common to the two energy stores, - a basic voltage which differs from the coupling voltage can be set at the energy storage device essentially by the electronic power unit, characterized in that the control device is embodied in such a way that - a predictive energy management system which can run on the control device determines a predefined setpoint value of the basic voltage in accordance with a predicted charge balance of the energy storage device, and - the predictive energy management system increases the basic voltage when there is an imminent driving profile with a predicted negative charge balance. - the two energy stores have a common coupling voltage at respective different states of charge, wherein when there is a direct galvanic connection between the two energy stores the coupling voltage is set as a voltage which is common to the two energy stores, - a basic voltage which differs from the coupling voltage can be set at the energy storage device essentially by the electronic power unit, characterized in that the control device is embodied in such a way that - a predictive energy management system which can run on the control device determines a predefined setpoint value of the basic voltage in accordance with a predicted charge balance of the energy storage device, and - the predictive energy management system increases the basic voltage when there is an imminent driving profile with a predicted negative charge balance.
A polyester polyol comprising a structural unit derived from a dicarboxylic acid and a structural unit derived from an aliphatic diol, wherein a structural unit derived from 1,10-decanediol is contained as said aliphatic diol unit; said polyester polyol has a number average molecular weight of 250 to 5000; and said polyester polyol contains 0.01 to 0.5% by weight aldehyde body, wherein the number average molecular weight and the content of aldehyde body are determined by using the methods disclosed in the specification.
Civilian tracked vehicle having a supporting frame and a chain chassis which includes two chain mechanisms on opposite sides of the supporting frame, having a traction drive unit supported by the supporting frame, and having a driver's cab arranged on the supporting frame, wherein the supporting frame is designed as a watertight supporting trough in which the traction drive unit is accommodated, characterized in that the supporting trough has at least two tube profiles traversing the supporting trough transversely, in which continuous axles of running wheel arrangements of the two chain mechanisms are mounted.
Packaging unit (12, 22, 150, 202, 222) from a moulded pulp material, the packaging unit comprising a product receiving or carrying compartment having a product contact surface, wherein the product contact surface comprises a peelable laminate layer (10, 30, 52, 201, 230), wherein the peelable laminate layer is removably connected to the moulded pulp material, wherein the packaging unit is characterized in that the moulded pulp material comprises an amount of a biodegradable aliphatic polyester and/or wherein the packaging unit comprises a layer of biodegradable aliphatic polyester on the product contact surface to improve connecting the peelable laminate layer to the packaging unit, wherein the biodegradable aliphatic polyester functions as a type of adhesive.
An electrosurgical instrument (100,200) for delivering electromagnetic energy to biological tissue at a treatment site, the electrosurgical instrument comprising: a coaxial transmission line comprising an inner conductor, an outer conductor and a dielectric material separating the inner conductor from the outer conductor, the coaxial transmission line being arranged to convey microwave electromagnetic energy; a radiating tip mounted at a distal end of the coaxial transmission line to receive the microwave EM energy from the coaxial transmission line and emit the microwave EM energy as a field around the radiating tip; an auxiliary transmission line extending along the coaxial transmission line towards the radiating tip, the auxiliary transmission line being arranged to convey electromagnetic energy having an electroporation waveform; and a microelectrode array mounted on the radiating tip and electrically connected to the auxiliary transmission line, wherein the microelectrode array is configured to receive the electromagnetic energy having an electroporation waveform from the auxiliary transmission line to thereby generate an electric field at the radiating tip for electroporation of biological tissue. a coaxial transmission line comprising an inner conductor, an outer conductor and a dielectric material separating the inner conductor from the outer conductor, the coaxial transmission line being arranged to convey microwave electromagnetic energy; a radiating tip mounted at a distal end of the coaxial transmission line to receive the microwave EM energy from the coaxial transmission line and emit the microwave EM energy as a field around the radiating tip; an auxiliary transmission line extending along the coaxial transmission line towards the radiating tip, the auxiliary transmission line being arranged to convey electromagnetic energy having an electroporation waveform; and a microelectrode array mounted on the radiating tip and electrically connected to the auxiliary transmission line, wherein the microelectrode array is configured to receive the electromagnetic energy having an electroporation waveform from the auxiliary transmission line to thereby generate an electric field at the radiating tip for electroporation of biological tissue.
A method for manufacturing a through substrate via in a semiconductor chip, the method comprising - providing a substrate with a FEOL comprising at least one device of the chip and a shallow trench isolation zone, a BEOL comprising a metal one layer, a pre-metal dielectric, the shallow trench isolation zone underlying the pre-metal dielectric, the pre-metal dielectric positioned between the substrate and the metal one layer of the BEOL, at least one first contact to the at least one device and a plurality of second contact plugs provided at a location where the through substrate via is to land, the plurality of second contact plugs being provided through the pre-metal dielectric extending up to and landing on the underlying shallow trench isolation zone and whereby the plurality of second contact plugs contact and electrically connect the metal one layer, - thinning the substrate, and - thereafter providing a through substrate via hole through the substrate and through the shallow trench isolation zone, the through substrate via hole not extending up to the metal one layer of the BEOL, and - thereafter filling the through substrate via hole with conductive material such that electrical contact with the metal one layer is realised via the plurality of second contact plugs in the pre-metal dielectric. - providing a substrate with a FEOL comprising at least one device of the chip and a shallow trench isolation zone, a BEOL comprising a metal one layer, a pre-metal dielectric, the shallow trench isolation zone underlying the pre-metal dielectric, the pre-metal dielectric positioned between the substrate and the metal one layer of the BEOL, at least one first contact to the at least one device and a plurality of second contact plugs provided at a location where the through substrate via is to land, the plurality of second contact plugs being provided through the pre-metal dielectric extending up to and landing on the underlying shallow trench isolation zone and whereby the plurality of second contact plugs contact and electrically connect the metal one layer, - thinning the substrate, and - thereafter providing a through substrate via hole through the substrate and through the shallow trench isolation zone, the through substrate via hole not extending up to the metal one layer of the BEOL, and - thereafter filling the through substrate via hole with conductive material such that electrical contact with the metal one layer is realised via the plurality of second contact plugs in the pre-metal dielectric.
A pixel clock generating device comprising: a pixel clock generating unit configured to generate a pixel clock train in which a correction clock having a time length different from that of a basic clock is intermittently inserted in a basic clock train corresponding to one line in a main scanning direction, wherein each pixel clock train is generated based on a plurality of blocks including a plurality of basic clocks and a plurality of correction clocks, wherein the number of clocks in each block is the same, and wherein the pixel clock train includes a plurality of blocks that are different in a correction pattern as a pattern in which the correction clock is inserted, characterized by each odd-numbered block in the main scanning direction having a first correction pattern that is different from a second correction pattern of each even-numbered block in the main scanning direction. a pixel clock generating unit configured to generate a pixel clock train in which a correction clock having a time length different from that of a basic clock is intermittently inserted in a basic clock train corresponding to one line in a main scanning direction, wherein each pixel clock train is generated based on a plurality of blocks including a plurality of basic clocks and a plurality of correction clocks, wherein the number of clocks in each block is the same, and wherein the pixel clock train includes a plurality of blocks that are different in a correction pattern as a pattern in which the correction clock is inserted, characterized by each odd-numbered block in the main scanning direction having a first correction pattern that is different from a second correction pattern of each even-numbered block in the main scanning direction.
An optical proximity sensor system comprising: a laser configured to generate an emitted optical beam at a linear polarization; an optical cavity system comprising an optical cavity defined by a distance between the laser and a target object, the target object configured to reflect a portion of the emitted optical beam thereby generating a reflected optical beam; a first partially reflective mirror configured to divert a portion of the emitted optical beam; a second partially reflective mirror configured to divert a portion of the reflected optical beam; a first photodetector configured to receive the diverted portion of the emitted optical beam and to generate a first proximity signal (PROX 1) having a first frequency that is indicative of the distance to the target object based on the diverted portion of the emitted optical beam; a second photodetector configured to receive the diverted portion of the reflected optical beam and to generate a second proximity signal (PROX 2) having a second frequency that is indicative of the distance to the target object based on the diverted portion of the reflected optical beam; and a proximity processor configured to calculate the distance to the target object based on the first frequency of the first proximity signal (PROX 1) and the second frequency of the second proximity signal (PROX 2). a laser configured to generate an emitted optical beam at a linear polarization; an optical cavity system comprising an optical cavity defined by a distance between the laser and a target object, the target object configured to reflect a portion of the emitted optical beam thereby generating a reflected optical beam; a first partially reflective mirror configured to divert a portion of the emitted optical beam; a second partially reflective mirror configured to divert a portion of the reflected optical beam; a first photodetector configured to receive the diverted portion of the emitted optical beam and to generate a first proximity signal (PROX 1) having a first frequency that is indicative of the distance to the target object based on the diverted portion of the emitted optical beam; a second photodetector configured to receive the diverted portion of the reflected optical beam and to generate a second proximity signal (PROX 2) having a second frequency that is indicative of the distance to the target object based on the diverted portion of the reflected optical beam; and a proximity processor configured to calculate the distance to the target object based on the first frequency of the first proximity signal (PROX 1) and the second frequency of the second proximity signal (PROX 2).
A composite material forming device (10;30;50;60;70) comprising: a pressurizing unit (12;32;52;62;72) including a first member (22;54;64) and a second member (24;34;74) which are transparent with respect to a magnetic field, and configured to sandwich and pressurize, between the first member (22;54;64) and the second member (24;34;74), a predetermined region of a composite material (20;40;80) in which reinforcing fibers have been impregnated with a thermosetting resin; a heating unit configured to apply a magnetic field to the predetermined region of the composite material (20;40;80) that has been pressurized by the pressurizing unit (12;32;52;62;72), and heat the predetermined region of the composite material (20;40;80); and a movement mechanism (16;36;76) configured to synchronize and move with respect to the composition material (20;40;80) a pressurization region to be pressurized by the pressurizing unit (12;32;52;62;72) and a heating region to be heated by the heating unit, synchronizing and moving a position of the first member (22;54;64) or the second member (24;34;74) relative to the composite material (20;40;80), and a position of the heating unit relative to the composite material (20;40;80), wherein the movement mechanism (16;36;76) is configured to move the pressurization region and the heating region in a spiral shape from a central region of the composite material (20;40;80) towards an outer peripheral region such that a gap is not produced in the heating region. a pressurizing unit (12;32;52;62;72) including a first member (22;54;64) and a second member (24;34;74) which are transparent with respect to a magnetic field, and configured to sandwich and pressurize, between the first member (22;54;64) and the second member (24;34;74), a predetermined region of a composite material (20;40;80) in which reinforcing fibers have been impregnated with a thermosetting resin; a heating unit configured to apply a magnetic field to the predetermined region of the composite material (20;40;80) that has been pressurized by the pressurizing unit (12;32;52;62;72), and heat the predetermined region of the composite material (20;40;80); and a movement mechanism (16;36;76) configured to synchronize and move with respect to the composition material (20;40;80) a pressurization region to be pressurized by the pressurizing unit (12;32;52;62;72) and a heating region to be heated by the heating unit, synchronizing and moving a position of the first member (22;54;64) or the second member (24;34;74) relative to the composite material (20;40;80), and a position of the heating unit relative to the composite material (20;40;80), wherein the movement mechanism (16;36;76) is configured to move the pressurization region and the heating region in a spiral shape from a central region of the composite material (20;40;80) towards an outer peripheral region such that a gap is not produced in the heating region.
A method, at a user equipment, UE, for performing a beam management procedure in a wireless communication system in which the UE performs connected mode discontinuous reception, C-DRX, wherein the beam management procedure is for an active beam (215, 305, 310, 425, 430) comprising one or more active beam pairs (305, 310, 425, 430) between the UE and a base station, the active beam (215, 305, 310, 425, 430) used for C-DRX, and the UE is enabled to receive and transmit during the beam management procedure, the method comprising: receiving (610, 1505), at the UE, a UE-specific beam management configuration parameter from the base station, wherein the UE-specific beam management configuration parameter configures the beam management procedure to receive reference signals during a time interval (410, 515) prior to a C-DRX on state duration; receiving (615, 1510) a reference signal from the base station during the time interval (410, 515) based at least in part on the UE-specific beam management configuration parameter; selectively reconfiguring (625, 1515), while the UE is in the C-DRX off state, the active beam (215, 305, 310, 425, 430) between the base station and the UE based at least in part on the reference signal; determining a time to transmit a measurement report of the reference signal based at least in part on a first UE gap parameter wherein the first UE gap parameter indicates a duration for switching from uplink to downlink; and transmitting, to the base station and while the UE is in the C-DRX off state, the measurement report of the reference signal based at least in part on selectively reconfiguring the active beam (215, 305, 310, 425, 430). receiving (610, 1505), at the UE, a UE-specific beam management configuration parameter from the base station, wherein the UE-specific beam management configuration parameter configures the beam management procedure to receive reference signals during a time interval (410, 515) prior to a C-DRX on state duration; receiving (615, 1510) a reference signal from the base station during the time interval (410, 515) based at least in part on the UE-specific beam management configuration parameter; selectively reconfiguring (625, 1515), while the UE is in the C-DRX off state, the active beam (215, 305, 310, 425, 430) between the base station and the UE based at least in part on the reference signal; determining a time to transmit a measurement report of the reference signal based at least in part on a first UE gap parameter wherein the first UE gap parameter indicates a duration for switching from uplink to downlink; and transmitting, to the base station and while the UE is in the C-DRX off state, the measurement report of the reference signal based at least in part on selectively reconfiguring the active beam (215, 305, 310, 425, 430).