mhurhangee/ep-ind-claims huggingface dataset:
Sensing apparatus, comprising: a radiation source, which is configured to emit pulses of optical radiation toward multiple points in a target scene; a receiver, which is configured to receive the optical radiation that is reflected from the target scene and to output signals, responsively to the received optical radiation, that are indicative of respective times of flight of the pulses to and from the points in the target scene; and processing and control circuitry (26, 28, 35), which is configured to select a first pulse repetition interval and a second PRI, greater than the first PRI, from a defined range of PRIs, and to drive the radiation source to emit a first sequence of the pulses at the first PRI and a second sequence of the pulses at a second PRI, and to process the signals output by the receiver in response to both the first and second sequences of the pulses in order to compute respective depth coordinates of the points in the target scene, characterized in that the radiation source comprises an array of emitters, which are arranged in multiple banks (62a, 62b, 62c, 62d), and the processing and control circuitry is configured to drive the multiple banks sequentially so that each bank emits respective first and second sequences of the pulses at the first and second PRIs. a radiation source, which is configured to emit pulses of optical radiation toward multiple points in a target scene; a receiver, which is configured to receive the optical radiation that is reflected from the target scene and to output signals, responsively to the received optical radiation, that are indicative of respective times of flight of the pulses to and from the points in the target scene; and processing and control circuitry (26, 28, 35), which is configured to select a first pulse repetition interval and a second PRI, greater than the first PRI, from a defined range of PRIs, and to drive the radiation source to emit a first sequence of the pulses at the first PRI and a second sequence of the pulses at a second PRI, and to process the signals output by the receiver in response to both the first and second sequences of the pulses in order to compute respective depth coordinates of the points in the target scene, characterized in that the radiation source comprises an array of emitters, which are arranged in multiple banks (62a, 62b, 62c, 62d), and the processing and control circuitry is configured to drive the multiple banks sequentially so that each bank emits respective first and second sequences of the pulses at the first and second PRIs.
A method for the grinding finish machining of an already toothed gearwheel workpiece in an NC-controlled machine tool, comprising the following steps: a. providing the gearwheel workpiece in the machine tool, b. providing a first grinding tool in the machine tool, c. providing a second grinding tool in the machine tool, d. grinding machining of at least one tooth flank of the gearwheel workpiece using the first grinding tool in the machine tool, e. grinding machining of at least one tooth flank (16.r, 16.1) in the transition region to the tooth head (15.r, 15.1) of the gearwheel workpiece using the second grinding tool in the machine tool to generate a head edge rounding (12.r, 12.1) on the gearwheel workpiece, characterized in that, after grinding machining of the head edge rounding (12.r, 12.1) of step e.: f. further grinding machining of at least one tooth flank (16.r, 16.1) of the gearwheel workpiece using the first grinding tool and/or the second grinding tool in the machine tool. a. providing the gearwheel workpiece in the machine tool, b. providing a first grinding tool in the machine tool, c. providing a second grinding tool in the machine tool, d. grinding machining of at least one tooth flank of the gearwheel workpiece using the first grinding tool in the machine tool, e. grinding machining of at least one tooth flank (16.r, 16.1) in the transition region to the tooth head (15.r, 15.1) of the gearwheel workpiece using the second grinding tool in the machine tool to generate a head edge rounding (12.r, 12.1) on the gearwheel workpiece, characterized in that, after grinding machining of the head edge rounding (12.r, 12.1) of step e.: f. further grinding machining of at least one tooth flank (16.r, 16.1) of the gearwheel workpiece using the first grinding tool and/or the second grinding tool in the machine tool.
A method of supporting location services and positioning, comprising: receiving a positioning request message, carrying a network positioning request message, at a Mobility Management Entity, MME, from a Location Server, LS, via an interface between the MME and the LS, wherein the positioning request message includes a network positioning request message for forwarding to an evolved Node B, eNB, wherein the network positioning request message is for a first protocol and is encapsulated in the positioning request message which is for a second protocol, wherein the first protocol is above the second protocol, and wherein the second protocol is a Location Services Application Protocol, LCS-AP; obtaining, at the MME, from the eNB, a network positioning response message including location information for a user equipment, UE, in response to the positioning request message; and sending a positioning response message carrying the location information from the MME to the LS via the interface between the MME and the LS, wherein the positioning response message is for the second protocol and wherein the network positioning response message for the first protocol is encapsulated within the positioning response message. receiving a positioning request message, carrying a network positioning request message, at a Mobility Management Entity, MME, from a Location Server, LS, via an interface between the MME and the LS, wherein the positioning request message includes a network positioning request message for forwarding to an evolved Node B, eNB, wherein the network positioning request message is for a first protocol and is encapsulated in the positioning request message which is for a second protocol, wherein the first protocol is above the second protocol, and wherein the second protocol is a Location Services Application Protocol, LCS-AP; obtaining, at the MME, from the eNB, a network positioning response message including location information for a user equipment, UE, in response to the positioning request message; and sending a positioning response message carrying the location information from the MME to the LS via the interface between the MME and the LS, wherein the positioning response message is for the second protocol and wherein the network positioning response message for the first protocol is encapsulated within the positioning response message.
Use of a branched polyester having an average of at least 2.8 terminal groups as additive for a curable pre-polymer composition, wherein the branched polyester acts as de-foaming agent.
A sheath for gastrostoma comprising: a cylindrical sheath body in which a gastrostomy catheter can be inserted; a handle provided to protrude at one longitudinal end of the sheath body; and a lid which is provided in the handle via a lid hinge section and disposed in an inner path which is a through-hole defined in the sheath body, wherein the handle is provided pivotably at the base end which is an end at the side of the handle of the sheath body via a hinge section other than the lid hinge section; and the lid is disposed in its closed position at which the lid closes the inner path and is able to open and close the inner path of the sheath body through pivotation about the lid hinge section. a cylindrical sheath body in which a gastrostomy catheter can be inserted; a handle provided to protrude at one longitudinal end of the sheath body; and a lid which is provided in the handle via a lid hinge section and disposed in an inner path which is a through-hole defined in the sheath body,
A method of recognizing obstacles by at least one acceleraction sensor and an evaluation unit on operation of a vibratory pile driver in which acceleration signals of the vibratory pile driver are detected, characterized by the steps: analyzing the acceleration signals over a time period t, with the actual acceleration, the speed and/or the distance being considered as the signal, with the analyzing of the acceleration signals comprising the comparison of negative and positive half-waves, and with measured values such as the area, amplitude, or shape being calculated from said half-waves.
Method for handling material in a pneumatic pipe transport system, in which material, such as waste material, is input from an input aperture of an input point, and is handled with a press device, arranged in connection with an input point or in the proximity of it, and is transferred onwards in a transfer piping, which press device is a rotary press having ring-like handling means (10A, 10B, 10C) with rotatable ring-like handling means (10A, 10C) and a stationary ring-like handling means, the ring-like handling means comprising an aperture (11A, 11B, 11C) arranged eccentrically with respect to an axis of rotation of the rotatable ring-like handling means (10A, 10C), characterized in that the method comprising: conducting the material to be handled into the rotary press and through the ring-like handling means (10A, 10B, 10C) of the rotary press at least partly by means of suction and/or a pressure difference of the pneumatic pipe transport system, and compacting and compressing the material with the rotatable ring-like handling means (10A, 10C) together with the stationary ring-like handling means, and changing the direction of rotation of the rotatable ring-like handling means (10A, 10C) to cut the material. conducting the material to be handled into the rotary press and through the ring-like handling means (10A, 10B, 10C) of the rotary press at least partly by means of suction and/or a pressure difference of the pneumatic pipe transport system, and compacting and compressing the material with the rotatable ring-like handling means (10A, 10C) together with the stationary ring-like handling means, and changing the direction of rotation of the rotatable ring-like handling means (10A, 10C) to cut the material.
An image sensor comprising: a biometric information acquisition unit configured to acquire biometric information; a storage unit configured to store reference information to be compared with the biometric information; a biometric authentication unit configured to perform biometric authentication by comparing the biometric information with the reference information; and characterized by a living organism determination unit configured to determine whether or not the biometric information is information acquired from a living organism by measuring a dilation/contraction of a pupil or a reflectance of the living organism. a biometric information acquisition unit configured to acquire biometric information; a storage unit configured to store reference information to be compared with the biometric information; a biometric authentication unit configured to perform biometric authentication by comparing the biometric information with the reference information; and characterized by a living organism determination unit configured to determine whether or not the biometric information is information acquired from a living organism by measuring a dilation/contraction of a pupil or a reflectance of the living organism.
Flexible composite material comprising the following layers: a support layer selected from the following list: fabric, knitted fabric, nonwoven fabric, foam, or mixtures thereof; an intermediate layer of polyvinyl chloride, PVC, containing a plurality of sublayers; a compact layer of thermoplastic polyurethane, TPU, containing a plurality of sublayers; wherein the TPU compact layer comprises: 0.4 - 70% w/w of an aromatic TPU; 0.2 - 35% w/w of an aliphatic TPU; wherein the TPU sublayer of the TPU compact layer in contact with the intermediate layer of PVC is an aliphatic TPU. a support layer selected from the following list: fabric, knitted fabric, nonwoven fabric, foam, or mixtures thereof; an intermediate layer of polyvinyl chloride, PVC, containing a plurality of sublayers; a compact layer of thermoplastic polyurethane, TPU, containing a plurality of sublayers; wherein the TPU compact layer comprises: 0.4 - 70% w/w of an aromatic TPU; 0.2 - 35% w/w of an aliphatic TPU; wherein the TPU sublayer of the TPU compact layer in contact with the intermediate layer of PVC is an aliphatic TPU. 0.4 - 70% w/w of an aromatic TPU; 0.2 - 35% w/w of an aliphatic TPU; wherein the TPU sublayer of the TPU compact layer in contact with the intermediate layer of PVC is an aliphatic TPU.
A shell comprising: a metal shell body; a plastic part made of a resin; and an oxide layer formed between the metal body and the plastic part, joining the plastic part to the metal shell body, wherein the oxide layer contains corrosion pores having an average pore size of about 200nm to about 2000nm in the surface contacting the plastic part, wherein the corrosion pores are formed by an etching solution having a pH of about 10 to about 13, and the etching solution is an aqueous solution consisting of at least one selected from a group consisting of Na 2 CO 3, NaHCO 3, NaOH, K 2 CO 3, KHCO 3, KOH, NaH 2 PO 4, Na 2 HPO 4, Al(H 2 PO 4) 3,Na 3 PO 4, Na 2 SO 3 or Na 2 B 4 O 7, NaOH-NaHPO 4, KOH-K 2 HPO 4, Na 3 PO 4 -Na 2 HPO 4 or K 3 PO 4 -Na 2 HPO 4, and nanopores having a pore size of about 10 to 100nm in the surface contacting the metal shell body; and a part of the resin is filled in the nanopores and corrosion pores. a metal shell body; a plastic part made of a resin; and an oxide layer formed between the metal body and the plastic part, joining the plastic part to the metal shell body, wherein the oxide layer contains corrosion pores having an average pore size of about 200nm to about 2000nm in the surface contacting the plastic part, wherein the corrosion pores are formed by an etching solution having a pH of about 10 to about 13, and the etching solution is an aqueous solution consisting of at least one selected from a group consisting of Na 2 CO 3, NaHCO 3, NaOH, K 2 CO 3, KHCO 3, KOH, NaH 2 PO 4, Na 2 HPO 4, Al(H 2 PO 4) 3,Na 3 PO 4, Na 2 SO 3 or Na 2 B 4 O 7, NaOH-NaHPO 4, KOH-K 2 HPO 4, Na 3 PO 4 -Na 2 HPO 4 or K 3 PO 4 -Na 2 HPO 4, and nanopores having a pore size of about 10 to 100nm in the surface contacting the metal shell body; and a part of the resin is filled in the nanopores and corrosion pores.
A method for manufacturing a Si-containing high-strength cold rolled steel sheet having a tensile strength TS of not less than 780 MPa, wherein a metallic structure of the steel sheet surface contains 30-70 volume% polygonal ferrite and/or bainitic ferrite having a Si concentration of not more than 3.0 mass% and a grain size of not more than 10 μm and does not have a Si-containing oxide layer on the steel sheet surface, the method comprising subjecting a steel slab having a chemical composition consisting of C: 0.02-0.3 mass%, Si: 0.8-2.0 mass%, Mn: 1.0-5.0 mass%, and optionally further including P: not more than 0.05 mass%, S: not more than 0.01 mass%, Al: not more than 0.06 mass%, Nb: not more than 0.3 mass%, Ti: not more than 0.3 mass%, V: not more than 0.3 mass%, Mo: not more than 0.3 mass%, Cr: not more than 0.5 mass%, B: not more than 0.006 mass%, N: not more than 0.008 mass%, Cu: not more than 0.1 mass% and Ni: not more than 0.1 mass%, and the remainder being Fe and inevitable impurities with a ratio of Si content to Mn content (Si/Mn) exceeding 0.4 to hot rolling at a finish rolling end temperature of 850-940°C and a coiling temperature of 400-570°C, cold rolling, continuous annealing, wherein a cooling stop temperature in the cooling after soaking annealing conducted at a temperature in a range of 780°C to 830°C is higher than 300°C, and then pickling to remove a Si-containing oxide layer from the surface of the steel sheet.
A method for extrusion blow molding a toothbrush handle comprising: a) providing an extrusion blow mold having a longitudinal axis and a cavity, the cavity having a surface that defines a cross-sectional area (EC CA); wherein the cavity has at least one of a maximum cross-sectional area (EC CAM), bordered by two smaller cross-sectional areas (EC CA1, EC CA2) along the longitudinal axis of the blow mold or a minimum cross sectional area (EC CAMN) bordered by two greater cross-sectional areas (EC CA3, EC CA4) along the longitudinal axis of the blow mold; b) extruding a parison comprising a thermoplastic material, the parison includes an interior cavity and an outer surface, wherein the outer surface defines a cross-sectional area (PA CA) of the parison; c) expanding the parison using a fluid to contact the cavity surface and produce a toothbrush handle having an inner cavity, wherein the extrusion mold includes a label (LI; L2; L3) prior to extrusion of the parison, the label being a TPE label. a) providing an extrusion blow mold having a longitudinal axis and a cavity, the cavity having a surface that defines a cross-sectional area (EC CA); wherein the cavity has at least one of a maximum cross-sectional area (EC CAM), bordered by two smaller cross-sectional areas (EC CA1, EC CA2) along the longitudinal axis of the blow mold or a minimum cross sectional area (EC CAMN) bordered by two greater cross-sectional areas (EC CA3, EC CA4) along the longitudinal axis of the blow mold; b) extruding a parison comprising a thermoplastic material, the parison includes an interior cavity and an outer surface, wherein the outer surface defines a cross-sectional area (PA CA) of the parison; c) expanding the parison using a fluid to contact the cavity surface and produce a toothbrush handle having an inner cavity,
A swallowable in-vivo device comprising: - a shell formed with at least one inlet extending across a shell wall between an inner surface and outer surface thereof, and configured for allowing ingress of fluid at least into said shell, said shell accommodating therein: - a lateral flow, LF, arrangement configured for absorbing said fluid, said LF arrangement comprising a test zone configured for coming into contact, in-vivo, with a predetermined substance present in said fluid or a compound comprising said substance, thereby causing a change in at least one property of said test zone; - a sensor (850, 950) configured for sensing, in-vivo, said at least one property, at least when changed by interaction with said fluid; wherein said LF arrangement is positioned within the shell such that it has at least one curved segment (290, 292), and at least one exposure portion juxtaposed with said at least one inlet, configured for absorbing at least some of said fluid passing through said at least one inlet into the shell; and wherein at least one of the ends (204, 206) of the shell is curved; characterised in that a curvature (R1, R2) of said curved segment (290, 292) of said LF arrangement corresponds to that of said at least one end (204, 206) of the shell. - a shell formed with at least one inlet extending across a shell wall between an inner surface and outer surface thereof, and configured for allowing ingress of fluid at least into said shell, said shell accommodating therein: - a lateral flow, LF, arrangement configured for absorbing said fluid, said LF arrangement comprising a test zone configured for coming into contact, in-vivo, with a predetermined substance present in said fluid or a compound comprising said substance, thereby causing a change in at least one property of said test zone; - a sensor (850, 950) configured for sensing, in-vivo, said at least one property, at least when changed by interaction with said fluid; wherein said LF arrangement is positioned within the shell such that it has at least one curved segment (290, 292), and at least one exposure portion juxtaposed with said at least one inlet, configured for absorbing at least some of said fluid passing through said at least one inlet into the shell; and wherein at least one of the ends (204, 206) of the shell is curved; characterised in that a curvature (R1, R2) of said curved segment (290, 292) of said LF arrangement corresponds to that of said at least one end (204, 206) of the shell.
A method of correcting surge control parameters of a dynamic compressor comprising: providing a dynamic compressor having a compressor with a gas inlet and a gas outlet, a compressor driver connected to the compressor, a surge valve fluidly connected between the gas inlet and the gas outlet of the compressor, and a control system in electric communication with the compressor; establishing surge control parameters with the control system, wherein the surge control parameters include a surge detector line, a surge limit line, a surge preventer line, and a surge control line; detecting the onset of a surge in the dynamic compressor with the control system based on the established surge control parameters, and a compressor dynamic operating point; measuring variables of the dynamic compressor with the control system at the time the onset of the surge is detected; and automatically correcting the surge control parameters based upon the variables measured at the time the onset of the surge is detected. providing a dynamic compressor having a compressor with a gas inlet and a gas outlet, a compressor driver connected to the compressor, a surge valve fluidly connected between the gas inlet and the gas outlet of the compressor, and a control system in electric communication with the compressor; establishing surge control parameters with the control system, wherein the surge control parameters include a surge detector line, a surge limit line, a surge preventer line, and a surge control line; detecting the onset of a surge in the dynamic compressor with the control system based on the established surge control parameters, and a compressor dynamic operating point; measuring variables of the dynamic compressor with the control system at the time the onset of the surge is detected; and automatically correcting the surge control parameters based upon the variables measured at the time the onset of the surge is detected.
An apparatus comprising means for: performing beam-specific measurements of a plurality of beams of at least one cell; filtering the beam-specific measurements, wherein the filtering of the beam-specific measurements is a layer 1 filtering or a physical layer filtering; applying a selection function to the filtered beam-specific measurements, wherein the selection function comprises at least one of an average of more than one best reference signal received power based on the filtered beam-specific measurements or cell specific weighting; determining a cell level quality based on at least one result of the applying of the selection function; additionally filtering, at a higher layer, based on the determination of the cell level quality; and obtaining a cell-specific quality value based on the additional filtering at the higher layer. performing beam-specific measurements of a plurality of beams of at least one cell; filtering the beam-specific measurements, wherein the filtering of the beam-specific measurements is a layer 1 filtering or a physical layer filtering; applying a selection function to the filtered beam-specific measurements, wherein the selection function comprises at least one of an average of more than one best reference signal received power based on the filtered beam-specific measurements or cell specific weighting; determining a cell level quality based on at least one result of the applying of the selection function; additionally filtering, at a higher layer, based on the determination of the cell level quality; and obtaining a cell-specific quality value based on the additional filtering at the higher layer.