mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a mobile device, comprising: determining, in an application subsystem of the mobile device, that the mobile device seeks configuration information; from the application subsystem, sending a request to a baseband subsystem of the mobile device, the request including an indicator specifying that the baseband subsystem is to operate in a service configuration mode, wherein the service configuration mode of operation is different from a normal mode of operation, wherein in the normal mode of operation, the data transfer is at full capacity; requesting, from a server, the configuration information for said mobile device, using the baseband subsystem that operates in the service configuration mode, wherein, in the service configuration mode of operation, the baseband subsystem communicates with the server through a designated carrier, and wherein in the service configuration mode the data transfer between the mobile device and the server is under a specified capacity that is different from the full capacity; and configuring the mobile device using configuration information received from the server in response. determining, in an application subsystem of the mobile device, that the mobile device seeks configuration information; from the application subsystem, sending a request to a baseband subsystem of the mobile device, the request including an indicator specifying that the baseband subsystem is to operate in a service configuration mode, wherein the service configuration mode of operation is different from a normal mode of operation, wherein in the normal mode of operation, the data transfer is at full capacity; requesting, from a server, the configuration information for said mobile device, using the baseband subsystem that operates in the service configuration mode, wherein, in the service configuration mode of operation, the baseband subsystem communicates with the server through a designated carrier, and wherein in the service configuration mode the data transfer between the mobile device and the server is under a specified capacity that is different from the full capacity; and configuring the mobile device using configuration information received from the server in response.
A tissue product, comprising: a sheet of decellularized adipose-containing transitional dermal tissue, wherein a portion of the lipid components have been removed from the sheet of adipose-containing transitional dermal tissue prepared from transitional dermis tissue layers between dermis and subcutaneous fat such that the tissue product contains between 30% and 50% lipid content as a percentage of the overall tissue product by mass. a sheet of decellularized adipose-containing transitional dermal tissue, wherein a portion of the lipid components have been removed from the sheet of adipose-containing transitional dermal tissue prepared from transitional dermis tissue layers between dermis and subcutaneous fat such that the tissue product contains between 30% and 50% lipid content as a percentage of the overall tissue product by mass.
A vinyl chloride-based polymer composition comprising: a vinyl chloride-based polymer, and a plasticizer, wherein the vinyl chloride-based polymer includes a saponified higher fatty acid having 10 to 18 carbon atoms in an amount of more than 0.05 parts by weight and less than 2.0 parts by weight, based on 100 parts by weight of the vinyl chloride-based polymer; wherein the higher fatty acid is at least one selected from the group consisting of castor oil fatty acid, dehydrated castor oil fatty acid, hardened castor oil fatty acid, sebacic acid, and undecylenic acid; wherein the vinyl chloride-based polymer composition has a Bingham yield stress under an external force increasing condition of more than 111 Pa and less than 385 Pa, a Bingham yield stress under an external force decreasing condition of more than 97 Pa and less than 362 Pa, and a difference in Bingham yield stress value between the external force increasing condition and the external force decreasing condition of more than 0 Pa and 35 Pa or less; wherein the Bingham yield stress under an external force increasing condition is measured after the external force is increased at a shear rate of from 10/s to 500/s over time for 180 seconds, and the Bingham yield stress under an external force decreasing condition is measured after the external force is decreased at a shear rate of from 500/s to 10/s over time for 180 seconds, a vinyl chloride-based polymer, and a plasticizer, wherein the vinyl chloride-based polymer includes a saponified higher fatty acid having 10 to 18 carbon atoms in an amount of more than 0.05 parts by weight and less than 2.0 parts by weight, based on 100 parts by weight of the vinyl chloride-based polymer; wherein the higher fatty acid is at least one selected from the group consisting of castor oil fatty acid, dehydrated castor oil fatty acid, hardened castor oil fatty acid, sebacic acid, and undecylenic acid; wherein the vinyl chloride-based polymer composition has a Bingham yield stress under an external force increasing condition of more than 111 Pa and less than 385 Pa, a Bingham yield stress under an external force decreasing condition of more than 97 Pa and less than 362 Pa, and a difference in Bingham yield stress value between the external force increasing condition and the external force decreasing condition of more than 0 Pa and 35 Pa or less; wherein the Bingham yield stress under an external force increasing condition is measured after the external force is increased at a shear rate of from 10/s to 500/s over time for 180 seconds, and the Bingham yield stress under an external force decreasing condition is measured after the external force is decreased at a shear rate of from 500/s to 10/s over time for 180 seconds,
A substrate suitable for incorporation into an absorbent article for automatic detection of wetness events therein and/or risk of exudate leakage therefrom, the substrate comprising a first surface capable of being arranged proximal to a body facing side of the absorbent article and a second surface opposite said first surface and capable of being arranged proximal to a garment facing side of said absorbent article, said substrate comprising a plurality of sensor tracks disposed on said first surface wherein said sensor tracks are in electrical communication with a clip-on data processing module when connected at a position proximal to a first end of the substrate such to form a closed electrical circuit, for measuring resistance, impedance and/or capacitance therethrough, characterised in that said substrate comprises one or more slits and wherein an insulating layer is placed over said first surface of said substrate to sandwich at least a portion of said sensor tracks therebetween, and in that a pocket is formed between said first surface and said insulating layer proximal to said first end, said pocket being in fluid communication only with said slit(s) and arranged to retain at least a portion of said clip-on data processing module therein, and wherein said substrate consists of a liquid impermeable backsheet, wherein the insulating layer is a non-conductive substrate selected from a film, an adhesive, or an ink, and wherein the pocket is sized such that it accommodates at least 50% of the total surface area, or total volume, of the clip-on data processing module therein, and wherein the insulating layer has a length extending parallel to the length of the substrate that is equal or less than said length of the substrate, and wherein the width (w) of the insulating layer is less than the width of the substrate.
Process for the preparation of a solution of a non-caking agent comprising an iron salt of an organic acid with a ferric component and a ferrous component of less solubility than said ferric component, wherein a concentrate of the non-caking agent is circulated in a loop and wherein the concentrate is subsequently diluted by water to obtain the solution.
A gas turbine engine comprising: an inner housing surrounding a compressor, a combustor, and a turbine, with a compressor inlet leading into said compressor, and a cooling sleeve defined radially outwardly of said compressor inlet to said compressor, for receiving cooling air radially outward of said compressor inlet, said cooling sleeve extending along a length of said engine, and radially outwardly of said inner housing, the engine configured so that air is delivered to said combustor, mixed with fuel and ignited, and products of combustion pass over a rotor of the turbine driving it to rotate, said cooling sleeve configured to eject said cooling air at a downstream end to mix with the products of combustion downstream of the turbine to form mixed air; a propulsor positioned downstream of said turbine; and a propulsor turbine for driving the propulsor, wherein said propulsor turbine is a tip turbine, with turbine blades being formed at an outer periphery of said propulsor, characterised in that: the propulsor turbine is configured to be driven by said mixed air. an inner housing surrounding a compressor, a combustor, and a turbine, with a compressor inlet leading into said compressor, and a cooling sleeve defined radially outwardly of said compressor inlet to said compressor, for receiving cooling air radially outward of said compressor inlet, said cooling sleeve extending along a length of said engine, and radially outwardly of said inner housing, the engine configured so that air is delivered to said combustor, mixed with fuel and ignited, and products of combustion pass over a rotor of the turbine driving it to rotate, said cooling sleeve configured to eject said cooling air at a downstream end to mix with the products of combustion downstream of the turbine to form mixed air; a propulsor positioned downstream of said turbine; and a propulsor turbine for driving the propulsor, wherein said propulsor turbine is a tip turbine, with turbine blades being formed at an outer periphery of said propulsor, characterised in that: the propulsor turbine is configured to be driven by said mixed air.
A synthetic adenovirus comprising: a transgene encoding at least one heterologous factor that promotes wound repair or tissue regeneration; a native or modified capsid that detargets the synthetic adenovirus from the liver; and a chimeric fiber protein comprising an adenovirus type 5 shaft domain and an adenovirus type 34 knob domain, for use in promoting wound repair or tissue regeneration in a subject. a transgene encoding at least one heterologous factor that promotes wound repair or tissue regeneration; a native or modified capsid that detargets the synthetic adenovirus from the liver; and a chimeric fiber protein comprising an adenovirus type 5 shaft domain and an adenovirus type 34 knob domain, for use in promoting wound repair or tissue regeneration in a subject.
Use of a film for manufacturing a semiconductor part, the film comprising: a base layer; and an adhesive layer disposed on one surface side of the base layer, wherein the ratio R E (= E' /E'(-40)) of the elastic modulus E' (measured according to example 1) of the base layer at 160°C to the elastic modulus E'(-40) of the base layer at -40°C is such that R E ≥ 0.01, and the elastic modulus E'(-40) is 10 MPa or more and less than 1000 MPa. a base layer; and an adhesive layer disposed on one surface side of the base layer, wherein the ratio R E (= E' /E'(-40)) of the elastic modulus E' (measured according to example 1) of the base layer at 160°C to the elastic modulus E'(-40) of the base layer at -40°C is such that R E ≥ 0.01, and the elastic modulus E'(-40) is 10 MPa or more and less than 1000 MPa.
An external rear view device (1, 1', 101', 101", 201) for a motor vehicle, comprising a housing (12, 14), and at least one light emitting and/or receiving device, comprising • at least one light producing device (10; 50; 70) and/or at least one camera device arranged within said housing (12, 14), and • at least one at least partially transparent element closing an opening provided by said housing (12, 14), wherein the at least partially transparent element is provided in form of a first module attached to the housing (12, 14), the light producing device (10; 50; 70) and/or the camera device is provided in form of a second module attached to the first module, wherein first module and the second module are mechanically releaseably coupled, and the housing (12, 14) comprises a casing with at least one wall and a bezel, characterized in that the first module protrudes from at least one outer surface of said housing (12, 14) over an imaginary contour line that connects the outer surface of the at least one wall and the outer surface of the bezel, thereby protruding over the general contour of the housing (12, 14). • at least one light producing device (10; 50; 70) and/or at least one camera device arranged within said housing (12, 14), and • at least one at least partially transparent element closing an opening provided by said housing (12, 14), the at least partially transparent element is provided in form of a first module attached to the housing (12, 14), the light producing device (10; 50; 70) and/or the camera device is provided in form of a second module attached to the first module, wherein first module and the second module are mechanically releaseably coupled, and the housing (12, 14) comprises a casing with at least one wall and a bezel, characterized in that the first module protrudes from at least one outer surface of said housing (12, 14) over an imaginary contour line that connects the outer surface of the at least one wall and the outer surface of the bezel, thereby protruding over the general contour of the housing (12, 14).
A method comprising: receiving, at a host machine, guest software to run in a Native Client environment, wherein the guest software is configured to execute at a specified guest hardware architecture and not within the Native Client environment, wherein the Native Client environment is a sandboxing environment deploying software fault isolation and binary code validation; providing, using emulation software, a binary translation of the guest software into Native Client compatible machine code, wherein the Native Client compatible machine code executes within a sandbox for the Native Client environment, wherein the Native Client compatible machine code is executable within an application, wherein providing the binary translation of the guest software into the Native Client compatible machine code for execution within the sandbox occurs just in time, during a runtime of emulated guest software, and without porting or recompiling the guest software, and wherein providing the binary translation interleaves with execution of the emulated guest characterised in that the emulation software supports emulation of guest platform-specific asynchronous signals by periodically checking a pending signals mask and explicitly invoking a guest-specific signal handler once the signal is raised. receiving, at a host machine, guest software to run in a Native Client environment, wherein the guest software is configured to execute at a specified guest hardware architecture and not within the Native Client environment, wherein the Native Client environment is a sandboxing environment deploying software fault isolation and binary code validation; providing, using emulation software, a binary translation of the guest software into Native Client compatible machine code, wherein the Native Client compatible machine code executes within a sandbox for the Native Client environment, wherein the Native Client compatible machine code is executable within an application, wherein providing the binary translation of the guest software into the Native Client compatible machine code for execution within the sandbox occurs just in time, during a runtime of emulated guest software, and without porting or recompiling the guest software, and wherein providing the binary translation interleaves with execution of the emulated guest wherein the Native Client compatible machine code executes within a sandbox for the Native Client environment, wherein the Native Client compatible machine code is executable within an application, wherein providing the binary translation of the guest software into the Native Client compatible machine code for execution within the sandbox occurs just in time, during a runtime of emulated guest software, and without porting or recompiling the guest software, and wherein providing the binary translation interleaves with execution of the emulated guest
A method for identifying modulators of salty taste perception that modulate the epithelial sodium channel human salty taste receptor, comprising: assembling at least epithelial sodium channel human salty taste receptor in an artificial lipid membrane which permits analysis of the salty taste receptor apart from contaminating proteins such as endogenous epithelial sodium channels, wherein the salty taste receptor consists of at least one beta subunit, at least one gamma subunit, and at least one delta subunit, wherein said delta subunit comprises the amino acid sequence of SEQ ID NO: 12; contacting the human salty taste receptor with a test compound in the presence of sodium or lithium; and determining a modulation of the biological activity of the human salty taste receptor in the presence of the test compound relative to the biological activity of the human salty taste receptor in the absence of the test compound. assembling at least epithelial sodium channel human salty taste receptor in an artificial lipid membrane which permits analysis of the salty taste receptor apart from contaminating proteins such as endogenous epithelial sodium channels, wherein the salty taste receptor consists of at least one beta subunit, at least one gamma subunit, and at least one delta subunit, wherein said delta subunit comprises the amino acid sequence of SEQ ID NO: 12; contacting the human salty taste receptor with a test compound in the presence of sodium or lithium; and determining a modulation of the biological activity of the human salty taste receptor in the presence of the test compound relative to the biological activity of the human salty taste receptor in the absence of the test compound.
Damping arrangement for a vane (20, 20') of an axial turbine, in particular a gas turbine, which damping arrangement comprises a vane with a vane blade and damping element, wherein the vane extends in a radial direction, wherein the damping element is arranged in a recess (16, 16') in the vane blade of the vane (20, 20') and damps vibrations of the vane (20, 20') using a friction process, wherein the recess is formed as a cavity (16, 16') which extends in the radial direction through the interior of the vane blade and in which the damping element is inserted in the radial direction, wherein the cavity (16, 16') and the damping element inserted in the cavity (16, 16') are formed cylindrical, the damping element is configured such that the damping friction process takes place substantially between the damping element and the wall of the cavity (16, 16'), and the damping element presses elastically against the wall of the cavity (16, 16'), characterised in that the damping element is configured as a plate wound about the cylinder axis and made of a spring material, in particular spring steel.
A gas turbine engine having an exhaust nozzle, the engine comprising: a fan operable to direct intake air to an intake portion of the gas turbine engine, the intake air is separated into multiple streams of air throughout the engine; a first duct that passes a first stream (38, 46) of air that is directed to a core (16, 18, 20) of an engine; a second duct that passes a second stream of air that is partitioned from the first stream of air, the second stream of air traverses a length of the engine; a third duct that passes a third stream of air that is separated from the second stream of air, the third stream of air traverses a length of the engine and is injectable to a plenum of a nozzle, the third stream separated by a pair of walls (114a, 114b) into a conditioned air stream and a bypass air stream that pass to the plenum; the engine further comprising a nozzle assembly that is selectively operable to control the flow of the first, second and third streams (38, 40, 42, 46) of air in order to accommodate varying flight operating demands, and a heat exchanger located in fluid communication with the third stream of air, wherein air is passed through the heat exchanger, and wherein the heat exchanger is operable to generate conditioned air that forms the conditioned air stream, and wherein some of the third stream in the third duct bypasses the heat exchanger to form the bypass stream. a fan operable to direct intake air to an intake portion of the gas turbine engine, the intake air is separated into multiple streams of air throughout the engine; a first duct that passes a first stream (38, 46) of air that is directed to a core (16, 18, 20) of an engine; a second duct that passes a second stream of air that is partitioned from the first stream of air, the second stream of air traverses a length of the engine; a third duct that passes a third stream of air that is separated from the second stream of air, the third stream of air traverses a length of the engine and is injectable to a plenum of a nozzle, the third stream separated by a pair of walls (114a, 114b) into a conditioned air stream and a bypass air stream that pass to the plenum; the engine further comprising a nozzle assembly that is selectively operable to control the flow of the first, second and third streams (38, 40, 42, 46) of air in order to accommodate varying flight operating demands, and a heat exchanger located in fluid communication with the third stream of air, wherein air is passed through the heat exchanger, and wherein the heat exchanger is operable to generate conditioned air that forms the conditioned air stream, and wherein some of the third stream in the third duct bypasses the heat exchanger to form the bypass stream.
An actuator with a housing which comprises receptacles (3, 4) for a step-down gear and for a miniature electric motor, wherein the motor receptacle is connected to a connection cover, wherein the connection cover consists of a conductive plate which is encapsulated with plastics material and has motor contact regions which interlock with connecting lugs of the miniature electric motor, characterised in that the conductive plate has holding regions which interlock with formed-on housing portions of the housing.
A composition comprising a peroxide-crosslinked, high melt strength ethylene-based polymer, the ethylene-based polymer made in a tubular reactor and satisfying the following equation at a test temperature of 190°C: Melt Strength = Ce − 0.3 melt index with 2.16 kg load where the parameter C is greater than or equal to (≥) 15; wherein the ethylene-based polymer has a melt index (I 2) from 0.1 to 100 grams per 10 minutes (g/10 min) and wherein the ethylene-based polymer is modified with at least one of poly(propylene glycol) allyl ether methacrylate (PPG AEMA), a di- or higher functional (meth)acrylate, or an asymmetrical polyene. where the parameter C is greater than or equal to (≥) 15; wherein the ethylene-based polymer has a melt index (I 2) from 0.1 to 100 grams per 10 minutes (g/10 min) and wherein the ethylene-based polymer is modified with at least one of poly(propylene glycol) allyl ether methacrylate (PPG AEMA), a di- or higher functional (meth)acrylate, or an asymmetrical polyene.