mhurhangee/ep-ind-claims huggingface dataset:
Angle measurement device, which is configured in such a way that it can be fixed on a further stationary body with the aid of a number of fastening devices (1.4), comprising - a main body, - a code disc, which is rotatable in relation to the main body about an axis A, and - a contact region (4.1; 4.2), which is designed in such a way that electrical current or electrical signals can be introduced intro the angle measurement device from the stationary further body by way of this region, the contact region (4.1; 4.2) being arranged in a stationary manner with respect to the main body, characterized in that to allow the angle measurement device to be mounted in different angular positions, the contact region (4.1; 4.2) - has the same electrical potential at each point, and - is configured in such a way that both a first point (P 1) with the polar coordinates R and α 1 and a second point (P 2) with the polar coordinates R and α 2 can be defined, the two points (P 1, P 2) coming to lie on the contact region (4.1; 4.2), and R being the equal distance of the points (P 1, P 2) from the axis A and α 1 and α 2 being different angles, the fastening devices (1.4) being arranged along a circular line and the angular offset (β) of the adjacent fastening devices (1.4) corresponding to the difference between (α 1) and (α 2). - a main body, - a code disc, which is rotatable in relation to the main body about an axis A, and - a contact region (4.1; 4.2), which is designed in such a way that electrical current or electrical signals can be introduced intro the angle measurement device from the stationary further body by way of this region, the contact region (4.1; 4.2) being arranged in a stationary manner with respect to the main body, characterized in that - has the same electrical potential at each point, and - is configured in such a way that both a first point (P 1) with the polar coordinates R and α 1 and a second point (P 2) with the polar coordinates R and α 2 can be defined, the two points (P 1, P 2) coming to lie on the contact region (4.1; 4.2), and R being the equal distance of the points (P 1, P 2) from the axis A and α 1 and α 2 being different angles,
An energy dissipation device (1; 100; 400) for a train coupler adapted for absorbing kinetic energy from a collision, the energy dissipation device comprising: - a cylindrical housing (6; 104; 403), in one end having coupling means (14; 106; 405) for coupling the housing in fixed relation to a train coupler, - at least one axially compressible, irreversibly deforming element (7; 8; 9; 401; 402) of steel in the housing, the compressible element(s) extended in coaxial relation with the housing from said one end towards a second end of the housing, - a compression means (10; 406) retractable into the housing via said one end or said second end of the housing, - wherein at least one compressible element (7; 8; 9; 401) is pre-tensioned axially between said retractable compression means (10; 406) and a counter pressure means (11; 407) stationary secured in the housing in axially opposite relation to the retractable compression means in said one end or said second end of the housing, and wherein the retractable compression means has a circular periphery (20; 109) shaped for guidance in non-destructive sliding contact with the inside wall of the housing (6; 104; 403) upon retraction and compression of the compressible element(s) (7; 8; 9; 401; 402), while preserving the integrity of the housing. - a cylindrical housing (6; 104; 403), in one end having coupling means (14; 106; 405) for coupling the housing in fixed relation to a train coupler, - at least one axially compressible, irreversibly deforming element (7; 8; 9; 401; 402) of steel in the housing, the compressible element(s) extended in coaxial relation with the housing from said one end towards a second end of the housing, - a compression means (10; 406) retractable into the housing via said one end or said second end of the housing, - wherein at least one compressible element (7; 8; 9; 401) is pre-tensioned axially between said retractable compression means (10; 406) and a counter pressure means (11; 407) stationary secured in the housing in axially opposite relation to the retractable compression means in said one end or said second end of the housing,
A method of determining a gesture performed by a user, the method comprising: detecting using a camera a distortion of the user's skin surface due to a gesture performed on the user's skin surface, wherein the camera is arranged on or attached to the user's wrist; determining a characteristic of the detected distortion; and based on the determined characteristic, determining the gesture performed on the user's skin surface. detecting using a camera a distortion of the user's skin surface due to a gesture performed on the user's skin surface, wherein the camera is arranged on or attached to the user's wrist; determining a characteristic of the detected distortion; and based on the determined characteristic, determining the gesture performed on the user's skin surface.
Inline method for producing a spring strip profile for a slatted frame, which spring strip profile comprises at least one core strand formed by a fibre-reinforced plastic and at least one thermoplastic cover layer surrounding the core strand, comprising at least the following steps: - Joining several fibres, threads and/or filaments to form a fibre bundle (2.1); - Impregnating the fibre bundle (2.1) with a thermally activatable reaction resin, - Moulding the outer contour of the fibre bundle impregnated with the reaction resin (2.1); - Thermally activating the reaction resin (2.1) to form a cured core strand; - Introducing the core strand into an extruder head - Applying thermoplastic melt in the extruder head to form the cover layer on the spring strip profile; - Cooling and calibrating the spring strip profile in a cooling and calibrating device (111, 112, 113) characterized in that - in a winding machine the outer contour of the fibre bundle (2.1) is wrapped around by at least one thread or filament (2.2) supplied laterally in relation to the fibre bundle in at least one position and orientation; - in a heating section, before the core strand is introduced into the extruder head, a partial curing of the reaction resin in the wrapped outer layer of the fibre bundle (2.1) is effected and - in that the core strand is post-cured after extrusion of the cover layer. - Joining several fibres, threads and/or filaments to form a fibre bundle (2.1); - Impregnating the fibre bundle (2.1) with a thermally activatable reaction resin, - Moulding the outer contour of the fibre bundle impregnated with the reaction resin (2.1); - Thermally activating the reaction resin (2.1) to form a cured core strand; - Introducing the core strand into an extruder head - Applying thermoplastic melt in the extruder head to form the cover layer on the spring strip profile; - Cooling and calibrating the spring strip profile in a cooling and calibrating device (111, 112, 113) characterized in that - in a winding machine the outer contour of the fibre bundle (2.1) is wrapped around by at least one thread or filament (2.2) supplied laterally in relation to the fibre bundle in at least one position and orientation; - in a heating section, before the core strand is introduced into the extruder head, a partial curing of the reaction resin in the wrapped outer layer of the fibre bundle (2.1) is effected and - in that the core strand is post-cured after extrusion of the cover layer.
A plastic film, comprising: a support substrate; and a coating layer formed on at least one side of the support substrate, wherein the coating layer includes a crosslinked copolymer, in which a tri- to hexafunctional acrylate-based monomer and a caprolactone group-containing multifunctional acrylate-based compound are copolymerized at a weight ratio of 5:5 to 8:2, an inorganic fine particle dispersed in the crosslinked copolymer, and a thermosetting resin which is a thermoset product of a prepolymer composition including a polyester-based polyurethane oligomer, a polyol, and a polyisocyanate. a support substrate; and a coating layer formed on at least one side of the support substrate, wherein the coating layer includes a crosslinked copolymer, in which a tri- to hexafunctional acrylate-based monomer and a caprolactone group-containing multifunctional acrylate-based compound are copolymerized at a weight ratio of 5:5 to 8:2, an inorganic fine particle dispersed in the crosslinked copolymer, and a thermosetting resin which is a thermoset product of a prepolymer composition including a polyester-based polyurethane oligomer, a polyol, and a polyisocyanate.
A method for predicting uplink received total power in a CDMA system accessed by mixed services, comprising: step 1, obtaining for each service a characteristic curve of throughput versus uplink received total power in the case of access only using that single service; step 2, obtaining a present uplink received total power of a cell, and a desired service rate and signal to noise ratio of a new calling service; step 3, calculating for the service of the new calling service only a service amount in number of users which would result in a received total power corresponding to the present uplink received total power using said characteristic curve of the new calling service, the service amount calculated being termed the equivalent service amount; and step 4, calculating a prediction value of the uplink received total power by adding one to the equivalent service amount at said service rate and using said characteristic curve of the new calling service determining the uplink received total power which would correspond to the equivalent service amount plus one at said service rate. step 1, obtaining for each service a characteristic curve of throughput versus uplink received total power in the case of access only using that single service; step 2, obtaining a present uplink received total power of a cell, and a desired service rate and signal to noise ratio of a new calling service; step 3, calculating for the service of the new calling service only a service amount in number of users which would result in a received total power corresponding to the present uplink received total power using said characteristic curve of the new calling service, the service amount calculated being termed the equivalent service amount; and step 4, calculating a prediction value of the uplink received total power by adding one to the equivalent service amount at said service rate and using said characteristic curve of the new calling service determining the uplink received total power which would correspond to the equivalent service amount plus one at said service rate.
A wireless power transmitter which wirelessly transmits power through a wireless power repeater including a plurality of repeater resonant coils having resonance frequencies different from each other to a wireless power receiver using resonance, the wireless power transmitter comprising: a power supply unit for outputting AC power having a predetermined frequency, wherein the power supply unit outputs micro-power; a transmission coil for receiving the AC power to generate a time-variable magnetic field; a transmission resonant coil unit for transmitting power received from the transmission coil coupled with the transmission resonant coil, a detecting unit for detecting an internal current value of the wireless power transmitter according to a micro-power transmission; and a control unit for determining a wireless power repeater according to a position of the wireless power receiver based on the internal current variation, wherein the transmission resonant coil unit transmits the power to the wireless power repeater using a resonance frequency according to the wireless power repeater, wherein the wireless power transmitter determines the resonance frequency for the power transmission based on the resonance frequencies of the repeater resonant coils matched to the resonance frequency of the wireless power receiver. a power supply unit for outputting AC power having a predetermined frequency, wherein the power supply unit outputs micro-power; a transmission coil for receiving the AC power to generate a time-variable magnetic field; a transmission resonant coil unit for transmitting power received from the transmission coil coupled with the transmission resonant coil, a detecting unit for detecting an internal current value of the wireless power transmitter according to a micro-power transmission; and a control unit for determining a wireless power repeater according to a position of the wireless power receiver based on the internal current variation, wherein the transmission resonant coil unit transmits the power to the wireless power repeater using a resonance frequency according to the wireless power repeater, wherein the wireless power transmitter determines the resonance frequency for the power transmission based on the resonance frequencies of the repeater resonant coils matched to the resonance frequency of the wireless power receiver.
Galantamine and an antimuscarinic agent for use in preventing or treating organophosphorous poisoning, comprising administering an OP poisoning-inhibiting amount of galantamine to a mammal before exposure to an OP and subsequently administering an effective amount of an antimuscarinic agent after exposure to an OP.
A method, comprising: injecting a single-frequency signal into a transmitter of a direct conversion transceiver to produce a transmitter signal in a radio frequency portion of the transmitter; generating a first phase-shifted signal from the transmitter signal; coupling the first phase-shifted signal to an RF portion of a receiver of the direct conversion transceiver via a loopback path; storing a first set of parameters of a first receiver signal, from the receiver, generated by the first phase-shifted signal; characterized in generating a second phase-shifted signal from the transmitter signal, wherein the loopback path includes a phase-shifting module to generate the second phase-shifted signal from the transmitter signal in the loopback path, wherein the phase angles of the first and second phase-shifted signals differ; storing a second set of parameters of a second receiver signal from the receiver generated by the second phase-shifted signal; and calculating correction parameters for quadrature imbalance via the first and second set of parameters. injecting a single-frequency signal into a transmitter of a direct conversion transceiver to produce a transmitter signal in a radio frequency portion of the transmitter; generating a first phase-shifted signal from the transmitter signal; coupling the first phase-shifted signal to an RF portion of a receiver of the direct conversion transceiver via a loopback path; storing a first set of parameters of a first receiver signal, from the receiver, generated by the first phase-shifted signal; characterized in generating a second phase-shifted signal from the transmitter signal, wherein the loopback path includes a phase-shifting module to generate the second phase-shifted signal from the transmitter signal in the loopback path, wherein the phase angles of the first and second phase-shifted signals differ; storing a second set of parameters of a second receiver signal from the receiver generated by the second phase-shifted signal; and calculating correction parameters for quadrature imbalance via the first and second set of parameters.
A genetically modified microorganism comprising a heterologous nucleic acid sequence from a prokaryotic organism encoding an accA-accD fused subunit, an accB non-fused subunit, and an accC non-fused subunit wherein molar ratios or ratios for accA:accB:accC:accD are about 1:2:1:1, or comprising a heterologous nucleic acid sequence from a prokaryotic organism encoding an accA-accD fused subunit, an accB non-fused subunit, and an accC non-fused subunit wherein molar ratios or ratios for said accDAfusion:accB:accC are about 1:2:1.
A polyolefin composition comprising: a) from 85% to 98% by weight, preferably from 86% to 98% by weight, of a composition comprising: A) a copolymer of butene-1 with ethylene having a copolymerized ethylene content of up to 18% by mole and no melting peak detectable at the DSC at the second heating scan; and B) an inorganic filler, preferably selected from flame-retardant inorganic fillers; the B)/A) weight ratio being from 0.3 to 4, preferably from 0.3 to 3, more preferably from 0.3 to 2.8, in particular from 0.3 to 2.2; b) from 2% to 15% by weight, preferably from 2 % to 14% by weight, of an additional polyolefin different from A); wherein the amounts of a) and b) refer to the total weight of a) + b) and the DSC second heating scan is carried out at a heating rate of 10°C per minute. a) from 85% to 98% by weight, preferably from 86% to 98% by weight, of a composition comprising: A) a copolymer of butene-1 with ethylene having a copolymerized ethylene content of up to 18% by mole and no melting peak detectable at the DSC at the second heating scan; and B) an inorganic filler, preferably selected from flame-retardant inorganic fillers; the B)/A) weight ratio being from 0.3 to 4, preferably from 0.3 to 3, more preferably from 0.3 to 2.8, in particular from 0.3 to 2.2; A) a copolymer of butene-1 with ethylene having a copolymerized ethylene content of up to 18% by mole and no melting peak detectable at the DSC at the second heating scan; and B) an inorganic filler, preferably selected from flame-retardant inorganic fillers; b) from 2% to 15% by weight, preferably from 2 % to 14% by weight, of an additional polyolefin different from A);
A skirt element for use in a flashing for a roof penetrating structure and comprising a skirt member (320, 420) intended to rest on an exterior roof surface, said skirt element having an interior side intended for facing the exterior roof surface and an exterior side intended for facing the exterior in the mounted state, said skirt member (320, 420) comprising a first edge (31, 331, 431) intended to be arranged at the roof penetrating structure, a second edge (32, 332, 432) opposite the first edge (31, 331, 431) and intended to rest on the exterior roof surface and two end edges (33, 34; 333, 334) extending between the first and second edges, and comprising an adhesive layer (324, 424) on the interior side of the skirt member (320, 420) and a cover layer (325, 425) covering the adhesive layer (324, 424) in a state of delivery of the skirt element, wherein in the state of delivery of the skirt element, a part of the cover layer (325, 425) is visible from the exterior side, characterized in that the cover layer (325, 425) is folded along a fold line (326, 426), thereby defining two sections of the material on opposite sides of the fold line (326, 426), and arranged with the fold line (326, 426) extending on the interior side of the skirt element substantially in parallel with the second edge (32, 332, 432) of the skirt member (320, 420) and at least one of the two sections of the cover layer (325, 425) being visible from the exterior side.
A toothbrush monitoring device (1, 21), comprising: a sensor apparatus for producing data during use of a toothbrush (9, 10), a memory for storing reference data, a comparator for comparing said produced data with said reference data stored in the memory, and an indicator (6, 20) responsive to said comparator for indicating to the user whether or not the produced data corresponds to the reference data, characterized in that said sensor apparatus consists only of an accelerometer, which is configured to produce data indicating inclination of the toothbrush (9, 10) during use, and that said monitoring device (1, 21) comprises a switch for setting said monitoring device (1, 21) into a teaching mode, wherein the data produced by the accelerometer is stored into said memory for use as reference data during subsequent use of the toothbrush (9, 10), and said comparator is configured to identify such brush positions indicated by the reference data which cannot be found in the produced data, to utilize said identified brush positions to identify regions (L-U) of the teeth which should have been brushed with such brush positions, and to indicate to the user the identified regions with said indicator a sensor apparatus for producing data during use of a toothbrush (9, 10), a memory for storing reference data, a comparator for comparing said produced data with said reference data stored in the memory, and an indicator (6, 20) responsive to said comparator for indicating to the user whether or not the produced data corresponds to the reference data, characterized in
A pipe joint for offshore fabrication and installation of a pipeline in a J-lay operation, the pipe joint comprising: a length of pipe; and a thermally-insulating coating around the length of pipe; the pipe joint having a radially outer surface shaped to define a series of external radially-projecting hold-back formations disposed in longitudinal succession along the pipe joint, the hold-back formations being configured to facilitate suspending of the pipe joint during the J-lay operation, each hold-back formation being a ridge that extends continuously around the pipe joint circumferentially; wherein the coating extends continuously along the pipe on a radially inner side of each hold-back formation and is interposed between each hold-back formation and the pipe; characterised in that when a central longitudinal axis of the pipe joint is upright, a downwardly-facing face of each hold-back formation has a substantially frusto-conical surface inclined at an acute angle relative to the central longitudinal axis of the pipe joint. a length of pipe; and a thermally-insulating coating around the length of pipe;