mhurhangee/patent-ind-claim-en huggingface dataset:
A garment with an opening or edgeband, said garment including two or more layers of a garment fabric and a stretchable fabric composite laminate; said stretchable fabric composite laminate including two outer layers of fabric with a bonded inner layer of elastomeric fibers; wherein said stretchable fabric composite laminate is located between said two or more layers of a garment fabric; wherein said two or more layers are formed by folding a single piece of fabric and wherein said stretchable fabric composite laminate is placed at the point of folding; wherein said stretchable fabric composite laminate is attached to said garment fabric, at the opening or edgeband, prior to fabric finishing; wherein said stretchable fabric composite laminate has a width of 0.1 cm to 30.0 cm, including from 1.0 cm to 5.0 cm and a calculated flatness factor of not more than 4.4 wherein the calculated flatness factor is the ratio of percent decrease in thickness upon stretching from a relaxed state to ultimate elongation to the number of puckers per inch of relaxed composite fabric; wherein said stretchable fabric composite laminate has at least 6.3 puckers/cm (16 puckers per linear inch); and wherein said stretchable fabric composite laminate includes an adhesive in an amount of 10% to 35% by weight of the stretchable fabric composite laminate. said stretchable fabric composite laminate including two outer layers of fabric with a bonded inner layer of elastomeric fibers; wherein said stretchable fabric composite laminate is located between said two or more layers of a garment fabric; wherein said two or more layers are formed by folding a single piece of fabric and wherein said stretchable fabric composite laminate is placed at the point of folding; wherein said stretchable fabric composite laminate is attached to said garment fabric, at the opening or edgeband, prior to fabric finishing; wherein said stretchable fabric composite laminate has a width of 0.1 cm to 30.0 cm, including from 1.0 cm to 5.0 cm and a calculated flatness factor of not more than 4.4 wherein the calculated flatness factor is the ratio of percent decrease in thickness upon stretching from a relaxed state to ultimate elongation to the number of puckers per inch of relaxed composite fabric; wherein said stretchable fabric composite laminate has at least 6.3 puckers/cm (16 puckers per linear inch); and wherein said stretchable fabric composite laminate includes an adhesive in an amount of 10% to 35% by weight of the stretchable fabric composite laminate.
A method for forming a reinforced metallic structure , comprising: forming a tool (500; 752) having a formation surface (502; 753); removing a portion of the formation surface to form one or more recesses in the formation surface (502; 753); depositing a mixture of metallic particles and reinforcing particles on the formation surface (502; 753) of the tool (500; 752) by cold-spraying the metallic particles to form a layer of mixed material, the formation surface (502; 753) corresponding to a desired shape of the reinforced metallic structure ; and removing the layer of mixed material from the formation surface (502; 753) to create the reinforced metallic structure , wherein depositing the mixture of the metallic particles and the reinforcing particles includes depositing the metallic particles using a cold-spray gun and simultaneously depositing the reinforcing particles using a second deposition source that is separate from the cold-spray gun , wherein an electromechanical metal controller controls the ejection rate of the metal particles , the rate of movement of the cold-spray gun relative to the formation surface , and the location of the cold-spray gun relative to the formation surface to deposit the metal particles at a same time that an electromechanical particle controller controls the ejection rate of the reinforcing particles , the rate of movement of the second deposition source relative to the formation surface , and the location of the second deposition source relative to the formation surface to deposit the reinforcing particles . forming a tool (500; 752) having a formation surface (502; 753); removing a portion of the formation surface to form one or more recesses in the formation surface (502; 753); depositing a mixture of metallic particles and reinforcing particles on the formation surface (502; 753) of the tool (500; 752) by cold-spraying the metallic particles to form a layer of mixed material, the formation surface (502; 753) corresponding to a desired shape of the reinforced metallic structure ; and removing the layer of mixed material from the formation surface (502; 753) to create the reinforced metallic structure , wherein depositing the mixture of the metallic particles and the reinforcing particles includes depositing the metallic particles using a cold-spray gun and simultaneously depositing the reinforcing particles using a second deposition source that is separate from the cold-spray gun , wherein an electromechanical metal controller controls the ejection rate of the metal particles , the rate of movement of the cold-spray gun relative to the formation surface , and the location of the cold-spray gun relative to the formation surface to deposit the metal particles at a same time that an electromechanical particle controller controls the ejection rate of the reinforcing particles , the rate of movement of the second deposition source relative to the formation surface , and the location of the second deposition source relative to the formation surface to deposit the reinforcing particles .
An optical-fiber ribbon , comprising: a plurality of optical fibers ; and a cured ribbon-matrix material edge bonding the plurality of optical fibers in a side-by-side arrangement such that at least 70 percent of the cured ribbon-matrix material is positioned on one side of the optical-fiber ribbon, the cured ribbon-matrix material having ( i ) elongation-to-break of at least 200 percent, preferably of at least 300 percent at 20°C, ( ii ) Young's modulus of 1-20 MPa at 20°C, and ( iii ) Young's modulus of 100 MPa or less, preferably of 75 PMa or less at -40 °C, wherein the elongation-to-break and the Young's modulus are determined via either ISO 527-3:1995 or ASTM D882 - 12. a plurality of optical fibers ; and a cured ribbon-matrix material edge bonding the plurality of optical fibers in a side-by-side arrangement such that at least 70 percent of the cured ribbon-matrix material is positioned on one side of the optical-fiber ribbon, the cured ribbon-matrix material having ( i ) elongation-to-break of at least 200 percent, preferably of at least 300 percent at 20°C, ( ii ) Young's modulus of 1-20 MPa at 20°C, and ( iii ) Young's modulus of 100 MPa or less, preferably of 75 PMa or less at -40 °C, wherein the elongation-to-break and the Young's modulus are determined via either ISO 527-3:1995 or ASTM D882 - 12.
A method of wireless communication by a base station, comprising: determining a synchronization signal, SS, index for a SS block, the SS block comprising a plurality of synchronization signals multiplexed for transmission on predetermined resources; generating a first SS of the plurality of synchronization signals based at least in part on the SS index; frequency division multiplexing the first SS with at least a second synchronization signal, SSS, of the SS block, wherein the SSS comprises a secondary synchronization signal that carries information about a physical layer cell identity group number for the base station; and transmitting the SS block including the first SS generated based at least in part on the SS index frequency division multiplexed with the SSS on the predetermined resources, wherein the SS index is conveyed using a shift of a pseudo-noise, PN-, sequence of the first SS. determining a synchronization signal, SS, index for a SS block, the SS block comprising a plurality of synchronization signals multiplexed for transmission on predetermined resources; generating a first SS of the plurality of synchronization signals based at least in part on the SS index; frequency division multiplexing the first SS with at least a second synchronization signal, SSS, of the SS block, wherein the SSS comprises a secondary synchronization signal that carries information about a physical layer cell identity group number for the base station; and transmitting the SS block including the first SS generated based at least in part on the SS index frequency division multiplexed with the SSS on the predetermined resources, wherein the SS index is conveyed using a shift of a pseudo-noise, PN-, sequence of the first SS.
Specimen carrier (K, K') for receiving an endsection of a pipe-shaped specimen body for carrying out a load capacity test, the specimen carrier (K, K') having an inside (Ki) which, in the intended mounting position, is oriented towards a middle section of the specimen body to be tested, and an outside (Ko) which is opposite in the axial direction (A, B) of the specimen body , and a jacket surface (Km) between the inside and the outside, and wherein the specimen carrier (K, K') has - a pipe receptacle (G, G2, G') which is designed to fix the endsection of the specimen body to the specimen carrier (K); characterized in that - the specimen carrier (K, K') is designed to be received in a surrounding housing passage (E) with an annular contact against the housing passage (E), and - in that the specimen carrier (K, K') further has an annular sealing structure (S, S1) which is arranged on the jacket surface (Km) of the specimen carrier (K, K'), the sealing structure (S, S1) being designed to · forming an annular seal with respect to the housing passage (E) and · allowing displacement (T) of the specimen carrier (K, K') in the axial direction (A, B) along the housing passage (E). - a pipe receptacle (G, G2, G') which is designed to fix the endsection of the specimen body to the specimen carrier (K); - the specimen carrier (K, K') is designed to be received in a surrounding housing passage (E) with an annular contact against the housing passage (E), and - in that the specimen carrier (K, K') further has an annular sealing structure (S, S1) which is arranged on the jacket surface (Km) of the specimen carrier (K, K'), the sealing structure (S, S1) being designed to · forming an annular seal with respect to the housing passage (E) and · allowing displacement (T) of the specimen carrier (K, K') in the axial direction (A, B) along the housing passage (E). · forming an annular seal with respect to the housing passage (E) and · allowing displacement (T) of the specimen carrier (K, K') in the axial direction (A, B) along the housing passage (E).
A system for storing natural gas, comprising: a plurality of straight sections of tube dense packed and configured to fill a designated volume; the plurality of straight sections of tube are connected using reduced radius bent tube sections bent into a U-shape , wherein a taper to the reduced radius section from one of the plurality of straight tube sections stays within a predetermined mean curvature bound, characterised in that the predetermined mean curvature bound comprises a single constant mean curvature curve with mean curvature larger than 1/2ro, wherein ro is the radius of the plurality of straight sections of tube.
Self-supporting reinforcement system for the concrete lining of the inner shell of a tunnel construction having at least an outer layer and an inner layer of a reinforcement and spacers , characterized by - tensioning arches or tensioning rings with an adaptable arch length or an adaptable ring circumference, formed from at least two arch segments to form a tunnel reinforcement arch or tunnel reinforcement ring for the reinforcement of the inner shell of the tunnel construction, as support for at least an outer layer made at least of welded wire meshes, - wherein the arch segments are each formed from an individual reinforcement steel rod, - tensioning support bodies with a connecting region to the tensioning arches and with at least one support arm for tensioning the tensioning arches or tensioning rings on the outer shell or rock face wall of the tunnel construction in a supporting manner and so as to produce the spacing with respect to an outer shell or the rock face wall, - first spacers on the tensioning support bodies for supporting on the outer shell or rock face wall of the tunnel construction and for generating the minimum concrete coverage of the installed reinforced concrete parts, and - second spacers between an outer layer and an inner layer of the reinforcement. - tensioning arches or tensioning rings with an adaptable arch length or an adaptable ring circumference, formed from at least two arch segments to form a tunnel reinforcement arch or tunnel reinforcement ring for the reinforcement of the inner shell of the tunnel construction, as support for at least an outer layer made at least of welded wire meshes, - wherein the arch segments are each formed from an individual reinforcement steel rod, - tensioning support bodies with a connecting region to the tensioning arches and with at least one support arm for tensioning the tensioning arches or tensioning rings on the outer shell or rock face wall of the tunnel construction in a supporting manner and so as to produce the spacing with respect to an outer shell or the rock face wall, - first spacers on the tensioning support bodies for supporting on the outer shell or rock face wall of the tunnel construction and for generating the minimum concrete coverage of the installed reinforced concrete parts, and - second spacers between an outer layer and an inner layer of the reinforcement.
A communication method, comprising: sending a scheduling request to a terminal device through a physical downlink control channel, PDCCH, wherein the scheduling request is used to indicate the terminal device to send data to a network device based on a preset time interval; when not receiving the data from the terminal device through a physical uplink shared channel, PUSCH, determining, based on measurement gap configuration information of the terminal device , whether a time point at which the terminal device does not send the data this time is within a measurement gap window, wherein the measurement gap configuration information comprises a measurement period of a measurement gap, the measurement gap window, and a measurement start time; and if it is determined that the time point at which the terminal device does not send the data this time is within the measurement gap window, sending, to the terminal device , a redundancy version number used for a next hybrid automatic repeat request, HARQ, retransmission. sending a scheduling request to a terminal device through a physical downlink control channel, PDCCH, wherein the scheduling request is used to indicate the terminal device to send data to a network device based on a preset time interval; when not receiving the data from the terminal device through a physical uplink shared channel, PUSCH, determining, based on measurement gap configuration information of the terminal device , whether a time point at which the terminal device does not send the data this time is within a measurement gap window, wherein the measurement gap configuration information comprises a measurement period of a measurement gap, the measurement gap window, and a measurement start time; and if it is determined that the time point at which the terminal device does not send the data this time is within the measurement gap window, sending, to the terminal device , a redundancy version number used for a next hybrid automatic repeat request, HARQ, retransmission.
An absorbing layer for a blister package, comprising the following in the order indicated: an outer skin layer ; an intermediate layer comprising an inorganic absorbent and a binder resin; and, an inner skin layer comprising 5 % by mass to 80 % by mass of a metallocene-based random polypropylene and 95 % by mass to 20 % by mass of a non-metallocene-based random polypropylene. an outer skin layer ; an intermediate layer comprising an inorganic absorbent and a binder resin; and, an inner skin layer comprising 5 % by mass to 80 % by mass of a metallocene-based random polypropylene and 95 % by mass to 20 % by mass of a non-metallocene-based random polypropylene.
A magnetic field turn sensor system , comprising: a magnetic field angle sensor ; a signal processing path configured to receive an output from the magnetic field angle sensor and generate an angle measurement based on the output; a turn count path configured to process the output from the magnetic field angle sensor and output a quadrant measurement based on the output; and a processor configured to: receive the quadrant measurement from the turn count path, determine that the quadrant measurement is indicative of a transition between quadrants, characterized in that the processor is further configured to obtain an expected transition angle at which the quadrant measurement is indicative of the transition between quadrants, receive the angle measurement from the signal processing path, the angle measurement indicating a measured transition angle at which the transition between quadrants occurred, determine that the measured transition angle deviates from the expected transition angle by more than a threshold value, and indicate a fault in response to determining that the measured transition angle deviates from the expected transition angle by more than the threshold value. a magnetic field angle sensor ; a signal processing path configured to receive an output from the magnetic field angle sensor and generate an angle measurement based on the output; a turn count path configured to process the output from the magnetic field angle sensor and output a quadrant measurement based on the output; and a processor configured to: receive the quadrant measurement from the turn count path, determine that the quadrant measurement is indicative of a transition between quadrants, characterized in that the processor is further configured to obtain an expected transition angle at which the quadrant measurement is indicative of the transition between quadrants, receive the angle measurement from the signal processing path, the angle measurement indicating a measured transition angle at which the transition between quadrants occurred, determine that the measured transition angle deviates from the expected transition angle by more than a threshold value, and indicate a fault in response to determining that the measured transition angle deviates from the expected transition angle by more than the threshold value. receive the quadrant measurement from the turn count path, determine that the quadrant measurement is indicative of a transition between quadrants, characterized in that the processor is further configured to obtain an expected transition angle at which the quadrant measurement is indicative of the transition between quadrants, receive the angle measurement from the signal processing path, the angle measurement indicating a measured transition angle at which the transition between quadrants occurred, determine that the measured transition angle deviates from the expected transition angle by more than a threshold value, and indicate a fault in response to determining that the measured transition angle deviates from the expected transition angle by more than the threshold value.
A device for holding and releasing an object , such as a medical implant, characterized in that the device comprises two hook systems to which said object is able to be coupled so as to allow said hook systems to jointly hold said object , said hook systems being configured such that, in the state in which said object is coupled to said hook systems , at least one of the hook systems is subjected to a return force (F11, F12) that makes it possible to keep the object coupled to said hook systems , characterized in that , each hook system having at least one hook that has a passage through which at least a part of said object is able to extend, said passage of said at least one hook of each hook system having a passage axis (A1) along which at least a part of said object is able to extend, said at least one hook of each hook system has a hook opening zone configured so as to allow said object to be released through said hook opening zone , by pivoting of said object about an axis (APIV2) orthogonal to the passage axis (A1). characterized in that the device comprises two hook systems to which said object is able to be coupled so as to allow said hook systems to jointly hold said object , said hook systems being configured such that, in the state in which said object is coupled to said hook systems , at least one of the hook systems is subjected to a return force (F11, F12) that makes it possible to keep the object coupled to said hook systems , characterized in that , each hook system having at least one hook that has a passage through which at least a part of said object is able to extend, said passage of said at least one hook of each hook system having a passage axis (A1) along which at least a part of said object is able to extend, said at least one hook of each hook system has a hook opening zone configured so as to allow said object to be released through said hook opening zone , by pivoting of said object about an axis (APIV2) orthogonal to the passage axis (A1).
A modified T cell comprising a nucleic acid encoding a switch molecule, wherein the switch molecule comprises: an extracellular domain of a transforming growth factor-beta receptor (TGF-beta-R), and an intracellular domain of an interleukin-12 receptor (IL-12R), wherein interaction of the extracellular domain of the switch molecule with TGF-beta induces the modified T cell to secrete a soluble cytokine at a tumor. an extracellular domain of a transforming growth factor-beta receptor (TGF-beta-R), and an intracellular domain of an interleukin-12 receptor (IL-12R), wherein interaction of the extracellular domain of the switch molecule with TGF-beta induces the modified T cell to secrete a soluble cytokine at a tumor.
A device for providing haptic feedback, comprising: a housing ; a shell defining an aperture and disposed within the housing ; a driver disposed within the shell ; a moveable mass within the shell , the moveable mass disposed within the driver , the shell being coupled to the housing such that kinetic energy of oscillation of the moveable mass is transferred through the shell and to the housing; and a projection connected to the moveable mass and extending through the aperture , wherein the driver is configured to: cause the moveable mass to oscillate to a distance not greater than a first distance in order to produce a first haptic feedback to the housing ; and cause the moveable mass to oscillate to a second distance greater than the first distance to produce a second haptic feedback to a portion of the housing . a housing ; a shell defining an aperture and disposed within the housing ; a driver disposed within the shell ; a moveable mass within the shell , the moveable mass disposed within the driver , the shell being coupled to the housing such that kinetic energy of oscillation of the moveable mass is transferred through the shell and to the housing; and a projection connected to the moveable mass and extending through the aperture , wherein the driver is configured to: cause the moveable mass to oscillate to a distance not greater than a first distance in order to produce a first haptic feedback to the housing ; and cause the moveable mass to oscillate to a second distance greater than the first distance to produce a second haptic feedback to a portion of the housing . cause the moveable mass to oscillate to a distance not greater than a first distance in order to produce a first haptic feedback to the housing ; and cause the moveable mass to oscillate to a second distance greater than the first distance to produce a second haptic feedback to a portion of the housing .