mhurhangee/patent-ind-claim-en huggingface dataset:
A co-rotating twin screw extruder for forming fragments comprising an intake zone for receiving one or more excipient(s) suitable for oral dosage or one or more excipient(s) suitable for oral dosage along with one or more active pharmaceutical ingredient(s); a melt zone for softening at least one excipient to form a viscous mass or melt; a fragmenting zone for simultaneous fragmentation and cooling of the viscous mass into cooled fragments; and an extruder outlet for recovering the cooled fragments from the twin screw extruder, characterized in that the fragmenting zone comprises of at least one mixing element having a continuous flight helically formed thereon with a lead 'L', wherein either the flight transforms at least once from an integer lobe flight into a non-integer lobe flight in a fraction of the lead 'L' and transforms back to an integer lobe flight in a fraction of the lead 'L' or the flight transforms at least once from a non-integer lobe flight into an integer lobe flight in a fraction of the lead 'L' and transforms back to a non-integer lobe flight in a fraction of the lead 'L'.
Fuel cell system (100a; 100b; 100c), comprising a fuel cell stack comprising an anode portion and a cathode portion , a reformer for reforming fuel for use in the anode portion of the fuel cell stack , and a fuel tank for supplying the fuel to the reformer , wherein a desulphurisation unit is arranged downstream of the fuel tank and upstream of the reformer and comprises an adsorber for the adsorptive desulphurisation of fuel guided from the fuel tank to the reformer via the desulphurisation unit , characterised in that the adsorber is fluidically connected to the anode and cathode portion and/or an internal combustion engine of the fuel cell system (100a; 100b; 100c) by means of a regeneration fluid line , wherein heated fluid can be conveyed through the regeneration fluid line from the anode and cathode portion and/or from the internal combustion engine to the adsorber .
A stabilizer channel of a compressor, in particular of a radial compressor or diagonal compressor, having an annular stabilizer chamber which surrounds a main flow channel in the intake region of a compressor wheel and is delimited with respect to the main flow channel by an annular web , wherein the annular stabilizer chamber is free of vanes and connected via a downstream inlet channel and an upstream outlet opening , wherein a plurality of flow-guiding elements are arranged in the downstream inlet channel , and wherein the downstream inlet channel is arranged between an upstream part of the annular web and a downstream part of the annular web , characterized in that the upstream part of the annular web comprises a first projection which extends substantially in the radial direction and the downstream part of the annular web comprises a second projection which extends substantially in the radial direction, or that the downstream part of the annular web comprises a second projection which extends substantially in the axial direction.
A method for operating a wireless device, the method comprising: - acquiring a signal by correlating a received signal with a known synchronization symbol; - integrating one or more synchronization symbols in a synchronization field of the signal to determine an initial channel impulse response, CIR, measurement; - detecting whether a start-of-frame delimiter, SFD, field of the signal is identified during integration; and when the SFD field of the signal is identified : - ceasing integration of the one or more synchronization symbols, - scaling the initial CIR measurement, and - determining a final CIR measurement based on the scaled CIR measurement; characterized in that the method further comprises counting a number of the one or more synchronization symbols integrated only until the SFD field has been identified, wherein the scaling comprises dividing the initial CIR measurement by the number of the one or more synchronization symbols integrated. - acquiring a signal by correlating a received signal with a known synchronization symbol; - integrating one or more synchronization symbols in a synchronization field of the signal to determine an initial channel impulse response, CIR, measurement; - detecting whether a start-of-frame delimiter, SFD, field of the signal is identified during integration; and when the SFD field of the signal is identified : - ceasing integration of the one or more synchronization symbols, - scaling the initial CIR measurement, and - determining a final CIR measurement based on the scaled CIR measurement; characterized in that the method further comprises counting a number of the one or more synchronization symbols integrated only until the SFD field has been identified, wherein the scaling comprises dividing the initial CIR measurement by the number of the one or more synchronization symbols integrated. when the SFD field of the signal is identified : - ceasing integration of the one or more synchronization symbols, - scaling the initial CIR measurement, and - determining a final CIR measurement based on the scaled CIR measurement; - ceasing integration of the one or more synchronization symbols, - scaling the initial CIR measurement, and - determining a final CIR measurement based on the scaled CIR measurement; characterized in that the method further comprises counting a number of the one or more synchronization symbols integrated only until the SFD field has been identified, wherein the scaling comprises dividing the initial CIR measurement by the number of the one or more synchronization symbols integrated.
A method for creating a restoration from a digital model of a patient's jaw provided with at least two implants and/or pillars, wherein the model is determined by means of an intraorally created scan , characterised in that a try-in part is produced from the model using CAD/CAM, the dimensional accuracy of the try-in part is checked and corrected if necessary in relation to at least two implants and/or pillars, the try-in part is scanned, and a digital model of the try-in part , corrected if necessary, is generated, which is used to create a restoration produced by means of CAD/CAM, wherein, in order to adapt the try-in part between at least two implants and/or pillars, a separation by means of a separating point occurs, which is connected by subsequent tension-free joining, preferably by casting or gluing.
Cable assembly suitable for applications in high-pressure and/or high-temperature ranges, having a mineral-insulated cable which has at least one inner conductor , wherein the inner conductor has an inner and an outer tubular shield made of metal, characterised in that the cable assembly has a measuring device for obtaining a test signal, which measuring device electrically contacts the inner and the outer shield of the mineral-insulated cable , wherein the measuring device is adapted to measure the electrical resistance, in particular the insulation resistance, between the inner and outer shield , or wherein the measuring device has a charge amplifier (LVp) for measuring charge signals, the signal inputs (s 1 , s 2 ) of which electrically contact the inner and outer shield .
A method for determining a time-domain resource allocation, the method being performed by a system comprising a user equipment, UE, and a base station , the UE being wirelessly connectable to the base station, the method comprising: the UE receiving from the base station a downlink control information, DCI, that schedules a downlink transmission from the base station to the UE; the UE detecting a Radio Network Temporary Identifier, RNTI, used in the base station's scheduling of the downlink transmission; the UE selecting a time-domain resource allocation table from multiple different time-domain resource allocation tables based on the detected RNTI, wherein each of the different time domain resource allocation tables is defined by a plurality of entries that specify different combinations of starting orthogonal frequency division multiplexing, OFDM, symbol and duration in OFDM symbols for a time-domain resource allocation; and the UE determining a time-domain resource allocation for the downlink transmission based on a time-domain resource allocation field in the DCI, the time-domain resource allocation field indicating an entry within the selected time-domain resource allocation table. the UE receiving from the base station a downlink control information, DCI, that schedules a downlink transmission from the base station to the UE; the UE detecting a Radio Network Temporary Identifier, RNTI, used in the base station's scheduling of the downlink transmission; the UE selecting a time-domain resource allocation table from multiple different time-domain resource allocation tables based on the detected RNTI, wherein each of the different time domain resource allocation tables is defined by a plurality of entries that specify different combinations of starting orthogonal frequency division multiplexing, OFDM, symbol and duration in OFDM symbols for a time-domain resource allocation; and the UE determining a time-domain resource allocation for the downlink transmission based on a time-domain resource allocation field in the DCI, the time-domain resource allocation field indicating an entry within the selected time-domain resource allocation table.
A computer implemented method for executing a first program compiled for a source architecture on a machine having a target architecture different from the source architecture, wherein the target architecture uses a different addressing scheme than the source architecture, the method comprising: receiving by a processor said first program comprising first executable code compiled to execute on a source architecture; decompiling a load module of the first program into intermediate computer code formatted according to an intermediate code format; identifying a set of addresses that are exposed for external reference by a second program compiled to execute on the source architecture; storing in a computer memory an index of said addresses that are exposed for external reference, wherein the index values correspond to a range of invalid addresses in the target architecture, wherein each of the addresses are replaced by a corresponding index number in the intermediate code; recompiling the intermediate code into target executable code configured for the target architecture; incorporating the index of said addresses into the target executable code, wherein a linker assigns the entries in the index to addresses of the target architecture that are allocated to the target executable code; and executing said target executable code on a processor having said different target architecture, wherein said executing generates at least one invalid address and said invalid address is translated into a valid address using the incorporated index in the target executable code. receiving by a processor said first program comprising first executable code compiled to execute on a source architecture; decompiling a load module of the first program into intermediate computer code formatted according to an intermediate code format; identifying a set of addresses that are exposed for external reference by a second program compiled to execute on the source architecture; storing in a computer memory an index of said addresses that are exposed for external reference, wherein the index values correspond to a range of invalid addresses in the target architecture, wherein each of the addresses are replaced by a corresponding index number in the intermediate code; recompiling the intermediate code into target executable code configured for the target architecture; incorporating the index of said addresses into the target executable code, wherein a linker assigns the entries in the index to addresses of the target architecture that are allocated to the target executable code; and executing said target executable code on a processor having said different target architecture, wherein said executing generates at least one invalid address and said invalid address is translated into a valid address using the incorporated index in the target executable code.
Device for cooling containers, in particular vials, comprising: at least one first cooling zone for receiving containers, with a cooling zone base and a cooling zone wall , and a cooling device for cooling air, and a first channel for directing the cooled air from the cooling device into the cooling zone , and an orifice of the first channel , which is spaced from the base of the cooling zone, wherein the cooling device comprises a condensate separator for drying the air prior to introduction into the at least one first cooling zone , and wherein the cooling device comprises at least one cooling element , in particular a Peltier element , which is in a thermally conductive connection with the condensate separator on the one hand and with the cooling zone on the other hand characterised in that the condensate separator is connected in a thermally conductive way via a heat pipe (33 1, 332) with water filling with the cooling element . at least one first cooling zone for receiving containers, with a cooling zone base and a cooling zone wall , and a cooling device for cooling air, and a first channel for directing the cooled air from the cooling device into the cooling zone , and an orifice of the first channel , which is spaced from the base of the cooling zone, wherein the cooling device comprises a condensate separator for drying the air prior to introduction into the at least one first cooling zone , and wherein the cooling device comprises at least one cooling element , in particular a Peltier element , which is in a thermally conductive connection with the condensate separator on the one hand and with the cooling zone on the other hand characterised in that the condensate separator is connected in a thermally conductive way via a heat pipe (33 1, 332) with water filling with the cooling element .
Steamer accessory for steam-heating and/or steaming foods in a container , the steamer accessory comprising a water reservoir communicating with the outside via a filling orifice , the steamer accessory comprising a steam generator comprising a steam production chamber connected to at least one steam distribution outlet provided in a lower part of the steam generator , the water reservoir communicating with the steam production chamber via a water supply inlet , characterised in that the steam production chamber communicates with at least one steam evacuation outlet arranged higher than the water supply inlet , in that the steam production chamber is confined above the steam evacuation outlet(s) , and in that the or each steam evacuation outlet communicates via a duct with the or one of the steam distribution outlet(s) , such that the steam produced in the steam production chamber is evacuated via the steam evacuation outlet(s) to reach the steam distribution outlet(s) by descending through the duct(s) .
A rotating indexed turntable amusement ride comprising: a looped track comprising an inner rail and an outer rail ; a plurality of adjacent turntable wagons linked together in a closed chain and movingly coupled to the looped track, wherein each of the turntable wagons are independently propelled along the looped track, each of the plurality of turntable wagons comprising: an inner portion having a first length; an outer portion having a second length, wherein the second length is greater than the first length; a plurality of outer motion features (114-A) movingly coupled to the outer rail of the looped track; and at least one inner motion feature (114-B) movingly coupled to the inner rail of the looped track. a looped track comprising an inner rail and an outer rail ; a plurality of adjacent turntable wagons linked together in a closed chain and movingly coupled to the looped track, wherein each of the turntable wagons are independently propelled along the looped track, each of the plurality of turntable wagons comprising: an inner portion having a first length; an outer portion having a second length, wherein the second length is greater than the first length; a plurality of outer motion features (114-A) movingly coupled to the outer rail of the looped track; and at least one inner motion feature (114-B) movingly coupled to the inner rail of the looped track. an inner portion having a first length; an outer portion having a second length, wherein the second length is greater than the first length; a plurality of outer motion features (114-A) movingly coupled to the outer rail of the looped track; and at least one inner motion feature (114-B) movingly coupled to the inner rail of the looped track.
A method performed at a computer system of modifying a life cycle of a mobile device app, the method comprising: providing an application manifest file and a byte code file , the application manifest file and byte code file corresponding to a computer software application; renaming an original method of an application class to a renamed method in the byte code file ; inserting a wrapper method in the application class in the byte code file , the wrapper method having a name of the original method, the wrapper method configured to call an authentication or encryption method before calling the renamed method; modifying a name of an original Content Provider class to a modified Content Provider class name in the application manifest file ; and creating a wrapper Content Provider class in the byte code file , the wrapper Content Provider class having the modified Content Provider class name, the wrapper Content Provider class configured to check whether the original Content Provider class is instantiated before forwarding a call to a method of the original Content Provider class, wherein the wrapper Content Provider class performs a lazy instantiation of the original Content Provider class; and wherein the wrappers are applied only around life cycle constructors and initialization methods. providing an application manifest file and a byte code file , the application manifest file and byte code file corresponding to a computer software application; renaming an original method of an application class to a renamed method in the byte code file ; inserting a wrapper method in the application class in the byte code file , the wrapper method having a name of the original method, the wrapper method configured to call an authentication or encryption method before calling the renamed method; modifying a name of an original Content Provider class to a modified Content Provider class name in the application manifest file ; and creating a wrapper Content Provider class in the byte code file , the wrapper Content Provider class having the modified Content Provider class name, the wrapper Content Provider class configured to check whether the original Content Provider class is instantiated before forwarding a call to a method of the original Content Provider class, wherein the wrapper Content Provider class performs a lazy instantiation of the original Content Provider class; and wherein the wrappers are applied only around life cycle constructors and initialization methods.
A high-strength steel material having excellent brittle crack arrestability and welding zone brittle crack initiation resistance, comprising: by wt%, carbon (C) : 0.05% to 0.09%, manganese (Mn) : 1.65% to 2.2%, nickel (Ni) : 0.3% to 1.2%, niobium (Nb) : 0.005% to 0.04%, titanium (Ti) : 0.005% to 0.04%, copper (Cu) : 0.1% to 0.8%, silicon (Si): 0.05% to 0.3%, aluminum (Al): 0.005% to 0.05%, phosphorus (P): 100 ppm or less, sulfur (S): 40 ppm or less, iron (Fe) as a residual component, and inevitable impurities, wherein a microstructure of a central portion includes, by area%, a mixed phase of acicular ferrite and granular bainite in an amount of 70% or greater, upper bainite in an amount of 20% or less, and one or more selected from a group consisting of ferrite, pearlite, and martensite-austenite (MA), as residual components; a circle-equivalent diameter of an effective grain of the upper bainite having a high angle grain boundary of 15° or greater measured using an electron backscatter diffraction (EBSD) method being 15 μm or less; a surface portion microstructure in a region at a depth of 2 mm or less, directly below a surface, includes, by area%, ferrite in an amount of 20% or greater and one or more of bainite and martensite as residual components; and a heat affected zone (HAZ) formed during welding includes, by area%, martensite-austenite (MA) in an amount of 5% or less. by wt%, carbon (C) : 0.05% to 0.09%, manganese (Mn) : 1.65% to 2.2%, nickel (Ni) : 0.3% to 1.2%, niobium (Nb) : 0.005% to 0.04%, titanium (Ti) : 0.005% to 0.04%, copper (Cu) : 0.1% to 0.8%, silicon (Si): 0.05% to 0.3%, aluminum (Al): 0.005% to 0.05%, phosphorus (P): 100 ppm or less, sulfur (S): 40 ppm or less, iron (Fe) as a residual component, and inevitable impurities, wherein a microstructure of a central portion includes, by area%, a mixed phase of acicular ferrite and granular bainite in an amount of 70% or greater, upper bainite in an amount of 20% or less, and one or more selected from a group consisting of ferrite, pearlite, and martensite-austenite (MA), as residual components; a circle-equivalent diameter of an effective grain of the upper bainite having a high angle grain boundary of 15° or greater measured using an electron backscatter diffraction (EBSD) method being 15 μm or less; a surface portion microstructure in a region at a depth of 2 mm or less, directly below a surface, includes, by area%, ferrite in an amount of 20% or greater and one or more of bainite and martensite as residual components; and a heat affected zone (HAZ) formed during welding includes, by area%, martensite-austenite (MA) in an amount of 5% or less.
A razor wire barrier comprising: a frame including a floor and a plurality of walls extending from the floor defining an interior area which is open at a top thereof; a first section of razor wire within the interior area ; and a component receptacle extending along the floor , adjacent the first section of razor wire , the component receptacle being operable to receive a component for moving the frame , wherein the plurality of walls each comprise a second section of razor wire , wherein the first section of razor wire includes a coil of razor wire, and wherein the second section of razor wire includes a planar section of razor wire. a frame including a floor and a plurality of walls extending from the floor defining an interior area which is open at a top thereof; a first section of razor wire within the interior area ; and a component receptacle extending along the floor , adjacent the first section of razor wire , the component receptacle being operable to receive a component for moving the frame , wherein the plurality of walls each comprise a second section of razor wire , wherein the first section of razor wire includes a coil of razor wire, and wherein the second section of razor wire includes a planar section of razor wire.