mhurhangee/ep-ind-claims huggingface dataset:
A flowmeter prover (100; 200; 300), comprising: a flow tube; a displacer moveable in a flow passage of the flow tube; a magnetic target disposed on the displacer; at least two inductive transducers disposed on the flow tube, the transducers configured to detect the magnetic target as the displacer moves in the flow tube; a signal conditioning circuit coupled to each of the transducers, the signal conditioning circuitry configured to generate, for each of the transducers, a signal comprising a pulse having a slope corresponding to the rate of change of inductance of the transducer caused by the magnetic target moving across the transducer; and a signal analyzer configured to: identify a first detection point as a point of maximum slope of a rising edge of the pulse and a second detection point as a point of maximum slope of a falling edge of the pulse; and determine displacer velocity based on edges of the signal. a flow tube; a displacer moveable in a flow passage of the flow tube; a magnetic target disposed on the displacer; at least two inductive transducers disposed on the flow tube, the transducers configured to detect the magnetic target as the displacer moves in the flow tube; a signal conditioning circuit coupled to each of the transducers, the signal conditioning circuitry configured to generate, for each of the transducers, a signal comprising a pulse having a slope corresponding to the rate of change of inductance of the transducer caused by the magnetic target moving across the transducer; and a signal analyzer configured to: identify a first detection point as a point of maximum slope of a rising edge of the pulse and a second detection point as a point of maximum slope of a falling edge of the pulse; and determine displacer velocity based on edges of the signal. identify a first detection point as a point of maximum slope of a rising edge of the pulse and a second detection point as a point of maximum slope of a falling edge of the pulse; and determine displacer velocity based on edges of the signal.
A method of manufacturing a semiconductor light emitting device, the method comprising: sequentially growing a first conductivity type semiconductor layer, an active 5 layer, and a second conductivity type semiconductor layer on a semiconductor growth substrate to form a light emitting part; forming a support part on the second conductivity type semiconductor layer to be coupled to the light emitting part; separating the semiconductor growth substrate from the light emitting part; characterized by applying an etching gas (g) to the semiconductor growth substrate to remove a residue of the first conductivity type semiconductor layer from a surface of the semiconductor growth substrate, wherein the etching gas includes an HCl gas or a Cl 2 gas. sequentially growing a first conductivity type semiconductor layer, an active 5 layer, and a second conductivity type semiconductor layer on a semiconductor growth substrate to form a light emitting part; forming a support part on the second conductivity type semiconductor layer to be coupled to the light emitting part; separating the semiconductor growth substrate from the light emitting part; characterized by applying an etching gas (g) to the semiconductor growth substrate to remove a residue of the first conductivity type semiconductor layer from a surface of the semiconductor growth substrate, wherein the etching gas includes an HCl gas or a Cl 2 gas.
A method performed by a user equipment (100, 200), UE, of transmitting channel quality information to a base station, BS, in a wireless communication system supporting narrowband Internet of things, NB-IoT, the method comprising: transmitting a random access preamble to the BS; receiving a random access response from the BS; and transmitting the channel quality information to the BS through a narrowband physical uplink shared channel, NPUSCH, based on the random access response, the channel quality information is related to a repetition number required to detect a hypothetical narrowband physical downlink control channel, NPDCCH, at a 1% block error rate, BLER, characterized in that, the required repetition number is represented based on a maximum NPDCCH repetition number 'R max ' for the random access response reception, and a maximum value which can be used as the required repetition number for the hypothetical NPDCCH, is K times larger than the maximum NPDCCH repetition number 'R max ' for the random access response reception. transmitting a random access preamble to the BS; receiving a random access response from the BS; and transmitting the channel quality information to the BS through a narrowband physical uplink shared channel, NPUSCH, based on the random access response, the channel quality information is related to a repetition number required to detect a hypothetical narrowband physical downlink control channel, NPDCCH, at a 1% block error rate, BLER, characterized in that, the required repetition number is represented based on a maximum NPDCCH repetition number 'R max ' for the random access response reception, and a maximum value which can be used as the required repetition number for the hypothetical NPDCCH, is K times larger than the maximum NPDCCH repetition number 'R max ' for the random access response reception.
A cutting tool comprising a plate member and a tool block for holding the plate member, wherein the plate member comprises first and second side surfaces (7, 8) being substantially rectangular in shape, each having long and short sides, a top surface and a bottom surface extending in a direction along the long side, and two end surfaces (5, 6) along a direction of the short side, a cutting edge is located on the side of at least one end surface of the two end surfaces (5, 6), the first side surface is a curved surface bulging outward between the top surface and the bottom surface, the bottom surface has an inclined portion being inclined with respect to the top surface, and the tool block comprises a bottom restraining surface which contacts the bottom surface of the plate member and a side restraining surface corresponding to the first side surface of the plate member, characterized in that the side restraining surface comprises at least a first contact surface and a second contact surface which contact the first side surface, and in that the side restraining surface has a two-step structure.
A process for producing complexes of a protein having an isoelectric point of at least 7 with casein comprising the steps of: a. providing a solution of a protein having an isoelectric point of at least 7 and casein at a pH in the range of 6.5 to 7.5; b. ramping up the temperature from the denaturation temperature of the protein having an isoelectric point of 7 or more to a temperature in the range of 85 to 95°C; c. holding the solution at a temperature of 85 to 95°C for at least 30 seconds; and d. ramping down the temperature from 85-95°C to a temperature below 5°C over a period of at least 30 minutes. e. holding the solution at a temperature below 5°C for at least 15 minutes. a. providing a solution of a protein having an isoelectric point of at least 7 and casein at a pH in the range of 6.5 to 7.5; b. ramping up the temperature from the denaturation temperature of the protein having an isoelectric point of 7 or more to a temperature in the range of 85 to 95°C; c. holding the solution at a temperature of 85 to 95°C for at least 30 seconds; and d. ramping down the temperature from 85-95°C to a temperature below 5°C over a period of at least 30 minutes. e. holding the solution at a temperature below 5°C for at least 15 minutes.
A method of producing a large-MSC population of cells, comprising: a) culturing an MSC-containing population of cells in a culture medium for 7-10 days to a confluence of 80% to 90% over each of at least four population doublings to provide a population enriched in large-MSC cells, wherein the four population doublings are measured from initial extraction of the MSC-containing population from a source, wherein the MSC-containing population of cells are seeded at 1000 MSC/cm 2 to 1500 MSC/cm 2, wherein the MSC-containing population of cells is obtained from bone marrow, and wherein the large-MSC cells have a diameter of 18 μm to 22 μm; and b) biophysically sorting the MSC-containing population of cells produced in step (a) and collecting a large-MSC population of cells from the MSC-containing population, wherein the large-MSC population of cells has enhanced regenerative potential relative to small-MSCs or a mixed MSC population. a) culturing an MSC-containing population of cells in a culture medium for 7-10 days to a confluence of 80% to 90% over each of at least four population doublings to provide a population enriched in large-MSC cells, wherein the four population doublings are measured from initial extraction of the MSC-containing population from a source, wherein the MSC-containing population of cells are seeded at 1000 MSC/cm 2 to 1500 MSC/cm 2, wherein the MSC-containing population of cells is obtained from bone marrow, and wherein the large-MSC cells have a diameter of 18 μm to 22 μm; and b) biophysically sorting the MSC-containing population of cells produced in step (a) and collecting a large-MSC population of cells from the MSC-containing population, wherein the large-MSC population of cells has enhanced regenerative potential relative to small-MSCs or a mixed MSC population.
A method comprising: indicating a direction of a sound source with respect to a mobile platform by pointing the mobile platform in the direction of the sound source, and, with the mobile platform pointed towards the sound source, selecting the direction of the sound source for amplification through a quick movement of the mobile platform; implementing beamforming with the mobile platform in the direction of the sound source to amplify audio information from the sound source; determining movement of the mobile platform with respect to the sound source; and using the determined movement to adjust the beamforming to continue to implement beamforming in the direction of the sound source after the mobile platform has moved with respect to the sound source. indicating a direction of a sound source with respect to a mobile platform by pointing the mobile platform in the direction of the sound source, and, with the mobile platform pointed towards the sound source, selecting the direction of the sound source for amplification through a quick movement of the mobile platform; implementing beamforming with the mobile platform in the direction of the sound source to amplify audio information from the sound source; determining movement of the mobile platform with respect to the sound source; and using the determined movement to adjust the beamforming to continue to implement beamforming in the direction of the sound source after the mobile platform has moved with respect to the sound source.
An array substrate, comprising a gate layer (11;12), a gate insulating layer, an active layer, a source and drain layer, a scanning line and a signal line formed on a substrate, wherein the signal line is provided in a same layer as the gate layer, the scanning line is provided in a same layer as the source and drain layer, the gate insulating layer is provided between the gate layer, the signal line and the active layer; the array substrate further comprises a first through hole and a second through hole penetrating through the gate insulating layer, the signal line is connected to the source and drain layer via the first through hole, and the scanning line is connected to the gate layer via the second through hole.
A vibration welding device, comprising: a vibration welding mold, including an upper mold and a lower mold divided in an up-down direction (A-B), that is configured to be fitted with a first component and a second component each forming an elongated shape having a bent portion, the length directions of the first component and the second component being disposed along a left-right direction (C-D); a plurality of first mold divisions (42U1-42U6), comprised in one of the upper mold or the lower mold, that are separated in the left-right direction (C-D); a pressing device that is coupled to each of the plurality of first mold divisions (42U1-42U6) and that is configured to apply pressure to the first mold divisions; and a vibration device that is coupled to each of the plurality of first mold divisions and that is configured to vibrate the first mold divisions, wherein the plurality of first mold divisions (42U1-42U6) are each movable in the up-down direction (A-B); a position adjusting device is coupled to each of the plurality of first mold divisions (42U1-42U6); and positions of the first mold divisions (42U1-42U6) are adjustable by the position adjusting device; characterized in that the plurality of first mold divisions (42U1-42U6) are each movable in a front-rear direction (E-F). a vibration welding mold, including an upper mold and a lower mold divided in an up-down direction (A-B), that is configured to be fitted with a first component and a second component each forming an elongated shape having a bent portion, the length directions of the first component and the second component being disposed along a left-right direction (C-D); a plurality of first mold divisions (42U1-42U6), comprised in one of the upper mold or the lower mold, that are separated in the left-right direction (C-D); a pressing device that is coupled to each of the plurality of first mold divisions (42U1-42U6) and that is configured to apply pressure to the first mold divisions; and a vibration device that is coupled to each of the plurality of first mold divisions and that is configured to vibrate the first mold divisions, wherein the plurality of first mold divisions (42U1-42U6) are each movable in the up-down direction (A-B); a position adjusting device is coupled to each of the plurality of first mold divisions (42U1-42U6); and positions of the first mold divisions (42U1-42U6) are adjustable by the position adjusting device; characterized in that the plurality of first mold divisions (42U1-42U6) are each movable in a front-rear direction (E-F).
A method of operating a first communications device for use in peer to peer wireless communication, the method comprising: transmitting a transmission request, said transmission request corresponding to a subsequent traffic transmission interval, said subsequent traffic transmission interval having a fixed time relationship to the transmitted transmission request, wherein said transmission request is directed to a second communications device; receiving an authorization signal from the second communications device; determining whether to transmit data during said subsequent traffic transmission interval, wherein the first communications device decides to refrain from transmitting if it recognizes by monitoring a common control resource that a third communications device was authorized to transmit to a fourth communications device and that transmission from the first communications device will interfere with reception by the fourth communications device of traffic signals from the third communications device and wherein communication from the first communications device to the second communications device is of lower priority than communication from the third communications device to the fourth communications device; and when it is determined to transmit traffic data during said subsequent traffic transmission interval, transmitting data. transmitting a transmission request, said transmission request corresponding to a subsequent traffic transmission interval, said subsequent traffic transmission interval having a fixed time relationship to the transmitted transmission request, wherein said transmission request is directed to a second communications device; receiving an authorization signal from the second communications device; determining whether to transmit data during said subsequent traffic transmission interval, wherein the first communications device decides to refrain from transmitting if it recognizes by monitoring a common control resource that a third communications device was authorized to transmit to a fourth communications device and that transmission from the first communications device will interfere with reception by the fourth communications device of traffic signals from the third communications device and wherein communication from the first communications device to the second communications device is of lower priority than communication from the third communications device to the fourth communications device; and when it is determined to transmit traffic data during said subsequent traffic transmission interval, transmitting data.
A latch assembly (1200, 1500) for use in a vehicle, the latch assembly comprising: a frame (1210, 1510) having a proximal end portion and a distal end portion; a latch (1230, 1530) movably coupled to the frame (1210, 1510) proximate the distal end portion; an ejector (1290, 1590) movably coupled to the frame (1210, 1510) proximate the latch; and a biasing member (1220, 1520), characterized in that the biasing member (1220, 1520) is operably coupled between the latch (1230, 1530) and the ejector (1290, 1590), wherein movement of the ejector (1290, 1590) toward the proximal end portion of the frame (1210, 1510) drives the biasing member (1220, 1520) against the latch (1230, 1530), causing the latch to releasably engage an anchor member (1202, 1502) in the vehicle by pivoting about a first pivot point and then a second pivot point spaced apart from the first pivot point. a frame (1210, 1510) having a proximal end portion and a distal end portion; a latch (1230, 1530) movably coupled to the frame (1210, 1510) proximate the distal end portion; an ejector (1290, 1590) movably coupled to the frame (1210, 1510) proximate the latch; and a biasing member (1220, 1520), characterized in that the biasing member (1220, 1520) is operably coupled between the latch (1230, 1530) and the ejector (1290, 1590), wherein movement of the ejector (1290, 1590) toward the proximal end portion of the frame (1210, 1510) drives the biasing member (1220, 1520) against the latch (1230, 1530), causing the latch to releasably engage an anchor member (1202, 1502) in the vehicle by pivoting about a first pivot point and then a second pivot point spaced apart from the first pivot point.
Solar collector for the temporary storage of heat from solar radiation comprising a radiation conductor for conducting solar radiation, lens means for concentrating solar radiation onto a first extremity of the radiation conductor, and comprising a thermally conducting core on an opposite second extremity of the radiation conductor which core is heated by the solar radiation emitted from the radiation conductor and is in a position to store the heat temporarily, wherein the core is provided within an insulated casing virtually completely enveloping the core, characterised in that the insulated casing comprises a layer of porous ceramic material, wherein the radiation conductor comprises partly a quartz fibre, and wherein the quartz fibre comprises the second extremity of the radiation conductor and extends to outside the insulated casing wherein the radiation conductor further comprises a glass fibre, wherein the glass fibre is connected to the quartz fibre and comprises the first extremity of the radiation conductor.
A side wall cladding element for motor vehicle interior walls, comprising - a base body for forming a portion of a motor vehicle interior wall cladding and - a coupling body protruding from the base body for spacing the base body apart from the motor vehicle interior wall, wherein the coupling body has - a first spacer element which is connected via a first attachment portion to the base body and via a second attachment portion to the connecting element, - a second spacer element which is connected via a third attachment portion to the connecting element and via a fourth attachment portion to the base body and - an attachment element which is connected to the second spacer element in the region of the fourth attachment portion so as to bear flat against the base body, characterized in that the coupling body of the connecting element is configured so as to be fastened to the motor vehicle interior wall by a material connection, wherein the base body, the first spacer element, the connecting element, the second spacer element and/or the attachment element are configured integrally and are connected together via crease folds (16, 18, 22, 24). - a base body for forming a portion of a motor vehicle interior wall cladding and - a coupling body protruding from the base body for spacing the base body apart from the motor vehicle interior wall, wherein the coupling body has wherein the coupling body has - a first spacer element which is connected via a first attachment portion to the base body and via a second attachment portion to the connecting element, - a second spacer element which is connected via a third attachment portion to the connecting element and via a fourth attachment portion to the base body and - an attachment element which is connected to the second spacer element in the region of the fourth attachment portion so as to bear flat against the base body, characterized in that the coupling body of the connecting element is configured so as to be fastened to the motor vehicle interior wall by a material connection, wherein the base body, the first spacer element, the connecting element, the second spacer element and/or the attachment element are configured integrally and are connected together via crease folds (16, 18, 22, 24). characterized in that the coupling body of the connecting element is configured so as to be fastened to the motor vehicle interior wall by a material connection, wherein the base body, the first spacer element, the connecting element, the second spacer element and/or the attachment element are configured integrally and are connected together via crease folds (16, 18, 22, 24).
A method for manufacturing a bone implant, consisting of depositing a synthetic hydroxyapatite on a supporting structure, having a step of immersing the supporting structure in a suspension consisting of a liquid phase, advantageously water, containing a disphersed phase of synthetic hydroxyapatite particles having an average particle size not greater than 100 nm and molar ratio of calcium to phosphorus (Ca/P) greater than 1.55 and less than 1.67, and a step of inducing ultrasonic cavitation in a portion of the suspension being in contact with the supporting structure, characterized in that for preparation of the dispersed phase are used the hydroxyapatite particles containing structural water in an amount from 2 to 6% by weight, the supporting structure is immobilized in the suspension, the ultrasonic cavitation is induced by means of an vibrating object immersed into the suspension near the immobilized supporting structure of the implant, the vibrating object has a vibrating front surface, and during the cavitation the distance of the vibrating front surface from the surface of the supporting structure is constant and not greater than 200% of the vibrating front surface diameter, advantageously about 100% of that diameter.
An epoxy-based composition comprising: a cyanurate compound having a following Chemical Formula; and an epoxy resin, a cyanurate compound having a following Chemical Formula; and an epoxy resin,
A conotoxin polypeptide κ-CPTx-bt104, characterized in that the conotoxin polypeptide is comprised of 11 amino acids, and has a molecular weight of 1313.47 daltons and a complete amino acid sequence as shown in SEQ ID NO: 1.
A DNA sequence encoding a pyruvate carboxylase with at least 85% identity to the sequence No. 1, wherein the triplet, in position 394-396, encodes alanine.