mhurhangee/ep-ind-claims huggingface dataset:
An insulating hand tool (30; 40) comprising: an elongated torque-transmitting shank formed of high-strength, injection-molded, electrically insulating material and having a handle end and a working end, a handle (31; 41) formed of electrically insulating material and carried by the handle end of the shank, and a working tip having a mounting portion fixed in the working end of the shank and a work-engaging portion projecting from the working end of the shank, characterized in that: said mounting portion including an anchor portion having angularly spaced flutes substantially filled with material of the shank; wherein said anchor portion has a transverse cross-sectional area which is tapered from a minimum area at a distal end of the mounting portion to a maximum area at a location spaced axially from the distal end. an elongated torque-transmitting shank formed of high-strength, injection-molded, electrically insulating material and having a handle end and a working end, a handle (31; 41) formed of electrically insulating material and carried by the handle end of the shank, and a working tip having a mounting portion fixed in the working end of the shank and a work-engaging portion projecting from the working end of the shank, characterized in that: said mounting portion including an anchor portion having angularly spaced flutes substantially filled with material of the shank; wherein said anchor portion has a transverse cross-sectional area which is tapered from a minimum area at a distal end of the mounting portion to a maximum area at a location spaced axially from the distal end. said mounting portion including an anchor portion having angularly spaced flutes substantially filled with material of the shank; wherein said anchor portion has a transverse cross-sectional area which is tapered from a minimum area at a distal end of the mounting portion to a maximum area at a location spaced axially from the distal end.
A method, performed by a user equipment, UE, receiving control information in a wireless communication system, the method comprising: obtaining, via UE-specific radio resource control, RRC, signaling, a Radio Network Temporary Identifier, RNTI, for downlink control information, DCI, comprising a preemption indicator; performing monitoring on a physical downlink control channel, PDCCH, conveying the DCI comprising the preemption indicator, based on the RNTI for the DCI comprising the preemption indicator; and when the DCI comprising the preemption indicator is detected as a result of the performing of the monitoring, determining that transmission for the UE does not exist in a resource block, RB, and a symbol, which are indicated by the DCI comprising the preemption indicator, wherein the DCI comprising the preemption indicator is not applied to reception of at least one of a synchronization signal, SS, and a physical broadcast channel, PBCH. obtaining, via UE-specific radio resource control, RRC, signaling, a Radio Network Temporary Identifier, RNTI, for downlink control information, DCI, comprising a preemption indicator; performing monitoring on a physical downlink control channel, PDCCH, conveying the DCI comprising the preemption indicator, based on the RNTI for the DCI comprising the preemption indicator; and when the DCI comprising the preemption indicator is detected as a result of the performing of the monitoring, determining that transmission for the UE does not exist in a resource block, RB, and a symbol, which are indicated by the DCI comprising the preemption indicator, wherein the DCI comprising the preemption indicator is not applied to reception of at least one of a synchronization signal, SS, and a physical broadcast channel, PBCH.
A heat shield panel (402; 404) for use in a gas turbine engine combustor, comprising: a hot side; a cold side; and at least one attachment mechanism (275; 406) connected to the cold side of the heat shield panel (402; 404), the at least one attachment mechanism (275; 406) having a stud (250; 408) and a central axis extending through the stud (250; 408) and a plurality of standoff pins (254; 300; 410) positioned circumferentially around the stud (250; 408), the standoff pins (254; 300; 410) having a radial extent, a circumferential extent and a radially outer surface having a radially convex shape, characterised in that the circumferential extent is greater than the radial extent and in that the standoff pins (254; 300; 410) have a radially inner surface having a radially concave shape. a hot side; a cold side; and at least one attachment mechanism (275; 406) connected to the cold side of the heat shield panel (402; 404), the at least one attachment mechanism (275; 406) having a stud (250; 408) and a central axis extending through the stud (250; 408) and a plurality of standoff pins (254; 300; 410) positioned circumferentially around the stud (250; 408), the standoff pins (254; 300; 410) having a radial extent, a circumferential extent and a radially outer surface having a radially convex shape, characterised in that the circumferential extent is greater than the radial extent and in that the standoff pins (254; 300; 410) have a radially inner surface having a radially concave shape.
A mobile terminal, comprising: a wireless communication unit configured to at least transmit or receive a message including content of a chat with at least one terminal belonging to a chat group; a touchscreen configured to display the content of the chat with the at least one terminal on a screen; and a controller configured to partition a display region of the content of the chat within the screen into regions (200A, 200B, 200C) per terminal of the at least one terminal belonging to a chat group, each region of said regions (200A, 200B, 200C) corresponding to a terminal of the at least one terminal belonging to the chat group or to the mobile terminal, at least one region of said regions (200A, 200B, 200C) corresponding to the mobile terminal, and to arrange the content of the chat corresponding to each of the at least one terminal of the partitioned regions in order of time the content of the chat is transmitted or received, respectively, characterized in that when a first region of the partitioned regions is dragged and dropped between a second region of the partitioned regions and a third region of the partitioned regions, the controller is further configured to shift the first region between the second region and third region, and wherein when the first region is dragged and dropped to the second region, the controller is further configured to control the wireless communication to transmit the content of the chat displayed in the first region to a contact of a terminal corresponding to the second region. a wireless communication unit configured to at least transmit or receive a message including content of a chat with at least one terminal belonging to a chat group; a touchscreen configured to display the content of the chat with the at least one terminal on a screen; and a controller configured to partition a display region of the content of the chat within the screen into regions (200A, 200B, 200C) per terminal of the at least one terminal belonging to a chat group, each region of said regions (200A, 200B, 200C) corresponding to a terminal of the at least one terminal belonging to the chat group or to the mobile terminal, at least one region of said regions (200A, 200B, 200C) corresponding to the mobile terminal, and to arrange the content of the chat corresponding to each of the at least one terminal of the partitioned regions in order of time the content of the chat is transmitted or received, respectively, characterized in that when a first region of the partitioned regions is dragged and dropped between a second region of the partitioned regions and a third region of the partitioned regions, the controller is further configured to shift the first region between the second region and third region, and wherein when the first region is dragged and dropped to the second region, the controller is further configured to control the wireless communication to transmit the content of the chat displayed in the first region to a contact of a terminal corresponding to the second region.
Use of a high-voltage high-capacity fuse, hereinafter referred to as HH-fuse, for protecting a direct-current transmission, the direct voltage of the direct current and/or the rated voltage of the HH-fuse being greater than 4 kV, wherein the HH-fuse has a fuse housing which is at least partially open on two end faces, at least one contact cap designed for electrical contacting being arranged on each end face of the fuse housing, at least one fusible conductor wound spirally around a fusible conductor carrier being arranged in the fuse housing, the transmitted direct current and/or the rated current intensity range being greater than 5 A, characterized in that the fusible conductor carrier is of star-shaped design.
A method of cracking a hydrocarbon feed under fluid catalytic cracking conditions, the method comprising adding one or more boron oxide components on FCC compatible inorganic particles to cracking particles in a FCC unit, wherein the one or more boron oxide components are present in an amount in the range of 0.005% to 20% by weight of the FCC compatible inorganic particles, wherein the cracking particles are present in a range of 60-99% by weight and the FCC compatible inorganic particles are present in a range of 1-40% by weight, wherein FCC compatible inorganic particles comprise matrix material and no zeolite material, wherein the cracking particle comprises a molecular sieve component intergrown with matrix material.
A method for producing a pin for a feedthrough for an electromedical implant, the method comprising the following steps: - creating a film-, sheet- or strip-like semi-finished product by joining at least one first layer element containing an electrically conductive, preferably biocompatible material in film, sheet or strip form and at least one second layer element (2, 2a, 2b) containing a solder and/or a soft-solderable material, preferably in wire, sheet or strip form, or by applying the at least one second layer element to the at least one first layer element; - applying and, as appropriate, joining at least one solder inhibitor layer element (3, 4) containing at least one element of the group Al, Mg, Ca, Zr and Y or an alloy formed of these elements in wire, sheet or strip form to the semi-finished product; and - at least partially detaching a pin, or a set of multiple pins connected to a connecting web, from the semi-finished product. - creating a film-, sheet- or strip-like semi-finished product by joining at least one first layer element containing an electrically conductive, preferably biocompatible material in film, sheet or strip form and at least one second layer element (2, 2a, 2b) containing a solder and/or a soft-solderable material, preferably in wire, sheet or strip form, or by applying the at least one second layer element to the at least one first layer element; - applying and, as appropriate, joining at least one solder inhibitor layer element (3, 4) containing at least one element of the group Al, Mg, Ca, Zr and Y or an alloy formed of these elements in wire, sheet or strip form to the semi-finished product; and - at least partially detaching a pin, or a set of multiple pins connected to a connecting web, from the semi-finished product.
A fluid-absorbent core comprising an upper layer, a lower layer, fluid-absorbent polymer particles between and, the upper layer and the lower layer being at least partially joint together by attachments forming a sandwich-like structure with at least some of the unattached regions between the upper layer and the lower layer forming pockets containing fluid-absorbent polymer particles, wherein the particle size distribution of the fluid-absorbent polymer particles in one pocket varies from the PSD of the fluid-absorbent polymer particles in any other pocket by not more than 15 % an upper layer, a lower layer, fluid-absorbent polymer particles between and,
A process automation system comprising: a cell transfer unit configured to transfer battery cells; a cell inspection unit configured to measure an open circuit voltage of each battery cell in units of a preset number of battery cells and sort out qualified battery cells (21, 22) and defective battery cells; a frame transfer unit configured to transfer module frames of a battery module to insert the qualified battery cells (21, 22); a cell discharging unit configured to load and discharge the defective battery cells; characterized in that the process automation system comprises a gripper unit configured to pick up one or more battery cells from the cell transfer unit, the cell inspection unit, the frame transfer unit, and the cell discharging unit, and transport the one or more battery cells to another device. a cell transfer unit configured to transfer battery cells; a cell inspection unit configured to measure an open circuit voltage of each battery cell in units of a preset number of battery cells and sort out qualified battery cells (21, 22) and defective battery cells; a frame transfer unit configured to transfer module frames of a battery module to insert the qualified battery cells (21, 22); a cell discharging unit configured to load and discharge the defective battery cells; characterized in that the process automation system comprises a gripper unit configured to pick up one or more battery cells from the cell transfer unit, the cell inspection unit, the frame transfer unit, and the cell discharging unit, and transport the one or more battery cells to another device.
A heat energy-powered electrochemical cell comprising: an anode; a cathode; and a solid metal polymer/glass electrolyte comprising: between 1% and 50% metal polymer by weight as compared to total solid metal polymer/glass electrolyte weight; and between 50% and 90% solid glass electrolyte by weight as compared to the total solid metal polymer/glass electrolyte weight, wherein the solid glass electrolyte comprises: a working cation; and an electric dipole. an anode; a cathode; and a solid metal polymer/glass electrolyte comprising: between 1% and 50% metal polymer by weight as compared to total solid metal polymer/glass electrolyte weight; and between 50% and 90% solid glass electrolyte by weight as compared to the total solid metal polymer/glass electrolyte weight, wherein the solid glass electrolyte comprises: a working cation; and an electric dipole. between 1% and 50% metal polymer by weight as compared to total solid metal polymer/glass electrolyte weight; and between 50% and 90% solid glass electrolyte by weight as compared to the total solid metal polymer/glass electrolyte weight, wherein the solid glass electrolyte comprises: a working cation; and an electric dipole. a working cation; and an electric dipole.
A method for activating a bandwidth part, BWP, comprising: receiving, by a terminal device, second downlink control information, DCI, sent by a network device, characterized in that a first BWP of the terminal device is in an active state, the second DCI is scrambled by a second radio network temporary identifier, RNTI, the second DCI is used for indicating a second BWP, and the first BWP is not activated by the second DCI; and maintaining, by the terminal device by using the second DCI, the active state of the first BWP and activating the second BWP. receiving, by a terminal device, second downlink control information, DCI, sent by a network device, characterized in that a first BWP of the terminal device is in an active state, the second DCI is scrambled by a second radio network temporary identifier, RNTI, the second DCI is used for indicating a second BWP, and the first BWP is not activated by the second DCI; and maintaining, by the terminal device by using the second DCI, the active state of the first BWP and activating the second BWP.
Device for transporting containers on a transport path in a transport direction, comprising at least one first transport element and a second transport element, which are interconnected along the transport path by a transport path portion, wherein the transport path portion comprises a first and a second transport path portion (TSA1, TSA2), of which at least the first and/or second transport path portion (TSA1, TSA2) is in the form of a partial circle, and wherein a third transport path portion is provided along the transport path between the first and second transport path portions (TSA1, TSA2), wherein the third transport path portion comprises at least one transition curve portion (ÜKA1, ÜKA2, ÜKA3) with an adjustable curve path, and wherein the curvature of the curve path of the at least one transition curve portion (ÜKA1,ÜKA2, ÜKA3) is configured in each case as being adjustable by means of at least one adjustment device (50.1, 50.2, 50.3) of the device in a motor-controlled and/or motor-regulated manner, characterised in that at least one sensor device (53.1, 53.2, 53.3) is provided, which is electrically connected to the corresponding adjustment device (50.1, 50.2, 50.3) by means of a control and evaluation device of the device, which sensor device is configured such as to detect an actual splash height of the respective container in a fixed-position detection region, and, by means of an evaluation electronics unit located in the electronic control and evaluation device, to compare this with a stored reference splash height, and to generate a signal from a possible deviation between the values and to actuate the adjustment devices (50.1, 50.2, 50.3) concerned, in order to carry out the adjustment required by the deviation between the actual splash height and the reference splash height of at least one length (L1, L2, L3) and/or at least one radius (RÜKA1, ÜKA2, ÜKA3) and/or of at least one mid-point (MP1,MP2, MP3) of the associated radius (RÜKA1, ÜKA2, ÜKA3) in an X-direction and/or Y-direction of the curvature of the curve path of the at least one transition curve portion (ÜKA1, ÜKA2, ÜKA3), by means of the at least one adjustment device (50.1, 50.2, 50.3).
A pest control composition comprising pyribencarb and at least one insecticide compound selected from Group: Group: the group consisting of cartap hydrochloride, etofenprox, silafluofen, permethrin, ethiprole, clothianidin, dinotefuran, thiamethoxam and nitenpyram. Group: the group consisting of cartap hydrochloride, etofenprox, silafluofen, permethrin, ethiprole, clothianidin, dinotefuran, thiamethoxam and nitenpyram.
A composition for use in preventing adhesion in a subject, the composition comprising a self-assembling peptide, wherein the self-assembling peptide consists essentially of threonine or essentially of alternating amino acids of serine and threonine, wherein the self-assembling peptide consists of between 7 and 200 amino acids, wherein the composition is a peptide solution that is to be administered in an effective amount and in an effective concentration to form a hydrogel scaffold under conditions at the target site to provide adhesion prevention, wherein the effective amount comprises volumes of from 1 mL to 5 mL of the peptide solution, and wherein the effective concentration of the self-assembling peptide in the peptide solution is between 1.0 weight per volume (w/v) percent to 5 weight per volume (w/v) percent.
A packaging material comprising a set of crease lines (10, 10') along which the packaging material (3, 3') is intended to be folded in order to form a package, wherein the set of crease lines comprises at least one first crease line (10a, 10'a) being configured to fold easier than an adjacent second crease line (10b, 10'), wherein the first and second crease lines (10a-b, 10'a-b) are intended to define a corner surface (18, 18') of the package (3, 3') and wherein the corner surface (18, 18') extends along the vertical direction of the package (1, 1') to be formed.
An electromagnetic interference indicator comprising an ultra-wideband detector, the ultra-wideband detector comprising: a broadband inverted spiral antenna for receiving EMI, the antenna having receiver protection; a logarithmic receiver configured to convert the EMI signal into a direct voltage proportional to the magnitude of the EMI signal; and a peak/average detector and controller connected to the output of the receiver configured to generate a signal when the direct voltage developed in the detector exceeds a pre-set threshold voltage, wherein the detector provides a means of indicating that EMI events have been detected. a broadband inverted spiral antenna for receiving EMI, the antenna having receiver protection; a logarithmic receiver configured to convert the EMI signal into a direct voltage proportional to the magnitude of the EMI signal; and a peak/average detector and controller connected to the output of the receiver configured to generate a signal when the direct voltage developed in the detector exceeds a pre-set threshold voltage, wherein the detector provides a means of indicating that EMI events have been detected.
Method for fixing a bearing rail and a counter rail to a glass wall of a bearing wall defined in claim 5, the method comprising the following steps: - making a number of bores in the glass wall, the positions of the bores corresponding to those of holes in one of the rails, at the mounting site of the glass wall: - placing the bearing rail and the counter rail on the glass wall, wherein screws, whose shafts are undersized with respect to the diameter of the bores, extend from the one rail into the other rail through the bores, - tightening the screws, while adjusting the orientation of the two rails (15, 20) with respect to the glass wall, - injecting a curable mass into the annular spaces between the shafts of the screws and the bores, wherein the holes comprise at least one lateral channel forming a passage for injecting the curable mass. - making a number of bores in the glass wall, the positions of the bores corresponding to those of holes in one of the rails, - placing the bearing rail and the counter rail on the glass wall, wherein screws, whose shafts are undersized with respect to the diameter of the bores, extend from the one rail into the other rail through the bores, - tightening the screws, while adjusting the orientation of the two rails (15, 20) with respect to the glass wall, - injecting a curable mass into the annular spaces between the shafts of the screws and the bores, wherein the holes comprise at least one lateral channel forming a passage for injecting the curable mass.
A device for actuating a plurality of pivotable external vehicle elements (6, 7, 8, 15, 16), which are hood elements of a hood of a convertible vehicle and which comprise at least foldable roof elements (6, 7, 8), at least one of said roof elements (8, 15, 16) being pivotally connected to the vehicle body, the connection of the hood elements (6, 7, 8, 15, 16) to each other and with respect to the vehicle body, respectively, providing at least one rotary joint (10A, 10B, 10C, 10D, 10E, 10F, 11A, 11 B, 13A, 13B, 14A, 14B, 17A, 17B, 42, 43, 44, 45) and at least one drive (18, 19, 20, 21, 22), the drive for the rotary joints (10A, 10B, 10C, 10D, 10E, 10F, 11A, 11B, 13A, 13B, 14A, 14B, 17A, 17B, 42, 43, 44, 45) of connections at least between the hood elements (6, 7, 8, 15, 16) being provided by an electric motor (18, 19, 20, 21, 22) which introduces a drive torque directly into an associated rotary joint (10A, 10B, 11A, 11B, 13A, 13B, 14A, 14B, 17A, 17B; 42, 43), with at least one rotary joint (10A, 10B, 11A, 11B, 13A, 13B, 14A, 14B, 17A, 17B, 42, 43) of different connections being respectively separately controllable, characterised in that a connection of the hood elements (6, 7, 8, 15, 16) to each other or to the vehicle body is formed by at least one controllable rotary joint (10A, 10B; 42, 43) and at least one passive rotary joint (10C, 10D, 10E, 10F; 44, 45), with an assigned axis of rotation of the connection being the axis of rotation of a passive rotary joint (10C, 10D).