mhurhangee/ep-ind-claims huggingface dataset:
A surgical stapling device comprising: a body portion including an anvil retainer, the anvil retainer having a proximal portion and a distal portion, the proximal portion supporting a first longitudinal rib and the distal portion supporting a second longitudinal rib; an anvil assembly having an anvil shaft and an anvil head supported on a distal portion of the anvil shaft, the anvil shaft having a plurality of resilient legs defining a bore, the resilient legs being flexible outwardly to facilitate passage of the anvil retainer into the bore, adjacent resilient legs of the plurality of resilient legs defining longitudinal channels, at least one of the longitudinal channels defined by the resilient legs receiving the second longitudinal rib to prevent rotation of the anvil shaft in relation to the anvil retainer; a shell assembly supported on a distal portion of the body portion, the shell assembly including a shell housing having an inner housing portion defining a through bore, the anvil retainer extending through the through bore; and a bushing supported within the through bore of the inner housing portion of the shell housing, the bushing defining an internal slot, wherein the internal slot receives the first longitudinal rib to prevent rotation of the anvil retainer within a through bore of the bushing; characterised in that the bushing includes an external slot and the inner housing portion includes an inner wall that defines the through bore, the inner wall of the inner housing portion supporting a third longitudinal rib, the third longitudinal rib being received within the external slot of the bushing to prevent rotation of the bushing within the through bore of the inner housing portion. a body portion including an anvil retainer, the anvil retainer having a proximal portion and a distal portion, the proximal portion supporting a first longitudinal rib and the distal portion supporting a second longitudinal rib; an anvil assembly having an anvil shaft and an anvil head supported on a distal portion of the anvil shaft, the anvil shaft having a plurality of resilient legs defining a bore, the resilient legs being flexible outwardly to facilitate passage of the anvil retainer into the bore, adjacent resilient legs of the plurality of resilient legs defining longitudinal channels, at least one of the longitudinal channels defined by the resilient legs receiving the second longitudinal rib to prevent rotation of the anvil shaft in relation to the anvil retainer; a shell assembly supported on a distal portion of the body portion, the shell assembly including a shell housing having an inner housing portion defining a through bore, the anvil retainer extending through the through bore; and a bushing supported within the through bore of the inner housing portion of the shell housing, the bushing defining an internal slot, wherein the internal slot receives the first longitudinal rib to prevent rotation of the anvil retainer within a through bore of the bushing; characterised in that
A re-encoding method of re-encoding an encoded image, the method comprising: obtaining a first quantization matrix from an image file including the encoded image, the encoded image being encoded by quantization based on the first quantization matrix including a plurality of first quantization parameters; obtaining a second quantization matrix from a re-encoding device, the second quantization matrix including a plurality of second quantization parameters and having the same size as the first quantization matrix; determining a comparison coefficient based on the number of elements greater than '0' in a comparison matrix obtained by subtracting the first quantization matrix from the second quantization matrix; and when the comparison coefficient is greater than a first threshold value, decoding the encoded image by inverse quantization based on the first quantization matrix and re-encoding the decoded image by quantization based on the second quantization matrix. obtaining a first quantization matrix from an image file including the encoded image, the encoded image being encoded by quantization based on the first quantization matrix including a plurality of first quantization parameters; obtaining a second quantization matrix from a re-encoding device, the second quantization matrix including a plurality of second quantization parameters and having the same size as the first quantization matrix; determining a comparison coefficient based on the number of elements greater than '0' in a comparison matrix obtained by subtracting the first quantization matrix from the second quantization matrix; and when the comparison coefficient is greater than a first threshold value, decoding the encoded image by inverse quantization based on the first quantization matrix and re-encoding the decoded image by quantization based on the second quantization matrix.
A piston ring comprising: a piston ring base material; and a thermal spray coating for piston ring, the thermal spray coating being obtained by thermally spraying a powder composition on an outer peripheral sliding surface of the piston ring base material, wherein the powder composition contains molybdenum particles, nickel chromium alloy particles, and chromium carbide particles, wherein the powder composition is thermally sprayed on the outer peripheral sliding surface of the piston ring base material by a plasma spraying method, characterized in that a median diameter of the chromium carbide particles is 5 to 25 μm, wherein, in a cross section vertical to the outer peripheral sliding surface of the thermal spray coating, said cross section being parallel to the thickness direction of the coating, a structure is formed such that an accumulated molybdenum layer, a nickel chromium alloy layer and a chromium carbide layer lie one upon another while undulating like a wave, the layers bending repeatedly so as to form folds, and the layers get entangled with each other, and wherein a porosity of the thermal spray coating for piston ring is 1.5 to 4.1% by area. a piston ring base material; and a thermal spray coating for piston ring, the thermal spray coating being obtained by thermally spraying a powder composition on an outer peripheral sliding surface of the piston ring base material, wherein the powder composition contains molybdenum particles, nickel chromium alloy particles, and chromium carbide particles, wherein the powder composition is thermally sprayed on the outer peripheral sliding surface of the piston ring base material by a plasma spraying method, characterized in that a median diameter of the chromium carbide particles is 5 to 25 μm, wherein, in a cross section vertical to the outer peripheral sliding surface of the thermal spray coating, said cross section being parallel to the thickness direction of the coating, a structure is formed such that an accumulated molybdenum layer, a nickel chromium alloy layer and a chromium carbide layer lie one upon another while undulating like a wave, the layers bending repeatedly so as to form folds, and the layers get entangled with each other, and wherein a porosity of the thermal spray coating for piston ring is 1.5 to 4.1% by area.
An assembly capable of being disposed in a wellbore, the assembly comprising: a chamber that is adapted to be positioned subsequent to an exit opening of a vortex assembly; and a flow-affecting device in the chamber, the flow-affecting device being adapted to move between a first position and a second position based on an amount of rotation of fluid entering the chamber from the vortex assembly. a chamber that is adapted to be positioned subsequent to an exit opening of a vortex assembly; and a flow-affecting device in the chamber, the flow-affecting device being adapted to move between a first position and a second position based on an amount of rotation of fluid entering the chamber from the vortex assembly.
A pipe joint, comprising: a first pipe end having a first flange that extends at least partly therearound; a second pipe end having a second flange that extends at least partly therearound, said second pipe end having a sensor bung and a sensor; and a pipe clamp situated on said first and second pipe ends (10, 12) and at said first and second flanges (20, 22), said pipe clamp comprising: a band having at least a first band segment and a second band segment; a bridge spanning between said first and second band segments (64, 66) and attached to said first and second band segments (64, 66), said bridge having a clearance to accommodate said sensor bung, to accommodate said sensor disposed in said sensor bung, or to accommodate both said sensor bung and said sensor; and a fastener to tighten said pipe clamp on said first and second pipe ends (10, 12); wherein in installation, said band is tightened over said first and second flanges (20, 22) and said clearance of said bridge receives said sensor bung, receives the sensor, or receives both said sensor bung and said sensor. a first pipe end having a first flange that extends at least partly therearound; a second pipe end having a second flange that extends at least partly therearound, said second pipe end having a sensor bung and a sensor; and a pipe clamp situated on said first and second pipe ends (10, 12) and at said first and second flanges (20, 22), said pipe clamp comprising: a band having at least a first band segment and a second band segment; a bridge spanning between said first and second band segments (64, 66) and attached to said first and second band segments (64, 66), said bridge having a clearance to accommodate said sensor bung, to accommodate said sensor disposed in said sensor bung, or to accommodate both said sensor bung and said sensor; and a fastener to tighten said pipe clamp on said first and second pipe ends (10, 12); a band having at least a first band segment and a second band segment; a bridge spanning between said first and second band segments (64, 66) and attached to said first and second band segments (64, 66), said bridge having a clearance to accommodate said sensor bung, to accommodate said sensor disposed in said sensor bung, or to accommodate both said sensor bung and said sensor; and a fastener to tighten said pipe clamp on said first and second pipe ends (10, 12); wherein in installation, said band is tightened over said first and second flanges (20, 22) and said clearance of said bridge receives said sensor bung, receives the sensor, or receives both said sensor bung and said sensor.
An N-methyl-D-aspartate receptor (NMDAR) antagonist in combination with a TrkB agonist for use in the treatment of Rett syndrome, wherein the NMDAR antagonist comprises 2-amino-N-(1,2-diphenyl-1-methylethyl)acetamide (Remacemide) or a pharmaceutically effective salt thereof and wherein the NMDAR antagonist and TrkB agonist are administered at amounts effective to treat Rett syndrome.
Jet engine (2, 3, 4) having a connection apparatus and having at least one operating medium device which has a first fluid region and a second fluid region, wherein the jet engine (2, 3, 4) is attachable to an element (7, 8) of an aircraft either in a first installation position or in at least one second installation position, wherein, in the first installation position, the first fluid region is assigned to a first functionality and, in the first installation position, the second fluid region is assigned to a second functionality, characterized in that, in the second installation position, the fluid regions (46, 47) are assigned to the respective other functionality.
A speech recognition method for recognizing a word input in an equipment, comprising the steps of: determining in said equipment one or more symbols, wherein said one or more symbols is one or more of a letter, a numeral, an ASCII symbol, a speech segment derived from a speaker utterance or a speech feature derived from a speech segment derived from a speaker utterance, sending said one or more symbols to a remote system, receiving from said remote system a grammar corresponding to a limited set of words depending on said one or more symbols, recognizing said word in said equipment using a speech recognition method constrained with said grammar. determining in said equipment one or more symbols, wherein said one or more symbols is one or more of a letter, a numeral, an ASCII symbol, a speech segment derived from a speaker utterance or a speech feature derived from a speech segment derived from a speaker utterance, sending said one or more symbols to a remote system, receiving from said remote system a grammar corresponding to a limited set of words depending on said one or more symbols, recognizing said word in said equipment using a speech recognition method constrained with said grammar.
A randomization generating optical system comprising: a birefringent structure configured to receive a beam from a beam source, the birefringent structure comprising a plurality of layers, wherein each layer has a birefringent axis that is misaligned with a birefringent axis of each previous layer, and wherein each layer of the birefringent structure is positioned to split the beam as it propagates through the birefringent structure, forming an increasingly bifurcated beam; and a photodetector (114; 212; 412) positioned to receive randomization energy generated by the bifurcated beam exiting the birefringent structure and convert the randomization energy into a parallel randomized output signal. a birefringent structure configured to receive a beam from a beam source, the birefringent structure comprising a plurality of layers, wherein each layer has a birefringent axis that is misaligned with a birefringent axis of each previous layer, and wherein each layer of the birefringent structure is positioned to split the beam as it propagates through the birefringent structure, forming an increasingly bifurcated beam; and a photodetector (114; 212; 412) positioned to receive randomization energy generated by the bifurcated beam exiting the birefringent structure and convert the randomization energy into a parallel randomized output signal.
A method for detecting target molecules in a sample comprising: (a) obtaining: (i) a plurality of target specific unique binding agent mixtures, wherein at least one UBA mixture comprises labeled and unlabeled UBAs at a predetermined ratio, (ii) a plurality of epitope specific barcodes (ESBs) capable of associating with the UBAs, and (iii) a plurality of round-specific assayable polymer subunit sets, each set comprising a plurality of APSs that are detectably distinct from each other; (b) contacting the mixtures of UBAs with a population of cells comprising the target molecules, wherein the labeled UBAs and the unlabeled UBAs bind to the target molecules; (c) contacting the plurality of ESBs with said population of cells; (d) conducting split pool synthesis using the plurality of round-specific APSs; and (e) obtaining at least one target specific signal by detecting at least part of the UBA-ESB-APS complex. (a) obtaining: (i) a plurality of target specific unique binding agent mixtures, wherein at least one UBA mixture comprises labeled and unlabeled UBAs at a predetermined ratio, (ii) a plurality of epitope specific barcodes (ESBs) capable of associating with the UBAs, and (iii) a plurality of round-specific assayable polymer subunit sets, each set comprising a plurality of APSs that are detectably distinct from each other; (i) a plurality of target specific unique binding agent mixtures, wherein at least one UBA mixture comprises labeled and unlabeled UBAs at a predetermined ratio, (ii) a plurality of epitope specific barcodes (ESBs) capable of associating with the UBAs, and (iii) a plurality of round-specific assayable polymer subunit sets, each set comprising a plurality of APSs that are detectably distinct from each other; (b) contacting the mixtures of UBAs with a population of cells comprising the target molecules, wherein the labeled UBAs and the unlabeled UBAs bind to the target molecules; (c) contacting the plurality of ESBs with said population of cells; (d) conducting split pool synthesis using the plurality of round-specific APSs; and (e) obtaining at least one target specific signal by detecting at least part of the UBA-ESB-APS complex.
Method for positioning a mobile terminal in a radio network including base stations (10,12,14), comprising the steps of: transmitting a signal (110,120,140) from a base station for receipt in the mobile terminal along a line of sight of a radio beam through an antenna including a plurality of antenna elements (111; 112); receiving, at an apparatus, time measurement data from the mobile terminal, obtained based on receipt in the mobile terminal of the transmitted signal; calculating, by the apparatus, a distance value (D LOS) for the distance from the base station to the mobile terminal based on the time measurement data; calculating, by the apparatus, a vertical position (D vr) of the mobile terminal, based on the distance value and an elevation angle (θ) of the line of sight of the radio beam, characterized in that the calculation of the vertical position is dependent on a beam width value of the radio beam. transmitting a signal (110,120,140) from a base station for receipt in the mobile terminal along a line of sight of a radio beam through an antenna including a plurality of antenna elements (111; 112); receiving, at an apparatus, time measurement data from the mobile terminal, obtained based on receipt in the mobile terminal of the transmitted signal; calculating, by the apparatus, a distance value (D LOS) for the distance from the base station to the mobile terminal based on the time measurement data; calculating, by the apparatus, a vertical position (D vr) of the mobile terminal, based on the distance value and an elevation angle (θ) of the line of sight of the radio beam, characterized in that the calculation of the vertical position is dependent on a beam width value of the radio beam.
An electronic device, comprising: a rear case comprising at least one hole; a front case disposed to face the rear case; a speaker mounted in a space between the rear case and the front case, configured to output a sound signal to an outside of the electronic device and comprising a speaker hole; and a fixing member having a portion exposed to the outside through the hole of the rear case and another portion penetrating the speaker hole, the fixing member configured to connect the speaker and the rear case so that the speaker is fixed to the rear case, wherein the fixing member comprises a first groove formed in a size corresponding to the hole of the rear case and to which a portion of the rear case around the at least one hole is inserted and coupled; a second groove formed on the another portion and in a size corresponding to the speaker hole of the speaker and to which a portion of the speaker around the speaker hole is inserted and coupled. a rear case comprising at least one hole; a front case disposed to face the rear case; a speaker mounted in a space between the rear case and the front case, configured to output a sound signal to an outside of the electronic device and comprising a speaker hole; and a fixing member having a portion exposed to the outside through the hole of the rear case and another portion penetrating the speaker hole, the fixing member configured to connect the speaker and the rear case so that the speaker is fixed to the rear case, wherein the fixing member comprises a first groove formed in a size corresponding to the hole of the rear case and to which a portion of the rear case around the at least one hole is inserted and coupled; a second groove formed on the another portion and in a size corresponding to the speaker hole of the speaker and to which a portion of the speaker around the speaker hole is inserted and coupled. a first groove formed in a size corresponding to the hole of the rear case and to which a portion of the rear case around the at least one hole is inserted and coupled; a second groove formed on the another portion and in a size corresponding to the speaker hole of the speaker and to which a portion of the speaker around the speaker hole is inserted and coupled.
A method for brazing a metal part (11, 12) onto a surface of a zirconia component, comprising the steps of: - altering the surface state of the component to permit the attachment of a first metallization layer, - cleaning the component to eliminate the impurities from its surface, - depositing a first metallization layer, consisting mainly of titanium, on the surface of the component, - depositing a second metallization layer, consisting mainly of niobium, on the first metallization layer, - applying the part against the second metallization layer, - depositing a gold brazing metal on the part and the second metallization layer, and - cooling the brazed area in a temperature-controlled manner, - stress-relieving heat treatment being performed under load on the metal part before brazing. - altering the surface state of the component to permit the attachment of a first metallization layer, - cleaning the component to eliminate the impurities from its surface, - depositing a first metallization layer, consisting mainly of titanium, on the surface of the component, - depositing a second metallization layer, consisting mainly of niobium, on the first metallization layer, - applying the part against the second metallization layer, - depositing a gold brazing metal on the part and the second metallization layer, and - cooling the brazed area in a temperature-controlled manner, - stress-relieving heat treatment being performed under load on the metal part before brazing.
An implant catheter for heart valve repair which comprises: an outer jacket; one or more layers (5708, 6006, 6010) positioned inside the outer jacket; a reinforcement layer positioned inside the outer jacket; and a first leakage shield located adjacent to the reinforcement layer and situated between the reinforcement layer and the outer jacket; wherein at least one of the outer jacket and the one or more of the layers are reflowed to bond the jacket, the reinforcement layer, and the one or more layers (5708, 6006, 6010) together; wherein a portion of the reinforcement layer is free from all material of the outer jacket and the one or more layers (5708, 6006, 6010) that are reflowed; and wherein the first leakage shield prevents material of the outer jacket and the one or more layers (5708, 6006, 6010) that are reflowed from contacting the portion of the reinforcement layer. an outer jacket; one or more layers (5708, 6006, 6010) positioned inside the outer jacket; a reinforcement layer positioned inside the outer jacket; and a first leakage shield located adjacent to the reinforcement layer and situated between the reinforcement layer and the outer jacket; wherein at least one of the outer jacket and the one or more of the layers are reflowed to bond the jacket, the reinforcement layer, and the one or more layers (5708, 6006, 6010) together; wherein a portion of the reinforcement layer is free from all material of the outer jacket and the one or more layers (5708, 6006, 6010) that are reflowed; and wherein the first leakage shield prevents material of the outer jacket and the one or more layers (5708, 6006, 6010) that are reflowed from contacting the portion of the reinforcement layer.
A rechargeable battery comprising an electrode assembly, a collector plate connecting the electrode assembly to a terminal of the battery, the electrode assembly comprising an electrode, wherein the electrode is welded directly to the collector plate, wherein the rechargeable battery further comprises a light absorbing member that is coupled to the electrode and that is in close contact with the collector plate, and wherein the collector plate has a width extending perpendicular to a lengthwise direction of the electrode assembly, wherein the collector plate is welded to the electrode assembly and contacts the light absorbing member across the width, characterized in that the light absorbing member is an electrical insulator.