mhurhangee/ep-ind-claims huggingface dataset:
Preparations comprising aqueous polyurethane or polyurethane-urea dispersions comprising a corresponding polymer composed of A) 50% to 95% by weight of at least one crystalline or semicrystalline difunctional polyester polyol having a number-average molecular weight of at least 400 g/mol and a melting temperature of at least 40°C and a heat of fusion of at least 20 J/g, B) 0% to 10% by weight of at least one difunctional polyol component having a number-average molecular weight of 62 to 399 g/mol, C) 4% to 25% by weight of an isocyanate component consisting of pentamethylene diisocyanate and 0 to <5 mol% of further diisocyanates or a mixture of pentamethylene diisocyanate and hexamethylene diisocyanate with at least 50 mol% pentamethylene diisocyanate and 0 to <5 mol% of further diisocyanates, D) 0.5% to 10% by weight of at least one component reactive to isocyanate, bearing at least one ionic or potentially ionic group, and E) 0% to 30% by weight of further components reactive to isocyanate, wherein the sum total of the constituents adds up to 100% by weight, characterized in that the polymer after drying is crystalline or semicrystalline and has a melting temperature of at least 40°C and a heat of fusion of at least 10 J/g, wherein the melting temperature and the heat of fusion is determined by differential scanning calorimetry. A) 50% to 95% by weight of at least one crystalline or semicrystalline difunctional polyester polyol having a number-average molecular weight of at least 400 g/mol and a melting temperature of at least 40°C and a heat of fusion of at least 20 J/g, B) 0% to 10% by weight of at least one difunctional polyol component having a number-average molecular weight of 62 to 399 g/mol, C) 4% to 25% by weight of an isocyanate component consisting of pentamethylene diisocyanate and 0 to <5 mol% of further diisocyanates or a mixture of pentamethylene diisocyanate and hexamethylene diisocyanate with at least 50 mol% pentamethylene diisocyanate and 0 to <5 mol% of further diisocyanates, D) 0.5% to 10% by weight of at least one component reactive to isocyanate, bearing at least one ionic or potentially ionic group, E) 0% to 30% by weight of further components reactive to isocyanate, wherein the sum total of the constituents adds up to 100% by weight, characterized in that the polymer after drying is crystalline or semicrystalline and has a melting temperature of at least 40°C and a heat of fusion of at least 10 J/g, wherein the melting temperature and the heat of fusion is determined by differential scanning calorimetry.
A method for configuring a radio link control, RLC, layer of a protocol stack of a user equipment device, UE, (106, 706) for out-of-order delivery of data units, comprising: the UE (106, 706), receiving, from a master cell, a configuration message, wherein the configuration message indicates a configuration of the UE (106, 706) for out-of-order delivery of data units from a radio link control, RLC, layer of a first protocol stack implemented on the UE (106, 706), wherein the UE (106, 706) is configured via radio resource control, RRC, signaling for dual connectivity with the master cell and a secondary cell; configuring a first capability of the RLC layer of the first protocol stack based on the configuration message, wherein the first capability is associated with out-of-order delivery of data units transmitted from the RLC layer; notifying the master cell of the configuration of the RLC layer; characterized by: receiving, from the master cell, a downlink schedule for receiving transmissions from the master cell and the secondary cell, wherein the downlink schedule is based, at least in part, on the configuration of the RLC layer. receiving, from a master cell, a configuration message, wherein the configuration message indicates a configuration of the UE (106, 706) for out-of-order delivery of data units from a radio link control, RLC, layer of a first protocol stack implemented on the UE (106, 706), wherein the UE (106, 706) is configured via radio resource control, RRC, signaling for dual connectivity with the master cell and a secondary cell; configuring a first capability of the RLC layer of the first protocol stack based on the configuration message, wherein the first capability is associated with out-of-order delivery of data units transmitted from the RLC layer; notifying the master cell of the configuration of the RLC layer;
A ballistic protection material having a composite layer comprising a mesh, characterized in that the mesh is embedded in a mass of compacted particulate material bound together by a binder material, wherein the mesh comprises a plurality of sheets of mesh.
A user equipment, UE (24, 26, 28, 40), configured to: receive, from an external device (22, 26, 30), configuration data of a joint-resource pool, JRP, for uplink, UL, communications in JRP physical resources (52, 52a-52k, JRP 1, JRP 2) shared with other UEs; perform UL communications (24", 26", 28") by transmitting data on granted physical resources (51, G); determine whether to perform additional UL communications and, in case of positive determination, perform additional UL communications (24'", 26"', 28"') by transmitting data on JRP physical resources; and characterised by being configured to use a particular granted resource for retransmitting (1*, 1b*) a data (1, 1b) and use the JRP for transmitting a data scheduled for the particular granted resource. receive, from an external device (22, 26, 30), configuration data of a joint-resource pool, JRP, for uplink, UL, communications in JRP physical resources (52, 52a-52k, JRP 1, JRP 2) shared with other UEs; perform UL communications (24", 26", 28") by transmitting data on granted physical resources (51, G); determine whether to perform additional UL communications and, in case of positive determination, perform additional UL communications (24'", 26"', 28"') by transmitting data on JRP physical resources; and characterised by being configured to use a particular granted resource for retransmitting (1*, 1b*) a data (1, 1b) and use the JRP for transmitting a data scheduled for the particular granted resource.
A power module comprising: an insulating substrate, a circuitry layer laminated on one side of said insulating substrate, a metal layer laminated on the other side of said insulating substrate, a semiconductor chip loaded onto the circuitry layer by means of solder, and a radiator joined to the metal layer; wherein, the circuitry layer and the metal layer are composed of copper characterised in that said copper is of at least 99.999 % purity, and in that the average particle diameter of crystalline particles of the circuitry layer and the metal layer is from 1.0 mm to 30 mm. an insulating substrate, a circuitry layer laminated on one side of said insulating substrate, a metal layer laminated on the other side of said insulating substrate, a semiconductor chip loaded onto the circuitry layer by means of solder, and a radiator joined to the metal layer; wherein, the circuitry layer and the metal layer are composed of copper characterised in that said copper is of at least 99.999 % purity, and in that the average particle diameter of crystalline particles of the circuitry layer and the metal layer is from 1.0 mm to 30 mm.
A temperature sensor comprising a sensor unit formed on a flexible substrate, wherein the flexible substrate includes a first portion which is located at an end portion of the flexible substrate and in which the sensor unit is formed, and a second portion adjacent to the first portion in a distal direction from the end portion and having a maximum thickness (d 2) between a first surface (A 2) and a second surface (B 2) facing each other, a surface (A 1) of the first portion opposite to the sensor unit and the first surface (A 2) of the second portion being on the same plane, at least the first surface (A 2) of the second portion forming a detection surface in contact with an object whose temperature is to be detected, and a total thickness (d 1) of the first portion and the sensor unit being smaller than the maximum thickness (d 2) of the second portion.
A method for detecting leaks of a containment barrier, the method comprising: placing the barrier in contact with one or more volumes of fluid such that the one or more volumes of fluid is in contact with a first surface and a second surface of the containment barrier (step 104101), wherein the containment barrier comprises one of a sheet and a film; placing a first electrode in contact with a first volume of fluid within in a first area defined by the first surface of the containment barrier (step 104102), placing a second electrode in contact with a second volume of fluid in a second area defined by the second surface of the containment barrier (step 104103); measuring electrical conductivity between the first and second electrodes (step 104104); and determining a presence of a leak in the containment barrier (step 104105); characterized in that the method further comprises applying pressure, via a pressurization device, to a volume of air above the first volume of fluid within the first area; in that at least the first volume of the one or more volumes of fluid has a reduced surface tension of 42 mN/m (dyne/cm) or less; and in that determining a presence of a leak in the containment barrier is based on a calculation using properties of the one or more volumes of fluid, the containment barrier, and the measured electrical conductivity. placing the barrier in contact with one or more volumes of fluid such that the one or more volumes of fluid is in contact with a first surface and a second surface of the containment barrier (step 104101), wherein the containment barrier comprises one of a sheet and a film; placing a first electrode in contact with a first volume of fluid within in a first area defined by the first surface of the containment barrier (step 104102), placing a second electrode in contact with a second volume of fluid in a second area defined by the second surface of the containment barrier (step 104103); measuring electrical conductivity between the first and second electrodes (step 104104); and determining a presence of a leak in the containment barrier (step 104105); characterized in that the method further comprises applying pressure, via a pressurization device, to a volume of air above the first volume of fluid within the first area; in that at least the first volume of the one or more volumes of fluid has a reduced surface tension of 42 mN/m (dyne/cm) or less; and in that determining a presence of a leak in the containment barrier is based on a calculation using properties of the one or more volumes of fluid, the containment barrier, and the measured electrical conductivity.
Optical slip ring arrangement for non-contact data transmission via a first optical component and via a second optical component which are rotatable with respect to one another about a common axis of rotation, and for this purpose, are arranged opposite one another via a first end face and a second end face, wherein the first optical component has a plurality of optical fibers, wherein on the first end face, the optical fibers are arranged running along a circular arc having a radius, wherein the fiber ends are arranged at the first end face along at least one arc segment of the circular arc having a radius, - the fibers are routed in a first carrier which extends from a front, first end face to a rear coupling face on the rear side; characterized in that a first planar optical waveguide chip is coupled to the coupling face, - at least a plurality of the optical fibers in the carrier are transferred from the first end face to the coupling face in at least one common connection plane with fiber ends arranged along at least one line, so that inputs of the planar optical waveguide chip are optically coupled to the fiber ends. - the fibers are routed in a first carrier which extends from a front, first end face to a rear coupling face on the rear side; characterized in that a first planar optical waveguide chip is coupled to the coupling face, - at least a plurality of the optical fibers in the carrier are transferred from the first end face to the coupling face in at least one common connection plane with fiber ends arranged along at least one line, so that inputs of the planar optical waveguide chip are optically coupled to the fiber ends.
A method for producing a phenol compound represented by Formula: wherein R 1 represents a hydroxyl group, a halogen atom, a C 1 -C 6 alkyl group or a C 1 -C 6 alkoxy group, p represents 0 or an integer of 1 to 5, R 2 and R 3 each independently represent a hydrogen atom or a C 1 -C 6 alkyl group, R 4 represents a hydrogen atom, a C 1 -C 6 alkyl group, an optionally substituted phenyl group or an optionally substituted benzyl group; and a bond shown with a wavy line represents E- or Z-form, or a mixture thereof, wherein the phenol compound has a color space b* of 10 or less; which method comprises reacting a compound represented by formula purified by reduction purification using a reductant: with a compound represented by formula: wherein R 1 to R 4 and p have the same meaning as defined in Formula above, and wherein X represents a hydroxyl group or a halogen atom, in the presence of a base, followed by crystallisation.
A steering control device configured to control a reaction motor that generates a steering reaction force applied to a steering wheel of which power transmission to and from turning wheels (16, 16) is cut off, the steering control device comprising: a first processor configured to change a virtual operation range of the steering wheel according to a steering state or a vehicle state by controlling the reaction motor; and a second processor configured to change a degree of change of the virtual operation range of the steering wheel according to the steering state or the vehicle state when an operation position of the steering wheel reaches a position in a vicinity of a limit position of the virtual operation range, wherein the first processor is configured to calculate a limit value (θend) of the virtual operation range of the steering wheel according to a value of a vehicle speed, characterized in that the second processor is configured to fix the value of the vehicle speed which is used to calculate the limit value when the operation position of the steering wheel reaches the position in the vicinity of the limit position of the virtual operation range. a first processor configured to change a virtual operation range of the steering wheel according to a steering state or a vehicle state by controlling the reaction motor; and a second processor configured to change a degree of change of the virtual operation range of the steering wheel according to the steering state or the vehicle state when an operation position of the steering wheel reaches a position in a vicinity of a limit position of the virtual operation range, wherein the first processor is configured to calculate a limit value (θend) of the virtual operation range of the steering wheel according to a value of a vehicle speed, characterized in that the second processor is configured to fix the value of the vehicle speed which is used to calculate the limit value when the operation position of the steering wheel reaches the position in the vicinity of the limit position of the virtual operation range.
Method for producing a sealing-strip with the steps: - providing a ribbon-like base carrier, wherein this base carrier has a flexible plastic material, wherein a base body consists of a polyurethane - soft foam which is provided with an impregnation; - transporting of this base carrier along a predetermined transport path; - inserting at least one gap in this base carrier, wherein this gap extends along the transport path and wherein this gap separates the base carrier in at least two base carrier sections (2a, 2b) which are completely separated from each other, wherein a sealing element is inserted into this gap, which sealing element is a functional foil and has a carrier material and is provided at both sides with an adhesive coating (42, 44); characterized in that the base carrier is subsequently pressed in the height direction, wherein the height of the base body with the inserted sealing element is reduced about at least 50 %. - providing a ribbon-like base carrier, wherein this base carrier has a flexible plastic material, wherein a base body consists of a polyurethane - soft foam which is provided with an impregnation; - transporting of this base carrier along a predetermined transport path; - inserting at least one gap in this base carrier, wherein this gap extends along the transport path and wherein this gap separates the base carrier in at least two base carrier sections (2a, 2b) which are completely separated from each other, wherein a sealing element is inserted into this gap, which sealing element is a functional foil and has a carrier material and is provided at both sides with an adhesive coating (42, 44);
A spreading boom, for instance in the form of a so-called drip hose boom, for slurry wagons and trailers, wherein the side wings of the boom are mounted on respective parts of a divided main frame, the two parts of which are hinged to one another in a hinge having a substantially horizontal hinge axis and are furthermore connected to each other by one or more hydraulic cylinders in such a way that the two frame parts can be rotated relatively to each other about the hinge axis in a substantially vertical plane, so that one or both side wings are tilted upwards by this rotation, the outer part of the side wing(s) being lifted relatively to the inner part, characterised in that the two parts of the main frame are hinged to one another at the top and the one or more hydraulic cylinders are positioned beneath the hinge between the two parts.
A method, comprising: - capturing at different discrete time intervals, using an optical detector, a first image at a first wavelength and a second image (602, 604) at a different second wavelength of one or more particles (611, 711) wherein the one or more particles (611, 711) comprise two fluorophores and the first and the second wavelengths corresponds to the two fluorophores; - capturing, using a video detector (306, 806), a plurality of video frames of the one or more particles (611, 711) at a rate faster than the rate at which images are captured using the optical detector; - identifying, using a processor (314, 818), a first image position (611A, 711A) of a particle (611, 711) in the first image of the one or more particles; and - correlating, using the processor (314, 818), the first image position (611A, 711A) of the particle (611, 711) in the first image to a second image position (611B, 711B) of the particle (611, 711) in the second image using the plurality of video frames. - capturing at different discrete time intervals, using an optical detector, a first image at a first wavelength and a second image (602, 604) at a different second wavelength of one or more particles (611, 711) wherein the one or more particles (611, 711) comprise two fluorophores and the first and the second wavelengths corresponds to the two fluorophores; - capturing, using a video detector (306, 806), a plurality of video frames of the one or more particles (611, 711) at a rate faster than the rate at which images are captured using the optical detector; - identifying, using a processor (314, 818), a first image position (611A, 711A) of a particle (611, 711) in the first image of the one or more particles; and - correlating, using the processor (314, 818), the first image position (611A, 711A) of the particle (611, 711) in the first image to a second image position (611B, 711B) of the particle (611, 711) in the second image using the plurality of video frames.
A device for controlling the temperature of an energy store, in particular for a vehicle, wherein the device has a first outer wall element and a second outer wall element, characterised in that a main surface of the first outer wall element and a main surface of the second outer wall element are connected to each other by means of at least one rib of hardened adhesive, wherein the rib forms at least one fluid guiding channel for guiding a temperature control fluid between the first outer wall element and the second outer wall element, wherein the first outer wall element and the second outer wall element are constructed in a plate-like manner and the at least one rib has a first peripheral adhesive bead which connects the outer wall elements (110, 120) in edge regions of the main surfaces, and at least one non-closed adhesive bead which connects the outer wall elements (110, 120) in inner regions of the main surfaces spaced apart from edge regions.
Method for detecting and compensating the effects of disturbances in controlling induction heating systems in which the temperature of the cooking vessel and/or its content is monitored and/or controlled on the basis of at least one electrical. measurement correlated to said temperature and particularly the effect of cooking vessel movements and/or mains line voltage fluctuation and similar electrical noises, characterized in that the method comprises a first step defined as a detection of electrical noise presented in the targeted electrical magnitude(s), correlated to the targeted physical process being controlled or monitored, wherein the noise is distinguished from the actual time-varying electrical magnitude that is correlated with the temperature of the pot, and a second step of calculating a noise-compensated output signal.
An electronic device comprising: a touch sensitive layer configured to sense if the touch sensitive layer is touched and to sense where the touch sensitive layer is touched; a display layer configured to visually display images; a composite piezoelectric assembly that is planar and has a cut-out so that the composite piezoelectric assembly forms a frame around the display layer wherein the composite piezoelectric assembly comprises a first electrode layer, a second electrode layer, and a composite piezoelectric layer (40, 46) between the first electrode layer and the second electrode layer; and a drive circuit configured to apply a voltage to the first electrode layer or the second electrode layer to generate a haptic effect in response to the touch sensitive layer sensing that the touch sensitive layer is touched; wherein the composite piezoelectric assembly forms a sealant between the touch sensitive layer and the display layer to protect the display layer; wherein the composite piezoelectric assembly is configured to act as an adhesive tape, and has adhesive material on both sides thereof to attach the composite piezoelectric assembly to the display layer and the touch sensitive layer. a touch sensitive layer configured to sense if the touch sensitive layer is touched and to sense where the touch sensitive layer is touched; a display layer configured to visually display images; a composite piezoelectric assembly that is planar and has a cut-out so that the composite piezoelectric assembly forms a frame around the display layer wherein the composite piezoelectric assembly comprises a first electrode layer, a second electrode layer, and a composite piezoelectric layer (40, 46) between the first electrode layer and the second electrode layer; and a drive circuit configured to apply a voltage to the first electrode layer or the second electrode layer to generate a haptic effect in response to the touch sensitive layer sensing that the touch sensitive layer is touched; wherein the composite piezoelectric assembly forms a sealant between the touch sensitive layer and the display layer to protect the display layer; wherein the composite piezoelectric assembly is configured to act as an adhesive tape, and has adhesive material on both sides thereof to attach the composite piezoelectric assembly to the display layer and the touch sensitive layer.