mhurhangee/ep-ind-claims huggingface dataset:
A compression screw comprising: a shaft having a longitudinal axis capable of being stretched, said shaft having a proximal end and a distal end, said proximal end of said shaft comprising a bone-engaging feature that is a proximal screw thread, and said distal end of said shaft comprising a distal screw thread, and said proximal end of said shaft comprising a drive feature for turning said shaft, wherein the proximal screw thread and the distal screw thread are both located on the shaft, wherein a pitch of said proximal screw thread is finer than a pitch of said distal screw thread so that insertion of the compression screw into bone across a fracture line generates a force, and wherein said force generates a stress in said shaft that causes said shaft to stretch longitudinally to less than its elastic limit, and wherein said shaft is configured such that after said shaft is inserted into a bone, said shaft attempts to axially contract along the longitudinal axis to the original un-stretched condition, thereby generating and maintaining compression across the fracture line. a shaft having a longitudinal axis capable of being stretched, said shaft having a proximal end and a distal end, said proximal end of said shaft comprising a bone-engaging feature that is a proximal screw thread, and said distal end of said shaft comprising a distal screw thread, and said proximal end of said shaft comprising a drive feature for turning said shaft, wherein the proximal screw thread and the distal screw thread are both located on the shaft, wherein a pitch of said proximal screw thread is finer than a pitch of said distal screw thread so that insertion of the compression screw into bone across a fracture line generates a force, and wherein said force generates a stress in said shaft that causes said shaft to stretch longitudinally to less than its elastic limit,
A method for allocating a control channel in a wireless communication system, the method comprising: allocating (S200, S210) an enhanced physical downlink control channel, e-PDCCH, to at least one of a localized region which is contiguously configured in a frequency domain or a distributed region which is dispersedly configured in the frequency domain; and transmitting a scheduling assignment through the allocated e-PDCCH, characterized in that, the e-PDCCH is allocated only to the distributed region when an e-PDCCH format with a highest aggregation level, among a plurality of predetermined aggregation levels, is configured. allocating (S200, S210) an enhanced physical downlink control channel, e-PDCCH, to at least one of a localized region which is contiguously configured in a frequency domain or a distributed region which is dispersedly configured in the frequency domain; and transmitting a scheduling assignment through the allocated e-PDCCH, characterized in that, the e-PDCCH is allocated only to the distributed region when an e-PDCCH format with a highest aggregation level, among a plurality of predetermined aggregation levels, is configured.
A dehumidifier, comprising: a machine body, having a dehumidification function; and a water tank, defining a receiving cavity; wherein when the dehumidifier is in a working state, the machine body is located directly above the water tank, and the receiving cavity of the water tank is configured to receive water formed by dehumidification of the machine body, characterized in that when the dehumidifier is in an idle state, at least part of the machine body is received in the receiving cavity. a machine body, having a dehumidification function; and a water tank, defining a receiving cavity; wherein when the dehumidifier is in a working state, the machine body is located directly above the water tank, and the receiving cavity of the water tank is configured to receive water formed by dehumidification of the machine body, characterized in that when the dehumidifier is in an idle state, at least part of the machine body is received in the receiving cavity.
A computer-implemented method comprising: receiving, by a computing device that is configured to process voice commands that are preceded by a predefined hotword, audio data that corresponds to an utterance; determining, by the computing device, a likelihood that the utterance includes a hotword; determining, by the computing device, a loudness score for the audio data; based on the loudness score, determining, by the computing device, an amount of a delay time; and before the delay time has elapsed, receiving, by the computing device, from another computing device, a notification signal indicating that the computing device is to bypass further speech recognition processing of the audio data and that the another computing device will perform speech recognition processing on the audio data, the notification signal being an audible audio signal; and in response to receiving the notification signal, bypassing, by the computing device, further speech recognition processing of the audio data. receiving, by a computing device that is configured to process voice commands that are preceded by a predefined hotword, audio data that corresponds to an utterance; determining, by the computing device, a likelihood that the utterance includes a hotword; determining, by the computing device, a loudness score for the audio data; based on the loudness score, determining, by the computing device, an amount of a delay time; and before the delay time has elapsed, receiving, by the computing device, from another computing device, a notification signal indicating that the computing device is to bypass further speech recognition processing of the audio data and that the another computing device will perform speech recognition processing on the audio data, the notification signal being an audible audio signal; and in response to receiving the notification signal, bypassing, by the computing device, further speech recognition processing of the audio data.
A vane assembly comprising: a shroud including an annular shroud ring and a shroud web radially extending from one side thereof, the shroud ring including a plurality of openings defined therethrough about a circumference thereof in alignment with said shroud web such that the shroud web extends across the openings; a grommet located in each of the plurality of openings having a cutout therein; and a plurality of vanes supported by and extending radially from the shroud ring opposite of the shroud web, each one of the plurality of vanes having a vane extremity located in the cutout of one of the grommets; characterised in that the vane extremity has a slot defined therein which receives a portion of the shroud for mating therewith; and said slot defined in the vane extremity radially extends from a tip thereof, said slot receiving a portion of the shroud web therein. a shroud including an annular shroud ring and a shroud web radially extending from one side thereof, the shroud ring including a plurality of openings defined therethrough about a circumference thereof in alignment with said shroud web such that the shroud web extends across the openings; a grommet located in each of the plurality of openings having a cutout therein; and a plurality of vanes supported by and extending radially from the shroud ring opposite of the shroud web, each one of the plurality of vanes having a vane extremity located in the cutout of one of the grommets; characterised in that the vane extremity has a slot defined therein which receives a portion of the shroud for mating therewith; and said slot defined in the vane extremity radially extends from a tip thereof, said slot receiving a portion of the shroud web therein.
A process for surface treatment by dielectric barrier discharge comprising the following operations: - feeding or passing a substrate into a reaction chamber, in which two electrodes (10, 12) and at least one counter-electrode (13, 14, 15) are positioned, wherein at least one dielectric barrier is placed between these two electrodes (10, 12) and this at least one counter-electrode (13, 14, 15); - generating a high-frequency electric voltage of such a value that it causes the generation of a plasma between the two electrodes (10, 12) and the at least one counter-electrode (13, 14, 15); - feeding into the reaction chamber a mixture, the composition of which is such that on contact with the plasma, it breaks down and generates substances able to react with the surface of the substrate; characterised in that it additionally comprises the following operation: - connecting an inductance (L1, L2) in series with each of said electrodes (10, 12), wherein the value of said inductances (L1, L2) is such that in the case where the plasma ignites under a single electrode, the current circulating in the inductance in series with this electrode causes a magnetic flux in the other inductance, and such that the resulting voltage at the terminals of this second inductance causes an increase in the voltage at the terminals of the electrode that remains unignited forcing the ignition thereof, wherein said inductances are wound on a common magnetic core so that the resulting magnetic flux of the two inductances (L1, L2) is zero when identical currents circulate in the two electrodes (10, 12). - feeding or passing a substrate into a reaction chamber, in which two electrodes (10, 12) and at least one counter-electrode (13, 14, 15) are positioned, wherein at least one dielectric barrier is placed between these two electrodes (10, 12) and this at least one counter-electrode (13, 14, 15); - generating a high-frequency electric voltage of such a value that it causes the generation of a plasma between the two electrodes (10, 12) and the at least one counter-electrode (13, 14, 15); - feeding into the reaction chamber a mixture, the composition of which is such that on contact with the plasma, it breaks down and generates substances able to react with the surface of the substrate; - connecting an inductance (L1, L2) in series with each of said electrodes (10, 12), wherein the value of said inductances (L1, L2) is such that in the case where the plasma ignites under a single electrode, the current circulating in the inductance in series with this electrode causes a magnetic flux in the other inductance, and such that the resulting voltage at the terminals of this second inductance causes an increase in the voltage at the terminals of the electrode that remains unignited forcing the ignition thereof, wherein said inductances are wound on a common magnetic core so that the resulting magnetic flux of the two inductances (L1, L2) is zero when identical currents circulate in the two electrodes (10, 12).
Apparatus for conveying a product stream of chunk polysilicon or granular polysilicon, comprising a conveying surface made of metal and eddy current sensors for detection of metallic or electrically conductive foreign objects in the product stream, characterized in that the conveying surface is lined with plastic or with silicon.
A robot comprising: at least one movable limb; and a load sensor (200, 300) coupled to the at least one movable limb, wherein the load sensor comprises: a first plate and a second plate; a plurality of single-axis load cells including first, second, and third single-axis load cells, wherein each of the first, second, and third single-axis load cells is disposed between the first plate and the second plate and is oriented along a first axis so as to measure force along that first axis; characterized in that it further comprises a plurality of constraint j oints (208, 210) coupled to the first plate and the second plate, the plurality of constraint j oints configured to inhibit translation of the first plate relative to the second plate in directions perpendicular to the first axis and configured to inhibit rotation of the first plate relative to the second plate about the first axis. at least one movable limb; and a load sensor (200, 300) coupled to the at least one movable limb, wherein the load sensor comprises: a first plate and a second plate; a plurality of single-axis load cells including first, second, and third single-axis load cells, wherein each of the first, second, and third single-axis load cells is disposed between the first plate and the second plate and is oriented along a first axis so as to measure force along that first axis; characterized in that it further comprises a plurality of constraint j oints (208, 210) coupled to the first plate and the second plate, the plurality of constraint j oints configured to inhibit translation of the first plate relative to the second plate in directions perpendicular to the first axis and configured to inhibit rotation of the first plate relative to the second plate about the first axis. a first plate and a second plate; a plurality of single-axis load cells including first, second, and third single-axis load cells, wherein each of the first, second, and third single-axis load cells is disposed between the first plate and the second plate and is oriented along a first axis so as to measure force along that first axis; characterized in that it further comprises a plurality of constraint j oints (208, 210) coupled to the first plate and the second plate, the plurality of constraint j oints configured to inhibit translation of the first plate relative to the second plate in directions perpendicular to the first axis and configured to inhibit rotation of the first plate relative to the second plate about the first axis.
A fusion product in which a skin-penetrating peptide is fused with a biologically active substance, for use in therapy by delivering a biologically active substance into an epidermal cell, a dermal cell, or skin tissues, or through skin, wherein the skin-penetrating peptide is according to sequence n -X2-(cysteine)- m, wherein n is an integer from 3 to 14, m is an integer from 4 to 14, each of X1 and X3 is independently arginine, lysine or histidine, and X2 is alanine, glycine, proline, tryptophan, phenylalanine, leucine, isoleucine, methionine, valine, arginine, lysine or histidine.
A PCB, comprising: a first board material, a second board material, and a third board material sequentially pressed together, wherein the first board material is a high-frequency PCB material, the second board material is a prepreg, and the third board material is a low-frequency PCB material; the first board material, the second board material, and the third board material are provided with an opening respectively, at least two openings having different sizes; the opening of the first board material on the front surface of the PCB is provided for sintering a power amplification tube; in the first board material, the second board material, and the third board material, corresponding two openings of at least two board materials form a step-shaped region; characterised in that the board material in a region between boundaries of the two openings forming the step-shaped region is provided with a soldering surface on one surface thereof close to the larger opening and the soldering surface is configured to solder a corresponding region of a partially-sintered heat-dissipation metal block; a via hole passing through at least one board material in the region between boundaries of the two openings having different sizes is provided on the PCB, the via hole is a plated through hole.
A method for policy converging, wherein the method comprises: sending, by user equipment, UE, a policy request message to a first policy server; receiving, by the UE, a policy response message from the first policy server, wherein the policy response message comprises first policy information of the first policy server and information about at least one piece of second policy information, and the at least one piece of second policy information is policy information of at least one second policy server; the policy response message instructs the UE to acquire the at least one piece of second policy information and to converge the first policy information and the at least one piece of second policy information; acquiring, by the UE, the at least one piece of second policy information according to the information about the at least one piece of second policy information; and converging, by the UE according to the policy response message, the first policy information and the at least one piece of second policy information to generate converged policy information; wherein the policy response message further comprises a policy convergence indication; wherein the policy convergence indication is used for indicating the following converging manner: for a same target access network, policy items in the converged policy information are a union set of a policy item in the first policy information and a policy item in the at least one piece of second policy information. sending, by user equipment, UE, a policy request message to a first policy server; receiving, by the UE, a policy response message from the first policy server, wherein the policy response message comprises first policy information of the first policy server and information about at least one piece of second policy information, and the at least one piece of second policy information is policy information of at least one second policy server; the policy response message instructs the UE to acquire the at least one piece of second policy information and to converge the first policy information and the at least one piece of second policy information; acquiring, by the UE, the at least one piece of second policy information according to the information about the at least one piece of second policy information; and converging, by the UE according to the policy response message, the first policy information and the at least one piece of second policy information to generate converged policy information; wherein the policy response message further comprises a policy convergence indication; wherein the policy convergence indication is used for indicating the following converging manner: for a same target access network, policy items in the converged policy information are a union set of a policy item in the first policy information and a policy item in the at least one piece of second policy information.
A method for use in a first wireless transmit / receive unit, WTRU, the method comprising: receiving, from a second WTRU, a first discovery message that includes an indication of a number of hops to a base station, BS, from the second WTRU, an indication of a location of the BS, and quality of service, QoS, parameters of the second WTRU; determining, based on the location of the BS, a distance to the BS from the first WTRU, wherein the determined distance to the BS is within a preconfigured allowed range, wherein the preconfigured allowed range is associated with a number of hops from the first WTRU; determining, based on the QoS parameters of the second WTRU, a relay load of the first WTRU, and side link, SL, reference signal received power, SL RSRP, of the received first discovery message, QoS parameters of the first WTRU for a relay service provided by the first WTRU; transmitting, based on the QoS parameters of the first WTRU and the determined distance to the BS, to a third WTRU, a second discovery message. receiving, from a second WTRU, a first discovery message that includes an indication of a number of hops to a base station, BS, from the second WTRU, an indication of a location of the BS, and quality of service, QoS, parameters of the second WTRU; determining, based on the location of the BS, a distance to the BS from the first WTRU, wherein the determined distance to the BS is within a preconfigured allowed range, wherein the preconfigured allowed range is associated with a number of hops from the first WTRU; determining, based on the QoS parameters of the second WTRU, a relay load of the first WTRU, and side link, SL, reference signal received power, SL RSRP, of the received first discovery message, QoS parameters of the first WTRU for a relay service provided by the first WTRU; transmitting, based on the QoS parameters of the first WTRU and the determined distance to the BS, to a third WTRU, a second discovery message.
A device for three-dimensional, 3D, printing of structures in a vertical orientation, comprising: a construction frame, a construction area and a separate build platform, both positioned horizontally within said construction frame and configured for inverted build of a solidified 3D structure therebetween, said build platform being configured to be moveable vertically and to rotate within said construction frame, one or more material dispensers (24; 180, 184) with a flowable build material in said one or more material dispensers, the material dispensers (24; 180, 184) being positioned to deliver the flowable build material onto an exposure zone of an upper surface of the construction area, and a solidification mechanism positioned to deliver a solidifying medium to the flowable material located on the exposure zone, wherein said build platform is configured to receive and retain the build material delivered on to the upper surface of the construction area as the build material solidifies and to move vertically upward rotating within the construction frame, wherein said exposure zone is transparent to a radiative source (212, 214), and wherein said solidification mechanism is located below said transparent construction area. a construction frame, a construction area and a separate build platform, both positioned horizontally within said construction frame and configured for inverted build of a solidified 3D structure therebetween, said build platform being configured to be moveable vertically and to rotate within said construction frame, one or more material dispensers (24; 180, 184) with a flowable build material in said one or more material dispensers, the material dispensers (24; 180, 184) being positioned to deliver the flowable build material onto an exposure zone of an upper surface of the construction area, and a solidification mechanism positioned to deliver a solidifying medium to the flowable material located on the exposure zone, wherein said build platform is configured to receive and retain the build material delivered on to the upper surface of the construction area as the build material solidifies and to move vertically upward rotating within the construction frame, wherein said exposure zone is transparent to a radiative source (212, 214), and wherein said solidification mechanism is located below said transparent construction area.
A method of identifying a subject at risk for suicide comprising identifying in a biological sample obtained from the subject one or more genetic markers associated with suicide, at least one marker being defined by rs2491144 (SEQ ID NO:1), wherein the presence of the G allele in marker rs2491144 identifies the subject is at increased risk for suicide, wherein the subject is a subject which has already been diagnosed with a mental illness or a subject which already exhibits one or more clinical symptoms of a mental illness.