mhurhangee/patent-ind-claim-en huggingface dataset:
A polyurethane tube, having a bending repulsive stress of 0.035 N/mm 2 or less, wherein the bending repulsive stress is generated and measured by bending the tube in U-shape with the gap between the two ends of the tube being 100 mm, and wherein the polyurethane tube is formed so that a difference between a storage elastic modulus E' 30 at 30 °C and a storage elastic modulus E'so at 80 °C is 15% or less of E' 30 .
A solid electrolyte material consisting essentially of Li, Ti, M, and F, wherein M is Al, the solid electrolyte material is represented by a following composition formula : Li 6-(4-x)b (Ti 1-x M x ) b F 6 Formula here, 0 < x < 1 and 0 .8 ≤ b ≤ 1 .5 are satisfied. M is Al, the solid electrolyte material is represented by a following composition formula : Li 6-(4-x)b (Ti 1-x M x ) b F 6 Formula here, 0 < x < 1 and 0 .8 ≤ b ≤ 1 .5 are satisfied.
A wireless communication method, wherein the method is executed in a communications system comprising N cells, at least two cells of the N cells are capable of performing wireless communication by using a same carrier set, the carrier set comprises M carriers, the M carriers are divided into N time-frequency resource groups, each of the N time-frequency resource groups comprises M time-frequency resources, the M time-frequency resources in a same time-frequency resource group are in a one-to-one correspondence with the M carriers, and in any two time-frequency resource groups, time domain locations of time-frequency resources corresponding to a same carrier are different, wherein N ≥ 2, and M ≥ 2; and the method comprises: determining (S110, S210), by a network device, a first time-frequency resource group from the N time-frequency resource groups; and performing (S120, S230), by the network device, wireless communication in a first cell of the N cells with a terminal device located in the first cell by using some or all time-frequency resources in the first time-frequency resource group, wherein the first cell is provided by the network device; wherein time domain locations of the M time-frequency resources in the same time-frequency resource group are different. determining (S110, S210), by a network device, a first time-frequency resource group from the N time-frequency resource groups; and performing (S120, S230), by the network device, wireless communication in a first cell of the N cells with a terminal device located in the first cell by using some or all time-frequency resources in the first time-frequency resource group, wherein the first cell is provided by the network device; wherein time domain locations of the M time-frequency resources in the same time-frequency resource group are different.
Device for cleaning a large-optical-surface detection module of a driving assistance system of a motor vehicle , comprising at least two lines for spraying a cleaning fluid that are arranged around the large-optical-surface detection module , said cleaning device having an annular general shape with the spray lines that form this cleaning device each having the shape of a portion of a ring, each spray line being configured to clean a part of the optical surface of the detection module, each spray line being able to be activated independently of the other spray lines , characterized in that each spray line is mounted on a telescopic deployment device, so as to be able to take up at least one retracted first position and at least one deployed second position .
A system comprising: a surgical instrument comprising a housing ; a shaft operably coupled to the housing ; a plurality of fiber optic strain gauges coupled to the shaft ; said system being characterized in that it further comprises an optic splitter having a first end operably coupled to the plurality of fiber optic strain gauges ; and a fiber optic connector operably coupled to a second end of the optic splitter , the fiber optic connector being mounted in the housing , wherein the fiber optic connector is configured to be optically linkable to another connector to pass signals from the plurality of fiber optic strain gauges to the another connector. a housing ; a shaft operably coupled to the housing ; a plurality of fiber optic strain gauges coupled to the shaft ; said system being characterized in that it further comprises an optic splitter having a first end operably coupled to the plurality of fiber optic strain gauges ; and a fiber optic connector operably coupled to a second end of the optic splitter , the fiber optic connector being mounted in the housing , wherein the fiber optic connector is configured to be optically linkable to another connector to pass signals from the plurality of fiber optic strain gauges to the another connector.
An injection mold comprising: a core plate assembly , a cavity plate assembly and a stripper plate assembly arranged between the core and cavity plate assemblies ; a plurality of mold stacks (MS), each of which includes a core insert , a cavity insert and a split mold insert pair arranged therebetween; the core plate assembly including a core plate having a plurality of the core inserts mounted thereon; the stripper plate assembly including a stripper plate with a bearing surface upon which a plurality of slide pairs are slidably supported, each slide pair being configured to retain a subset of the split mold inserts thereon; the cavity plate assembly including a cavity plate having a plurality of the cavity inserts mounted thereon; characterized in that the mold comprises a molding configuration in which the mold stacks (MS) are closed to define molding cavities and the stack height is configured such that a clamping load (CL) applied, in use, to urge the core plate toward the cavity plate is directed substantially entirely through the mold stacks (MS); and wherein the distance between the split mold inserts and the core plate , when the mold is in the molding configuration, is greater than the thickness of the stripper plate assembly received therebetween, thereby to prevent the clamping load (CL) from being directed through the stripper plate assembly . a core plate assembly , a cavity plate assembly and a stripper plate assembly arranged between the core and cavity plate assemblies ; a plurality of mold stacks (MS), each of which includes a core insert , a cavity insert and a split mold insert pair arranged therebetween; the core plate assembly including a core plate having a plurality of the core inserts mounted thereon; the stripper plate assembly including a stripper plate with a bearing surface upon which a plurality of slide pairs are slidably supported, each slide pair being configured to retain a subset of the split mold inserts thereon; the cavity plate assembly including a cavity plate having a plurality of the cavity inserts mounted thereon; characterized in that the mold comprises a molding configuration in which the mold stacks (MS) are closed to define molding cavities and the stack height is configured such that a clamping load (CL) applied, in use, to urge the core plate toward the cavity plate is directed substantially entirely through the mold stacks (MS); and wherein the distance between the split mold inserts and the core plate , when the mold is in the molding configuration, is greater than the thickness of the stripper plate assembly received therebetween, thereby to prevent the clamping load (CL) from being directed through the stripper plate assembly .
A torque connector comprising: a box component ; a pin component to couple to the box component , comprising a first torque shoulder to contact a first surface of the box component to provide a first torque capacity to the torque connector , the first torque shoulder comprising a leading surface of the pin component ; a second torque shoulder to contact a second surface of the box component to provide a second torque capacity to the torque connector , the second torque shoulder being non-perpendicular relative to the direction of the insertion of the pin component into the box component ; and a third torque shoulder to contact a third surface of the box component to provide a third torque capacity to the torque connector , the third torque shoulder comprising a collar coupled to the pin component ; and a sacrificial material to dispose between the second torque shoulder of the pin component and the second surface of the box component , such that the sacrificial material deforms in a direction non-parallel to the direction of insertion when the pin component is coupled to the box component . a box component ; a pin component to couple to the box component , comprising a first torque shoulder to contact a first surface of the box component to provide a first torque capacity to the torque connector , the first torque shoulder comprising a leading surface of the pin component ; a second torque shoulder to contact a second surface of the box component to provide a second torque capacity to the torque connector , the second torque shoulder being non-perpendicular relative to the direction of the insertion of the pin component into the box component ; and a first torque shoulder to contact a first surface of the box component to provide a first torque capacity to the torque connector , the first torque shoulder comprising a leading surface of the pin component ; a second torque shoulder to contact a second surface of the box component to provide a second torque capacity to the torque connector , the second torque shoulder being non-perpendicular relative to the direction of the insertion of the pin component into the box component ; and a third torque shoulder to contact a third surface of the box component to provide a third torque capacity to the torque connector , the third torque shoulder comprising a collar coupled to the pin component ; and a sacrificial material to dispose between the second torque shoulder of the pin component and the second surface of the box component , such that the sacrificial material deforms in a direction non-parallel to the direction of insertion when the pin component is coupled to the box component .
A connector assembly , comprising: a female connector body ; a male connector body defining a shroud configured to receive a forward portion of the female connector body ; a resilient seal axially surrounding the forward portion , said resilient seal disposed intermediate the forward portion and the shroud and in compressive contact with the forward portion and the shroud , wherein the resilient seal defines a seal lip extending forward of a forward retaining hook , wherein the forward portion defines a forward retaining ledge on the forward portion , said forward retaining ledge extending inwardly from the forward portion , and the resilient seal defines the forward retaining hook extending outwardly and engaging said forward retaining ledge , wherein the forward retaining ledge forms an acute angle relative to a longitudinal axis (X) of the female connector body and wherein the forward retaining hook forms an obtuse angle relative to the longitudinal axis (X) that is a supplementary angle to the acute angle ; and characterized by a seal retainer that is distinct from the female connector body and that is attached to the female connector body , wherein the seal lip is disposed intermediate the forward portion and the seal retainer , and is in compressive contact with the forward portion and the seal retainer . a female connector body ; a male connector body defining a shroud configured to receive a forward portion of the female connector body ; a resilient seal axially surrounding the forward portion , said resilient seal disposed intermediate the forward portion and the shroud and in compressive contact with the forward portion and the shroud , wherein the resilient seal defines a seal lip extending forward of a forward retaining hook , wherein the forward portion defines a forward retaining ledge on the forward portion , said forward retaining ledge extending inwardly from the forward portion , and the resilient seal defines the forward retaining hook extending outwardly and engaging said forward retaining ledge , wherein the forward retaining ledge forms an acute angle relative to a longitudinal axis (X) of the female connector body and wherein the forward retaining hook forms an obtuse angle relative to the longitudinal axis (X) that is a supplementary angle to the acute angle ; and characterized by a seal retainer that is distinct from the female connector body and that is attached to the female connector body , wherein the seal lip is disposed intermediate the forward portion and the seal retainer , and is in compressive contact with the forward portion and the seal retainer .
A flexible hose comprising: a flexible conduit for carrying a pressurised fluid; a flexible inner support for supporting the conduit; and a compression layer surrounding the flexible conduit; and wherein the flexible inner support is provided, on an outer surface thereof, with a helical coil or thread formation , and wherein the flexible conduit is provided, on an inner surface thereof, with a complementary helical coil or thread formation which, when the flexible hose is assembled, engages with the helical coil or thread formation of the inner support to maintain the conduit in position relative to the inner support. a flexible conduit for carrying a pressurised fluid; a flexible inner support for supporting the conduit; and a compression layer surrounding the flexible conduit; and wherein the flexible inner support is provided, on an outer surface thereof, with a helical coil or thread formation , and wherein the flexible conduit is provided, on an inner surface thereof, with a complementary helical coil or thread formation which, when the flexible hose is assembled, engages with the helical coil or thread formation of the inner support to maintain the conduit in position relative to the inner support.
An information processing device characterized in comprising: an estimation unit configured to estimate a used quantity of at least one of an ingredient to be cooked and a seasoning used in cooking, on the basis of a signal detected by a sensor in real-time every time an ingredient or seasoning is added during a cooking process; an index computation unit configured to compute a cooking index indicating a value of mass and/or a calorific value of the ingredient or the seasoning according to the estimated quantity of the ingredient or the seasoning, by accumulating cooking indices computed since the cooking process started to a cumulative cooking index; and a notification control unit configured to perform control to issue a notification of the cooking index computed by the index computation unit. an estimation unit configured to estimate a used quantity of at least one of an ingredient to be cooked and a seasoning used in cooking, on the basis of a signal detected by a sensor in real-time every time an ingredient or seasoning is added during a cooking process; an index computation unit configured to compute a cooking index indicating a value of mass and/or a calorific value of the ingredient or the seasoning according to the estimated quantity of the ingredient or the seasoning, by accumulating cooking indices computed since the cooking process started to a cumulative cooking index; and a notification control unit configured to perform control to issue a notification of the cooking index computed by the index computation unit.
An inlay for a card , the inlay comprising a first transparent overlay sheet , an antenna carrier sheet being provided next to the first transparent overlay sheet , the antenna carrier sheet comprising a microcontroller opening (O1), a contact module lead frame opening (O2), and a finger sensor lead frame opening (O3), a thickness compensation sheet being provided next to the antenna carrier sheet , a second transparent overlay sheet being provided next to the thickness compensation sheet , a microcontroller being provided in the microcontroller opening (O1), a module lead frame being adapted for being milled and being provided in the contact module lead frame opening (O2), the module lead frame comprising a plurality of first contact pads for contacting a contact module , a finger sensor lead frame being adapted for being milled and being provided in the finger sensor lead frame opening (O3), the finger sensor lead frame comprising a plurality of second contact pads for contacting a fingerprint sensor , an antenna (A) comprising a coil of a conductor being embedded in the antenna carrier sheet , and a plurality of electrical wires (W) being connected to the microcontroller , to the first contact pads , to the second contact pads , and to the antenna (A). a first transparent overlay sheet , an antenna carrier sheet being provided next to the first transparent overlay sheet , the antenna carrier sheet comprising a microcontroller opening (O1), a contact module lead frame opening (O2), and a finger sensor lead frame opening (O3), a thickness compensation sheet being provided next to the antenna carrier sheet , a second transparent overlay sheet being provided next to the thickness compensation sheet , a microcontroller being provided in the microcontroller opening (O1), a module lead frame being adapted for being milled and being provided in the contact module lead frame opening (O2), the module lead frame comprising a plurality of first contact pads for contacting a contact module , a finger sensor lead frame being adapted for being milled and being provided in the finger sensor lead frame opening (O3), the finger sensor lead frame comprising a plurality of second contact pads for contacting a fingerprint sensor , an antenna (A) comprising a coil of a conductor being embedded in the antenna carrier sheet , and a plurality of electrical wires (W) being connected to the microcontroller , to the first contact pads , to the second contact pads , and to the antenna (A).
A system for detecting plastics in a maritime, estuary or river environment, characterized in that the system is further used for detecting macro-plastics , micro-plastics and nano-plastics and that the system comprises: a plurality of detection devices for detecting the plastics , the macro-plastics , the micro-plastics and the nano-plastics in the environment, the detection devices being configured for detection using different detection wavelengths; and a data processing device , comprising a communication interface and a processor , wherein the communication interface is configured to receive detection signals from the plurality of detection devices , and wherein the processor is configured to determine locations of the plastics , the macro-plastics , the micro-plastics and the nano-plastics in the environment upon the basis of the received detection signals within a common coordinate system. a plurality of detection devices for detecting the plastics , the macro-plastics , the micro-plastics and the nano-plastics in the environment, the detection devices being configured for detection using different detection wavelengths; and a data processing device , comprising a communication interface and a processor , wherein the communication interface is configured to receive detection signals from the plurality of detection devices , and wherein the processor is configured to determine locations of the plastics , the macro-plastics , the micro-plastics and the nano-plastics in the environment upon the basis of the received detection signals within a common coordinate system.
A method for the preparation of biofilm carriers with biochar fixed by thermoplastic resin, comprising the following steps: biochar functional materials is ground to powder, and dried to constant weight at ≤80°C; biochar functional materials powder, which is pretreated according to step , is blended into thermoplastic resin particles, and stirred evenly; the mass percentage of biochar functional materials powder to thermoplastic resin particles is 20%-50%; the solid mixture obtained from step is melt extruded into strips by a screw extruder, and mechanically cut to obtain a granular blend; the processing temperature of each section of the screw extruder is 130-190 °C to ensure that the thermoplastic resin is fully mixed with biochar functional materials in the molten state; the granular blend prepared in step and the thermoplastic resin particles are mechanically stirred evenly, and then added to the screw extruder for co-mixing and extrusion, the carrier pipes of different shapes are obtained, according to the design of mould; the ratio of biochar functional materials mass to the total mass of thermoplastic resin particles in granular blends is less than 20%; the carrier pipes prepared in step are cut mechanically and the biofilm carriers are obtained according to the required size. biochar functional materials is ground to powder, and dried to constant weight at ≤80°C; biochar functional materials powder, which is pretreated according to step , is blended into thermoplastic resin particles, and stirred evenly; the mass percentage of biochar functional materials powder to thermoplastic resin particles is 20%-50%; the solid mixture obtained from step is melt extruded into strips by a screw extruder, and mechanically cut to obtain a granular blend; the processing temperature of each section of the screw extruder is 130-190 °C to ensure that the thermoplastic resin is fully mixed with biochar functional materials in the molten state; the granular blend prepared in step and the thermoplastic resin particles are mechanically stirred evenly, and then added to the screw extruder for co-mixing and extrusion, the carrier pipes of different shapes are obtained, according to the design of mould; the ratio of biochar functional materials mass to the total mass of thermoplastic resin particles in granular blends is less than 20%; the carrier pipes prepared in step are cut mechanically and the biofilm carriers are obtained according to the required size.