mhurhangee/patent-ind-claim-en huggingface dataset:
A sheet-like moulded body made in one piece, for making structures, comprising: a plurality of polygonal plate-like pieces (2, 21 to 32); a connecting portion (4, 41 to 52) between adjacent plate-like pieces (2, 21 to 32), the connecting portion being capable of integrally connecting the adjacent plate-like pieces and capable of bending in a direction in which the surfaces of the adjacent plate-like pieces move closer with each other; and a coupling portion disposed so as to be adjacent to at least one of the plurality of plate-like pieces (2, 21 to 32) by extending outwardly from any of the plate-like pieces via a second connecting portion; wherein the sheet-like moulded body is capable of coupling with other sheet-like moulded body via the coupling portion. a plurality of polygonal plate-like pieces (2, 21 to 32); a connecting portion (4, 41 to 52) between adjacent plate-like pieces (2, 21 to 32), the connecting portion being capable of integrally connecting the adjacent plate-like pieces and capable of bending in a direction in which the surfaces of the adjacent plate-like pieces move closer with each other; and a coupling portion disposed so as to be adjacent to at least one of the plurality of plate-like pieces (2, 21 to 32) by extending outwardly from any of the plate-like pieces via a second connecting portion; wherein the sheet-like moulded body is capable of coupling with other sheet-like moulded body via the coupling portion.
A thermoplastic resin composition for automotive interior materials, comprising a biomass-derived resin comprising 10 to 50 wt% of biomass-derived polyethylene and having a pMC value of 15 wt% to 35 wt%, as measured in accordance with ASTM D6866, and further comprising 0 wt% to 15 wt% of an additional biomass-derived resin; 0 wt% to 15 wt% of a compatibilizer; 5 wt% to 10 wt% of a non-crosslinked TPO composite resin; 30 wt% to 50 wt% of a partially crosslinked thermoplastic polyolefin (TPO) composite resin, wherein the partially crosslinked TPO composite resin comprises a composite resin type olefin thermoplastic elastomer formed by dispersing rubbery particles in a thermoplastic polyolefin matrix resin, the rubbery particles being partially crosslinked, and wherein the partially-crosslinked TPO composite resin has a Shore hardness of A 63 to A 66, a melt flow index (MI) of 0.6 g/10 min to 1.2 g/10 min (230°C/5 kg), and a specific gravity of 0.88 to 0.90; and 3 wt% to 5 wt% of a completely crosslinked TPO composite resin 0 wt% to 10 wt% of ethylene octene rubber (EOR), and 0 wt% to 15 wt% of polypropylene.
A multifunctional clay composition comprising: based on the total weight of the solid content, 10 to 50% by weight of an extender material including one or more selected from the group consisting of kaolin-based clay, talc, calcium carbonate, magnesium carbonate and mica; 3 to 40% by weight of a binder containing a crosslinkable water-soluble resin or compound, which is a mixture of cellulose-based polymer and polyvinyl alcohol(PVA)-based polymer; 0.05% to 10% by weight of a multifunctional crosslinking agent comprising a compound having a hydroxyl group of two or more functionality, or forming an ion having a hydroxyl group of two or more functionality in a water solvent; 1 to 30% by weight of a wax including one or more waxes selected from the group consisting of a microcrystalline wax, a paraffin wax, a liquid paraffin, a petrolatum, a bees wax, a wool wax, a carnauba wax, a candelilla wax, a polyethylene (PE) wax, a polypropylene (PP) wax and a synthetic wax; and 0.5 to 20% by weight of a pigment, wherein the multifunctional crosslinking agent includes a boric acid (B(OH) 3 ), a borate-based salt compound or complex forming a borate-based ion in a water solvent. based on the total weight of the solid content, 10 to 50% by weight of an extender material including one or more selected from the group consisting of kaolin-based clay, talc, calcium carbonate, magnesium carbonate and mica; 3 to 40% by weight of a binder containing a crosslinkable water-soluble resin or compound, which is a mixture of cellulose-based polymer and polyvinyl alcohol(PVA)-based polymer; 0.05% to 10% by weight of a multifunctional crosslinking agent comprising a compound having a hydroxyl group of two or more functionality, or forming an ion having a hydroxyl group of two or more functionality in a water solvent; 1 to 30% by weight of a wax including one or more waxes selected from the group consisting of a microcrystalline wax, a paraffin wax, a liquid paraffin, a petrolatum, a bees wax, a wool wax, a carnauba wax, a candelilla wax, a polyethylene (PE) wax, a polypropylene (PP) wax and a synthetic wax; and 0.5 to 20% by weight of a pigment, wherein the multifunctional crosslinking agent includes a boric acid (B(OH) 3 ), a borate-based salt compound or complex forming a borate-based ion in a water solvent.
A mask assembly for the treatment of obstructive sleep apnea or the provision of non-invasive positive pressure ventilation comprising: a frame , a cushion ; and headgear (124; 134; 400), characterized in that the frame includes a usage indicator as to condition of the mask assembly, wherein at least a portion of the frame is made of a material that exhibits stress whitening after repeated movement; and wherein the frame is configured so that the development of stress whitening occurs as a result of repeated deformation during use, providing the usage indicator. a frame , a cushion ; and headgear (124; 134; 400), characterized in that the frame includes a usage indicator as to condition of the mask assembly, wherein at least a portion of the frame is made of a material that exhibits stress whitening after repeated movement; and wherein the frame is configured so that the development of stress whitening occurs as a result of repeated deformation during use, providing the usage indicator.
A method for information transmission, comprising: in a process of a terminal initial accessing, an upper level access node belonging to a hierarchical architecture access network notifying a final access node belonging to the same hierarchical architecture access network of information of a mobility management entity, MME, to which the terminal accesses, wherein, in the process of the terminal initial accessing, the step of the upper level access node notifying the final access node of the information of the MME to which the terminal accesses comprises: in the process of the terminal initial accessing, after the upper level access node receives an initial context setup request message sent by the MME to which the terminal accesses , the information of the MME is carried in an initial access signaling sent by the upper level access node to the final access node . in a process of a terminal initial accessing, an upper level access node belonging to a hierarchical architecture access network notifying a final access node belonging to the same hierarchical architecture access network of information of a mobility management entity, MME, to which the terminal accesses, wherein, in the process of the terminal initial accessing, the step of the upper level access node notifying the final access node of the information of the MME to which the terminal accesses comprises: in the process of the terminal initial accessing, after the upper level access node receives an initial context setup request message sent by the MME to which the terminal accesses , the information of the MME is carried in an initial access signaling sent by the upper level access node to the final access node .
Crystalline solar cell comprising a first region of a semiconductor material having a first doping, a second region of the semiconductor material having a second doping, in such a way that there is a pn junction between the first and the second region , at least one front face contact made of a first optically opaque, electrically conductive material, which directly or indirectly electrically conductively contacts the first region of the semiconductor material in first lateral regions of the front face of the solar cell, and at least one local rear face contact made of a second optically opaque, electrically conductive material, which directly or indirectly electrically conductively contacts the second region of the semiconductor material in first lateral regions of the rear face of the solar cell, characterised in that a layer made of a first optically transparent, electrically conductive material is arranged over the first region of the semiconductor material on the front face of the solar cell exclusively in second lateral regions , and is electrically conductively connected to the at least one front face contact , a first surface passivation layer , through which charge carriers can pass, being arranged between the layer made of the first optically transparent, electrically conductive material and the first region of the semiconductor material , in such a way that the layer made of the first optically transparent, electrically conductive material is in indirect, electrically conductive contact with the first region of the semiconductor material , and the second lateral regions of the front face of the solar cell being different from the first lateral regions of the front face of the solar cell.
A communication cable comprising: a cable core comprising: a first twisted wire pair having a first lay length and comprising two insulated wires; and a second twisted wire pair having a second lay length, the second lay length being shorter than the first lay length; and wherein the two insulated wires of the first twisted wire pair each comprise a insulation layer formed of a fluoropolymer and a propagation speed modifier comprising titanium dioxide, the insulation layer of each of the two insulated wires of the first twisted wire pair comprising 0.2% to 0.45% by weight of said propagation speed modifier; and a jacket layer surrounding the cable core; wherein the communication cable exhibits a delay skew of 45 nanoseconds or less over a cable length of 100 meters. a cable core comprising: a first twisted wire pair having a first lay length and comprising two insulated wires; and a second twisted wire pair having a second lay length, the second lay length being shorter than the first lay length; and wherein the two insulated wires of the first twisted wire pair each comprise a insulation layer formed of a fluoropolymer and a propagation speed modifier comprising titanium dioxide, the insulation layer of each of the two insulated wires of the first twisted wire pair comprising 0.2% to 0.45% by weight of said propagation speed modifier; and a first twisted wire pair having a first lay length and comprising two insulated wires; and a second twisted wire pair having a second lay length, the second lay length being shorter than the first lay length; and wherein the two insulated wires of the first twisted wire pair each comprise a insulation layer formed of a fluoropolymer and a propagation speed modifier comprising titanium dioxide, the insulation layer of each of the two insulated wires of the first twisted wire pair comprising 0.2% to 0.45% by weight of said propagation speed modifier; and a jacket layer surrounding the cable core; wherein the communication cable exhibits a delay skew of 45 nanoseconds or less over a cable length of 100 meters.
A computer-implemented method for determining a physical or logical connection between functions of a serial bus , said connection implemented via distributed Test Function, DTF, or Intel On-Chip System Fabric Side Band, IOSF-SB, and hidden from system software of a CPU connected to the serial bus , the method comprising: identifying, by a computing device, a first identifier associated with a first function of the serial bus ; identifying, by the computing device, a second identifier associated with a second function of the serial bus ; comparing, by the computing device, the first identifier with the second identifier, wherein comparing the first identifier with the second identifier further includes comparing a first association type with a second association type, said first and second association types indicating a respective type of the corresponding function; and based upon the comparison, determining, by the computing device, whether the first function of the serial bus has a physical or logical connection with the second function of the serial bus , said connection implemented via DTF or IOSF-SB and hidden from the system software . identifying, by a computing device, a first identifier associated with a first function of the serial bus ; identifying, by the computing device, a second identifier associated with a second function of the serial bus ; comparing, by the computing device, the first identifier with the second identifier, wherein comparing the first identifier with the second identifier further includes comparing a first association type with a second association type, said first and second association types indicating a respective type of the corresponding function; and based upon the comparison, determining, by the computing device, whether the first function of the serial bus has a physical or logical connection with the second function of the serial bus , said connection implemented via DTF or IOSF-SB and hidden from the system software .
A flow therapy apparatus comprising: an inlet port configured to receive a flow of gases from at least two different gas sources; a blower configured to receive the flow of gases from the inlet port , the blower configured to mix the flow of gases from the at least two different gas sources to produce mixed gases, the blower being a combined blower and mixer; a gases flow path configured to receive the mixed gases from the blower ; one or more sensors configured to measure a property of the flow of gases flowing through the gases flow path , wherein the one or more sensors are located downstream of the blower , wherein positioning the one or more sensors after the blower allows the blower to be a mixer; and a sensing chamber ; wherein the gases flow path is configured to direct the gases flow through the sensing chamber , wherein the one or more sensors are located within the sensing chamber, characterized in that the sensing chamber further comprises a sensing circuit board , wherein a first portion of the sensing circuit board is positioned at least partially within the gases flow path , wherein the sensing circuit board comprises at least a second portion of the sensing circuit board positioned outside the gases flow path , and wherein the sensing chamber comprises a seal dividing the first portion of the sensing circuit board from the second portion of the sensing circuit board . an inlet port configured to receive a flow of gases from at least two different gas sources; a blower configured to receive the flow of gases from the inlet port , the blower configured to mix the flow of gases from the at least two different gas sources to produce mixed gases, the blower being a combined blower and mixer; a gases flow path configured to receive the mixed gases from the blower ; one or more sensors configured to measure a property of the flow of gases flowing through the gases flow path , wherein the one or more sensors are located downstream of the blower , wherein positioning the one or more sensors after the blower allows the blower to be a mixer; and a sensing chamber ; wherein the gases flow path is configured to direct the gases flow through the sensing chamber , wherein the one or more sensors are located within the sensing chamber, characterized in that the sensing chamber further comprises a sensing circuit board , wherein a first portion of the sensing circuit board is positioned at least partially within the gases flow path , wherein the sensing circuit board comprises at least a second portion of the sensing circuit board positioned outside the gases flow path , and wherein the sensing chamber comprises a seal dividing the first portion of the sensing circuit board from the second portion of the sensing circuit board .
A method for adapting a fiber beam combiner to transmit at least 20 kW of optical power through a graded index fiber without noticeable bulk material damage mechanism effect and destructive nonlinearities in said fiber, the method comprising: connecting an adiabatic beam combiner with a splice connection to an input facet of the graded index fiber which has a core doped with an index-increasing-material, said graded index fiber having a numerical aperture (NA), characterised by the numerical aperture being 0.25, the index-increasing-material comprising GeO 2 in a concentration of 5% mol, and by placing a shroud tube that comprises a 5% mol fluorine-doped silica tube around the graded index fiber core, which adapts said beam combiner to transmit at least 20 kW of optical power through the graded index fiber without noticeable bulk material damage mechanism effect and destructive nonlinearities in said fiber. connecting an adiabatic beam combiner with a splice connection to an input facet of the graded index fiber which has a core doped with an index-increasing-material, said graded index fiber having a numerical aperture (NA), characterised by the numerical aperture being 0.25, the index-increasing-material comprising GeO 2 in a concentration of 5% mol, and by placing a shroud tube that comprises a 5% mol fluorine-doped silica tube around the graded index fiber core, which adapts said beam combiner to transmit at least 20 kW of optical power through the graded index fiber without noticeable bulk material damage mechanism effect and destructive nonlinearities in said fiber.
A method of forming an auger useable for creating an opening in the ground, including: forming by metal lathing a shaft having an outer surface of circular cross-section having a larger outer diameter at one end than the other end there being a constant taper between the ends; forming a strip material into a helical shape having an inner wall with a larger inner diameter at one end than the other end; passing the helically shaped material over the outer diameter of the shaft until a portion of the inner wall of the helically shaped material abuts the outer surface of the shaft ; and fixing the helically shaped material to the shaft to form a tapered auger with helical flighting. forming by metal lathing a shaft having an outer surface of circular cross-section having a larger outer diameter at one end than the other end there being a constant taper between the ends; forming a strip material into a helical shape having an inner wall with a larger inner diameter at one end than the other end; passing the helically shaped material over the outer diameter of the shaft until a portion of the inner wall of the helically shaped material abuts the outer surface of the shaft ; and fixing the helically shaped material to the shaft to form a tapered auger with helical flighting.
Circuit arrangement for supplying a drive of a vehicle , in particular for supplying a rail vehicle with electrical energy, wherein the circuit arrangement has a converter , wherein the converter has first terminals for an energy supply grid and second terminals for a grid-independent electrical energy supply unit , wherein the converter has an intermediate circuit and at least one inverter , wherein the inverter is connected to a first line of the intermediate circuit in order to be supplied with positive voltage and to a second line of the intermediate circuit in order to be supplied with negative voltage, wherein the inverter is designed to supply the drive of the vehicle with an AC voltage, wherein a first connection line of the second terminal is connected to the first or the second line of the intermediate circuit via a decoupling means , and wherein a second connection line of the second terminal is connected to the second or the first line of the intermediate circuit , wherein the converter has at least one rectifier , wherein the rectifier connects the first terminals to the first and the second line of the intermediate circuit , characterized in that the first connection line is connected to a first connecting line , wherein the first connecting line connects the first line of the intermediate circuit to the second line of the intermediate circuit , wherein the first connecting line has a series circuit of two chokes and a capacitor connected in series with the series circuit of the two chokes, and wherein the first connection line is connected to the first connecting line between the two chokes .
A device for cold therapy comprising means, such as a nozzle , for producing mist from liquid provided for the device, which mist stream is configured to be sprayed from said nozzle to a surface of a skin of a treated object in order to cool the skin of the treated object, characterized in that the Sauter mean diameter of the mist is about 30μm - 100μm, wherein the device for cold therapy comprises at least two arms whose direction is adjustable, each arm comprising at least one or more nozzles ,which nozzles are said nozzles connectable to a liquid supply and configured to spray mist, wherein a first nozzle on a first arm is at the same level as a second nozzle on a second arm, the first and second nozzles being disposed so that at least two mist streams are arranged to collide to form a combined downwardly directed stream.
Adapter , which is designed for mounting at least one additional device on a self-loading firearm , extends in the longitudinal direction of the firearm, and has a section on the barrel side and a section on the housing side , characterized in that : - it can be attached to a holding device on the barrel with its barrel-side section , and - it can be mounted longitudinally movably on the housing with its housing-side section by means of a longitudinally movable guide (96, 97, 109; 177, 179, 181). - it can be attached to a holding device on the barrel with its barrel-side section , and - it can be mounted longitudinally movably on the housing with its housing-side section by means of a longitudinally movable guide (96, 97, 109; 177, 179, 181).
A method performed by user equipment, UE, comprising: in response to determining that a service type for a data transmission has changed, determining that a data transmission mode should be changed, in response to determining that the data transmission mode should be changed, transmitting a first message to a base station for further transmission to a Mobility Management Entity, MME, the first message containing instructions to change the data transmission mode between a plurality of data transmission modes based on a present service type of the data transmission, the plurality of data transmission modes comprising: a Control Plane, CP, mode and a User Plane, UP, mode; receiving a second message from the base station comprising an instruction to change the data transmission mode; and based on the instruction of the second message, switching the data transmission mode from the CP mode to the UP mode. in response to determining that a service type for a data transmission has changed, determining that a data transmission mode should be changed, in response to determining that the data transmission mode should be changed, transmitting a first message to a base station for further transmission to a Mobility Management Entity, MME, the first message containing instructions to change the data transmission mode between a plurality of data transmission modes based on a present service type of the data transmission, the plurality of data transmission modes comprising: a Control Plane, CP, mode and a User Plane, UP, mode; receiving a second message from the base station comprising an instruction to change the data transmission mode; and based on the instruction of the second message, switching the data transmission mode from the CP mode to the UP mode.