mhurhangee/ep-ind-claims huggingface dataset:
Safety fitting for integration into a fluid line with a housing having a straight passage, wherein the housing has two pipe sockets (3, 4) and a widened section between the two pipe sockets (3, 4), wherein the housing is provided with sealing seats for a blocking body that is arranged in the widened section and is clamped on both sides by springs in a neutral centre position as the open position of the safety fitting, and wherein the blocking body is held in the open position by at least one unit that acts transversally to its direction of movement, characterised in that the unit is a latching unit, wherein the latching unit comprises a latching member on which a latching force is applied that, in the mounting position, is adjustable from outside the safety fitting.
A radio communication terminal apparatus comprising: a determining section, which, when the radio communication terminal apparatus is in idle and multi-tracking area registration state, is adapted to determine whether or not a currently connected radio communication base station apparatus is a femto cell base station; and a radio transmitting/receiving section adapted to transmit a position management area update request signal that requests single tracking area registration when the currently connected radio communication base station apparatus is determined to be a femto cell base station and the first call connection request signal is transmitted. a determining section, which, when the radio communication terminal apparatus is in idle and multi-tracking area registration state, is adapted to determine whether or not a currently connected radio communication base station apparatus is a femto cell base station; and a radio transmitting/receiving section adapted to transmit a position management area update request signal that requests single tracking area registration when the currently connected radio communication base station apparatus is determined to be a femto cell base station and the first call connection request signal is transmitted.
A method for the measurement of a three-dimensional temperature field of a liquid in a container, in particular of cryogenic liquids, characterised in that by means of electrical capacitance tomography a local liquid density ( ρ) is determined from the dielectric constant for the saturated state and the local temperature is derived on the basis of the local liquid density ( ρ) and a local liquid pressure (p).
A method of processing telephony sessions of a network including an application server and a call router, the method comprising the steps of: • the call router mapping an incoming telephony session to a Uniform Resource Identifier - URI -, wherein the URI is associated with the application server; • the call router embedding state information of the telephony session in a request and sending the request to the application server associated with the URI mapped to the incoming telephony communication; • the call router receiving a response from the application server; wherein the response contains the telephony instructions; • the call router processing the telephony instructions into executable operations during the telephony session, wherein at least two of the telephony instructions are processed sequentially; • the call router creating call router resources accessible through a call router Application Programming Interface -API, wherein the call router resources are accessible by outside devices at an addressable URI; • storing state information in a URI of a call router resource; • modifying call router resources to alter the state of the call router; and • interacting with media of the call router according to the call router API. • the call router mapping an incoming telephony session to a Uniform Resource Identifier - URI -, wherein the URI is associated with the application server; • the call router embedding state information of the telephony session in a request and sending the request to the application server associated with the URI mapped to the incoming telephony communication; • the call router receiving a response from the application server; wherein the response contains the telephony instructions; • the call router processing the telephony instructions into executable operations during the telephony session, wherein at least two of the telephony instructions are processed sequentially; • the call router creating call router resources accessible through a call router Application Programming Interface -API, wherein the call router resources are accessible by outside devices at an addressable URI; • storing state information in a URI of a call router resource; • modifying call router resources to alter the state of the call router; and • interacting with media of the call router according to the call router API.
A method comprising: acquiring images of a hole in a first object from multiple lighting angles; and processing the images to identify shadows cast by a wall of the hole at each of the lighting angles; characterized by analyzing the shadows to determine an orientation of a central axis of the hole in a coordinate system of the first object; at a second object, selecting a location to drill that will be aligned with the central axis of the hole of the first object; and drilling the second object at the location. acquiring images of a hole in a first object from multiple lighting angles; and processing the images to identify shadows cast by a wall of the hole at each of the lighting angles; characterized by analyzing the shadows to determine an orientation of a central axis of the hole in a coordinate system of the first object; at a second object, selecting a location to drill that will be aligned with the central axis of the hole of the first object; and drilling the second object at the location.
A galvanic cell type oxygen sensor, comprising a positive electrode, a negative electrode, an electrolyte solution, and a first oxygen permeable membrane, wherein the concentration of oxygen detected before ordinary use of the sensor is controlled into the range between 0.1% by volume or more and 4.0% by volume or less, wherein the control is made through a second oxygen permeable membrane that is arranged oppositely to the first oxygen permeable membrane to interpose a space therebetween, and that restricts the permeation amount of oxygen into the space.
A thermoplastic composition comprising: A) 65 to 85 weight percent of an aliphatic polyamide selected from poly(hexamethylene dodecanediamide), poly(hexamethylene tetradecanediamide), poly(hexamethylene hexadecanediamide), or any combination thereof; B) 15 to 35 weight percent of a polyhydroxy polymer selected from ethylene/vinyl alcohol copolymer, poly(vinyl alcohol), or a combination thereof, said polyhydroxy polymer having a melt index of from 0.5 to 30 gms/10 min; wherein the elongation at break of the thermoplastic composition after exposure to a 50/50 water/ethylene glycol mixture at 130°C for 1000 hrs. is at least 300 percent greater than the elongation at break of the same thermoplastic composition in the absence of component; and wherein weight percent is based on the sum of component and. A) 65 to 85 weight percent of an aliphatic polyamide selected from poly(hexamethylene dodecanediamide), poly(hexamethylene tetradecanediamide), poly(hexamethylene hexadecanediamide), or any combination thereof; B) 15 to 35 weight percent of a polyhydroxy polymer selected from ethylene/vinyl alcohol copolymer, poly(vinyl alcohol), or a combination thereof, said polyhydroxy polymer having a melt index of from 0.5 to 30 gms/10 min;
A method of receiving, by a base station, a user equipment, UE, identity, ID, in a wireless communication system, the method comprising: transmitting, to a mobility management entity, MME, uplink data and release assistance information transmitted by a UE, wherein the release assistance information informs that transmission of a downlink data subsequent to the uplink data transmission is expected; and when the MME does not receive the downlink data from a serving gateway, S-GW: i) receiving the UE ID from the MME, based on the release assistance information; and ii) performing S1 release procedure; and when the MME receives the downlink data from the S-GW: i) receiving the downlink data from the MME; ii) transmitting the downlink data to the UE; and iii) performing the S1 release procedure. transmitting, to a mobility management entity, MME, uplink data and release assistance information transmitted by a UE, wherein the release assistance information informs that transmission of a downlink data subsequent to the uplink data transmission is expected; and when the MME does not receive the downlink data from a serving gateway, S-GW: i) receiving the UE ID from the MME, based on the release assistance information; and ii) performing S1 release procedure; and when the MME receives the downlink data from the S-GW: i) receiving the downlink data from the MME; ii) transmitting the downlink data to the UE; and iii) performing the S1 release procedure.
A method for wireless networking comprising one or more base stations, BS, with N_bs antennas; two or more small cells, SC, in the range of a BS where a SC has N_sc antennas, uses N_sc1≤N_sc antennas for communication with a BS and uses N_sc2≤N_sc antennas for communication with one or more user equipments, UE; at the same time a BS transmitting downlink, DL, signals to K SCs using multi-user transmit beamforming, BF, in a frequency channel where K>1 and N_bs≥KN_sc1, an SC simultaneously transmitting DL signals to one or more UEs in its range using the same frequency channel; and, at the same time a BS receiving up link, UL, signals from K SCs using multi-user receive BF in a frequency channel where K>1 and N_bs≥KN_sc1, an SC simultaneously receiving UL signals from one or more UEs in its range using the same frequency channel.
Computer-implemented method for generating computer program code from an initial model (M) by means of a code generator, comprising the steps of: - converting the initial model (M) into a start model (M) by means of a first transformation (T), - converting the start model (M) into at least one intermediate model (M... M(n-2)) by means of at least one intermediate transformation (T... T(n-3)), - converting of the last intermediate model (M(n-2)) into an end model (M(n-1)) by means of a penultimate transformation (T(n-2)), - converting the end model (M(n-1)) into a code model (M(n)) comprising a code file by means of a last transformation (T(n-1)), - wherein the intermediate transformations (T... T(n-3)) are specified by the code generator, wherein the code generator is executed within a runtime environment, wherein the initial model (M) is transmitted at the beginning of the method by a generator client to the runtime environment, wherein the code model (M(n)) is transmitted towards the end of the method by the runtime environment to the generator client, wherein the runtime environment monitors the work of the code generator, wherein each transformation is performed by a corresponding transformation module, and wherein the code generator comprises a definition of the transformation modules used by it and the order of their execution, characterized in that the code generator is selected from a plurality of available code generators by a software developer such that the code model (M(n)) corresponds to a desired programming language. - converting the initial model (M) into a start model (M) by means of a first transformation (T), - converting the start model (M) into at least one intermediate model (M... M(n-2)) by means of at least one intermediate transformation (T... T(n-3)), - converting of the last intermediate model (M(n-2)) into an end model (M(n-1)) by means of a penultimate transformation (T(n-2)), - converting the end model (M(n-1)) into a code model (M(n)) comprising a code file by means of a last transformation (T(n-1)), - wherein the intermediate transformations (T... T(n-3)) are specified by the code generator,
A powertrain (10,110,210) having an internal combustion engine (11,211) with a predetermined number of cylinders with a first operating state, in which all cylinders are operated, and a second operating state, in which some of the cylinders are switched off, and having a torsional vibration damping device (12,112,212) with at least one torsional vibration damper (15,19,115,119,215,219,319) and with at least one centrifugal pendulum (20,120,220,320), wherein the centrifugal pendulum (20,120,220,320) is tuned to a torsional vibration behaviour of the first operating state and to the torsional vibration behaviour of the second operating state, characterised in that the centrifugal pendulum (20,120,220,320) is matched to the main exciter order of the internal combustion engine (11,211) in the first operating state and to the double main exciter order of the internal combustion engine (11,211) in the first operating state.
A motorcycle with an arrangement structure of a gaseous fuel filling port, including on a body: a fuel tank to be filled with hydrogen gas supplied through a filling nozzle inserted into a fuel filling port, a fuel cell for generating electric power via the hydrogen gas to be supplied from the fuel tank; and a drive motor for generating power to be supplied to a drive wheel from the electric power generated by the fuel cell, characterized in the arrangement structure comprising: a center stand for supporting the body in an upright posture, the center stand includes a main support provided with respectively right-hand and left-hand pads designed to rest on the ground surface and a sub support extending rightward at the right-hand support pad; and a side stand for supporting the body in an inclined and erect posture; wherein the fuel filling port is inclined at a predetermined angle with respect to a vertical line, in a vertical direction with respect to a motorcycle lengthwise direction, the fuel filling port being oriented upward and leftward of the motorcycle, such that the filling nozzle is inserted slantwise from above when the body is supported in the upright posture by the center stand. a center stand for supporting the body in an upright posture, the center stand includes a main support provided with respectively right-hand and left-hand pads designed to rest on the ground surface and a sub support extending rightward at the right-hand support pad; and a side stand for supporting the body in an inclined and erect posture; wherein the fuel filling port is inclined at a predetermined angle with respect to a vertical line, in a vertical direction with respect to a motorcycle lengthwise direction, the fuel filling port being oriented upward and leftward of the motorcycle, such that the filling nozzle is inserted slantwise from above when the body is supported in the upright posture by the center stand.
A method for three-dimensional tracking of a target located within a body, the method performed by at least one processing system, and comprising the steps of: processing a two-dimensional scanned image of the body including the target to obtain a two-dimensional image of the target, wherein the two-dimensional scanned image is acquired from a scanning device; predicting a first present dataset of the target by using a previous dataset of the target and a state transition model, wherein the first present dataset includes at least a three-dimensional present position value of the target, and wherein the previous dataset includes at least a three-dimensional previous position value of the target; measuring a second present dataset of the target by template-matching of the two-dimensional image of the target with a model of the target, wherein the second present dataset includes at least a two-dimensional present position value of the target; estimating a third present dataset of the target by statistical inference using the first present dataset and the second present dataset, wherein the third present dataset includes at least a three-dimensional present position value of the target; and updating the previous dataset of the target to match the third present dataset. processing a two-dimensional scanned image of the body including the target to obtain a two-dimensional image of the target, wherein the two-dimensional scanned image is acquired from a scanning device; predicting a first present dataset of the target by using a previous dataset of the target and a state transition model, wherein the first present dataset includes at least a three-dimensional present position value of the target, and wherein the previous dataset includes at least a three-dimensional previous position value of the target; measuring a second present dataset of the target by template-matching of the two-dimensional image of the target with a model of the target, wherein the second present dataset includes at least a two-dimensional present position value of the target; estimating a third present dataset of the target by statistical inference using the first present dataset and the second present dataset, wherein the third present dataset includes at least a three-dimensional present position value of the target; and updating the previous dataset of the target to match the third present dataset.
An information processing system comprising: a processor capable of executing native instruction codes; a program memory for storing a program comprising native instruction codes at least part of which are stored in the form of compressed instruction codes; an instruction code conversion unit connected to said processor and said program memory, reading out said compressed instruction code from said program memory, converting said compressed instruction code to corresponding said native instruction codes, transferring said native instruction codes to said processor, converting the address as outputted from said processor for fetching native instruction codes which are stored in the program memory in the form of compressed instruction codes to the addresses of said compressed instruction code respectively corresponding to the native instruction codes to be fetched, and providing the addresses of said compressed instruction codes to said program memory, wherein said instruction code conversion unit performs conversion of the address of said native instruction code to the address of the corresponding compressed instruction code, which is stored in the program memory in the form of a compressed instruction code, by shifting said address to the right by n bit. a processor capable of executing native instruction codes; a program memory for storing a program comprising native instruction codes at least part of which are stored in the form of compressed instruction codes; an instruction code conversion unit connected to said processor and said program memory, reading out said compressed instruction code from said program memory, converting said compressed instruction code to corresponding said native instruction codes, transferring said native instruction codes to said processor, converting the address as outputted from said processor for fetching native instruction codes which are stored in the program memory in the form of compressed instruction codes to the addresses of said compressed instruction code respectively corresponding to the native instruction codes to be fetched, and providing the addresses of said compressed instruction codes to said program memory, wherein said instruction code conversion unit performs conversion of the address of said native instruction code to the address of the corresponding compressed instruction code, which is stored in the program memory in the form of a compressed instruction code, by shifting said address to the right by n bit.
A pump motor, with a motor housing, a pump head and a containment shell, wherein the pump head with the containment shell defines a wet chamber and the containment shell with the motor housing defines a dry chamber, a permanent-magnet rotor is mounted rotatably about an axis in the wet chamber, a wound stator and a printed circuit board are arranged in the dry chamber and the printed circuit board lies opposite a containment shell base, characterised in that the containment shell base has depressions on a side located opposite the printed circuit board and projections on an opposing side.
A cartridged projectile comprising: a cartridge case comprising a hollow cylindrical shell extending from a base; wherein said base comprises a high pressure chamber formed therein; a threaded hole in communication with the high pressure chamber, with said threaded hole opening into a low pressure chamber defined by an interior of said cartridge case and a rear end of a projectile seated at a mouth of said cartridge case; and a shoulder between the high pressure chamber and the threaded hole; a nozzle ring with an inner surface comprising a tapered or conical bore, with the narrower end of said tapered bore opening into a discharge hole, said nozzle ring being seated in said threaded hole and said discharge hole opening into said low pressure chamber; and a pressure disc disposed between said shoulder and said nozzle ring, with a surface of said pressure disc facing the tapered bore being scribed with intersecting V-shaped cross-sectional grooves. a cartridge case comprising a hollow cylindrical shell extending from a base; wherein said base comprises a high pressure chamber formed therein; a threaded hole in communication with the high pressure chamber, with said threaded hole opening into a low pressure chamber defined by an interior of said cartridge case and a rear end of a projectile seated at a mouth of said cartridge case; and a shoulder between the high pressure chamber and the threaded hole; a nozzle ring with an inner surface comprising a tapered or conical bore, with the narrower end of said tapered bore opening into a discharge hole, said nozzle ring being seated in said threaded hole and said discharge hole opening into said low pressure chamber; and a pressure disc disposed between said shoulder and said nozzle ring, with a surface of said pressure disc facing the tapered bore being scribed with intersecting V-shaped cross-sectional grooves.
A laminate where a carbon nanotube-containing layer comprising at least carbon nanotube and resin is laminated above a substrate, and a clear layer is further laminated above a surface laminated with the carbon nanotube-containing layer, wherein the laminate has L* being equal to or less than 2.5, a* being in a range of -2 to 2, and b* being in a range of -2 to 0.3, each measured from a direction of the laminated surface, the carbon nanotube-containing layer above the substrate is formed by coating, and the clear layer is transparent resin or glass, where L*, a* and b* indicate values in L*a*b* color system specified in JIS Z8729.