mhurhangee/ep-ind-claims huggingface dataset:
Method for time validation in a vehicle, the method comprising: - receiving a first position information at a receiving unit (21, 22) of the vehicle, the received first position information comprises a first time information, - providing a first timestamp to the received first position information based on a vehicle time at the time of receiving the first position information, - receiving a second position information at the receiving unit (21, 22) of the vehicle, the received second position information comprises a second time information, - providing a second timestamp to the received second position information based on the vehicle time at the time of receiving the second position information, the method characterized by: - determining if a difference between the first and the second time information and a difference between the first and the second timestamp are the same and/or if a deviation between the two differences is below a predefined threshold. - receiving a first position information at a receiving unit (21, 22) of the vehicle, the received first position information comprises a first time information, - providing a first timestamp to the received first position information based on a vehicle time at the time of receiving the first position information, - receiving a second position information at the receiving unit (21, 22) of the vehicle, the received second position information comprises a second time information, - providing a second timestamp to the received second position information based on the vehicle time at the time of receiving the second position information, the method characterized by: - determining if a difference between the first and the second time information and a difference between the first and the second timestamp are the same and/or if a deviation between the two differences is below a predefined threshold.
A test method for checking the anti-pinching function of a motorized window lifter device of a motor vehicle, the method comprising the following steps: - controlling said motorized window lifter device to move a glass along a movement direction towards a closed position, in which said glass completely closes a window of said motor vehicle, said window lifter device being adapted to automatically reverse the translation direction when the movement of said glass is hindered before it reaches said closed position; - hindering the translation of said glass towards said closed position by means of a test obstacle; and - measuring by means of a sensor device an impact force exerted on said test obstacle at the moment of the reversing of the translation direction; wherein said sensor device is fastened to said glass and said test obstacle comprises an abutment element, which is arranged in a fixed position and is aligned with respect to said sensor device along an impact direction parallel to said direction of movement such to be impacted by said sensor device during the translation of said glass towards said closed position; characterized in that said sensor device is arranged completely out of the path followed by said glass in said window. - controlling said motorized window lifter device to move a glass along a movement direction towards a closed position, in which said glass completely closes a window of said motor vehicle, said window lifter device being adapted to automatically reverse the translation direction when the movement of said glass is hindered before it reaches said closed position; - hindering the translation of said glass towards said closed position by means of a test obstacle; and - measuring by means of a sensor device an impact force exerted on said test obstacle at the moment of the reversing of the translation direction; wherein said sensor device is fastened to said glass and said test obstacle comprises an abutment element, which is arranged in a fixed position and is aligned with respect to said sensor device along an impact direction parallel to said direction of movement such to be impacted by said sensor device during the translation of said glass towards said closed position;
Method for manufacturing an ion sensor based on an optical fibre, this method comprising the following steps: - cleavage of the optical fibre, with free hydroxyl groups appearing on the cleaved surface, - grafting a layer of trifunctional silane directly on free hydroxyl groups having thus appeared on the cleaved surface of the optical fibre, without a prior exogenous activation step, - grafting a layer of difunctional silane on the cleaved surface of the optical fibre, - grafting a fluorescent dye. - cleavage of the optical fibre, with free hydroxyl groups appearing on the cleaved surface, - grafting a layer of trifunctional silane directly on free hydroxyl groups having thus appeared on the cleaved surface of the optical fibre, without a prior exogenous activation step, - grafting a layer of difunctional silane on the cleaved surface of the optical fibre, - grafting a fluorescent dye.
A battery pack, comprising: a case, comprising an accommodating cavity and a drain hole in communication with the accommodating cavity; a battery module contained in the accommodating cavity; and a blocking member mounted to the case and being disposed on one side of the battery module in a width direction; wherein at least a part of the blocking member is arranged between the battery module and the drain hole to block a binder for fixing the battery module from entering the drain hole; wherein the blocking member is mounted to a wall of the case, and a notch is provided at one end of the blocking member connected to the wall, the notch penetrates the blocking member along a thickness direction of the blocking member; the notch is configured to enable that liquid within the accommodating cavity flows into the drain hole via the notch; wherein the blocking member comprises: a first blocking portion fixedly connected to the case; a second blocking portion located on one side of the first blocking portion away from the battery module, and fixedly connected to the case; wherein the drain hole is located between the first blocking portion and the second blocking portion, and at least one of the first blocking portion and the second blocking portion is provided with the notch. a case, comprising an accommodating cavity and a drain hole in communication with the accommodating cavity; a battery module contained in the accommodating cavity; and a blocking member mounted to the case and being disposed on one side of the battery module in a width direction; wherein at least a part of the blocking member is arranged between the battery module and the drain hole to block a binder for fixing the battery module from entering the drain hole; wherein the blocking member is mounted to a wall of the case, and a notch is provided at one end of the blocking member connected to the wall, the notch penetrates the blocking member along a thickness direction of the blocking member; the notch is configured to enable that liquid within the accommodating cavity flows into the drain hole via the notch; wherein the blocking member comprises: a first blocking portion fixedly connected to the case; a second blocking portion located on one side of the first blocking portion away from the battery module, and fixedly connected to the case; wherein the drain hole is located between the first blocking portion and the second blocking portion, and at least one of the first blocking portion and the second blocking portion is provided with the notch. a first blocking portion fixedly connected to the case; a second blocking portion located on one side of the first blocking portion away from the battery module, and fixedly connected to the case; wherein the drain hole is located between the first blocking portion and the second blocking portion, and at least one of the first blocking portion and the second blocking portion is provided with the notch.
A method for forming a piezoelectric coating on a power line cable, the method comprising: feeding the power line cable through a sol-gel material comprising a piezoelectric material, wherein the feeding forms an uncured layer of the sol-gel material at least on an outer surface of the power line cable; and curing the uncured layer of the sol-gel material, wherein the curing forms the piezoelectric coating on the power line cable, the piezoelectric coating comprising the piezoelectric material. feeding the power line cable through a sol-gel material comprising a piezoelectric material, wherein the feeding forms an uncured layer of the sol-gel material at least on an outer surface of the power line cable; and curing the uncured layer of the sol-gel material, wherein the curing forms the piezoelectric coating on the power line cable, the piezoelectric coating comprising the piezoelectric material.
Coupling electrode for capacitive voltage tapping within an insulating body of a component (8, 18) which has at least one conductor section (10, 19) which is embedded in the insulating body and to which a high-voltage potential can be applied, having an electrode section which is composed of a semiconductive plastic, and having a connecting element which is electrically connected to the electrode section and is designed such that it can be passed out of the insulating body, characterized by a holder which is composed of a non-conductive material, is connected to the electrode section and has the positioning means, which allow isolated mounting of the electrode section, and in that the holder has a holding ring which is connected to the electrode section.
A hot melt adhesive composition comprising a thermoplastic polyurethane copolymer, wherein the thermoplastic polyurethane copolymer comprises a reaction product of at least one polyester polyol obtained by the condensation of one or more polyhydric alcohol with 2 to 30 carbon atoms with one or more polycarboxylic acid having 2 to 30 carbon atoms; and optionally a chain extender; and at least one polyisocyanate which is selected from 4,4'-diphenylmethanediisocyanate, 2,2'-diphenylmethane diisocyanate, diphenyl methane 2,4'-diisocyanate, 1,3-phenylenediisocyanate, 1,4-phenylenediisocyanate, naphthalene-1,5-diisocyanate, toluene diisocyanate, tetramethyl xylylene diisocyanate, di- and tetraalkyl diphenylmethane diisocyanate, 4,4'-dibenzyl diisocyanate, dodecane diisocyanate, dimer fatty acid diisocyanate, 1,6-diisocyanato-2,2,4-trimethylhexane, butane-1,4-diisocyanate, hexane-1,6-diisocyanate, tetramethoxybutane-1,4-diisocyanate, dicyclohexylmethanediisocyanate, 1,12-diisocyanato-dodecane, 4,4-dicyclohexylmethanediisocyanate, 1,3-cyclohexane or 1,4-cyclohexene diisocyanate, 1-methyl-2,4-diisocyanato-cyclohexane, 1-isocyanatomethyl-3-isocyanato-1,5,5-trimethylcyclohexane, hydrogenated or partly hydrogenated MDI, xylylenediisocyanate, tetramethyl-xylylenediisocyanate, di- and tetraalkylenediphenylmethane-diisocyanate, and combinations thereof; wherein the molar ratio of the NCO groups of the polyisocyanate to the OH groups of the polyester polyol is less than 0.95:1; wherein the viscosity of the thermoplastic polyurethane copolymer is 1,000 to 100,000 mPas at 160°C; wherein the thermoplastic polyurethane copolymer is thermally stable; and wherein the thermal stability is defined as a viscosity change of less than ± 10 % compared to the initial viscosity of the thermoplastic polyurethane copolymer after 6 hours at 160 °C, wherein the at least one polyester polyol comprises a) at least one semi-crystalline polyester polyol having a melting point (T m) of from 40 to 150 °C; and b) at least one non-crystalline polyester polyol, and whereby the melting point (T m) and the viscosity are measured as described in the example section of the description. a) at least one semi-crystalline polyester polyol having a melting point (T m) of from 40 to 150 °C; and b) at least one non-crystalline polyester polyol, and
A hand-held image stabilization and balancing system for cameras, said system comprising: a main body part including a generally C-shaped member having a central section and upper and lower arms (114, 118) extending therefrom and defining a plane; a camera mounting platform mounted at the upper arm of the C-shaped member, a joint at the free end of the upper arm, mounting the camera mounting platform to the main body part; a support stand having at least one leg, a hand grip having top and bottom ends (210a, 210b); means for movably securing the top end of the hand grip to the top portion of the C-shaped member; and means located at the bottom end of the hand grip for releasably locking the hand grip in a fixed position to the C-shaped member; characterized in that the lower arm of the C-shaped member is longer than the upper arm of the C-shaped member, a pivoting plate pivotably mounted at the free end of the lower arm of the C-shaped member for pivoting about a pivot axis perpendicular to the plane of the C-shaped member, the pivoting plate having a tripod mounting surface; and the support stand being mounted to the tripod mounting surface of the pivoting plate. a main body part including a generally C-shaped member having a central section and upper and lower arms (114, 118) extending therefrom and defining a plane; a camera mounting platform mounted at the upper arm of the C-shaped member, a joint at the free end of the upper arm, mounting the camera mounting platform to the main body part; a support stand having at least one leg, a hand grip having top and bottom ends (210a, 210b); means for movably securing the top end of the hand grip to the top portion of the C-shaped member; and means located at the bottom end of the hand grip for releasably locking the hand grip in a fixed position to the C-shaped member; characterized in that the lower arm of the C-shaped member is longer than the upper arm of the C-shaped member, a pivoting plate pivotably mounted at the free end of the lower arm of the C-shaped member for pivoting about a pivot axis perpendicular to the plane of the C-shaped member, the pivoting plate having a tripod mounting surface; and the support stand being mounted to the tripod mounting surface of the pivoting plate.
A robotic gripping device comprising: a finger having a worm gear coupled to a base end of the finger, wherein the shape of the worm gear is a partial circle; an actuator having a motor and a shaft, wherein the shaft is configured to rotate a worm coupled to the worm gear, and wherein the actuator is mounted on a carriage such that the actuator is configured to slide along an axis; and a spring having a first end and a second end, wherein the first end is coupled to the motor of the actuator and the second end is fixed, such that the actuator is held in a first position along the axis when the spring is at equilibrium; wherein the actuator is configured to: rotate the shaft relative to the motor by a first amount, thereby rotating the worm and the worm gear to move the finger toward an object; when the finger is in contact with the object and the finger is prevented from further movement, further rotate the shaft relative to the motor to slide the actuator along the axis to a second position at which the spring is no longer at equilibrium, and to disengage the worm from the worm gear when a torque greater than a threshold torque is applied to the finger. a finger having a worm gear coupled to a base end of the finger, wherein the shape of the worm gear is a partial circle; an actuator having a motor and a shaft, wherein the shaft is configured to rotate a worm coupled to the worm gear, and wherein the actuator is mounted on a carriage such that the actuator is configured to slide along an axis; and a spring having a first end and a second end, wherein the first end is coupled to the motor of the actuator and the second end is fixed, such that the actuator is held in a first position along the axis when the spring is at equilibrium; wherein the actuator is configured to: rotate the shaft relative to the motor by a first amount, thereby rotating the worm and the worm gear to move the finger toward an object; when the finger is in contact with the object and the finger is prevented from further movement, further rotate the shaft relative to the motor to slide the actuator along the axis to a second position at which the spring is no longer at equilibrium, and to disengage the worm from the worm gear when a torque greater than a threshold torque is applied to the finger. rotate the shaft relative to the motor by a first amount, thereby rotating the worm and the worm gear to move the finger toward an object; when the finger is in contact with the object and the finger is prevented from further movement, further rotate the shaft relative to the motor to slide the actuator along the axis to a second position at which the spring is no longer at equilibrium, and to disengage the worm from the worm gear when a torque greater than a threshold torque is applied to the finger.
A detection cell for a chromatography system, the detection cell comprising: a cell body having an inlet and an outlet, wherein the cell body includes a counter electrode; a working electrode block including a working electrode; a fluid sample passageway extending between the inlet and the outlet and in fluid contact with the working electrode and the counter electrode; and characterised by a reference electrode system including an auxiliary electrode and a palladium/hydrogen (PdH) reference electrode, wherein the auxiliary electrode is in fluidic contact with the outlet and is connected, directly or indirectly, to a positive pole of a power supply, and wherein the PdH reference electrode is in fluidic contact with the fluid sample passageway and is connected, directly or indirectly, to a negative pole of the power supply. a cell body having an inlet and an outlet, wherein the cell body includes a counter electrode; a working electrode block including a working electrode; a fluid sample passageway extending between the inlet and the outlet and in fluid contact with the working electrode and the counter electrode; and characterised by a reference electrode system including an auxiliary electrode and a palladium/hydrogen (PdH) reference electrode, wherein the auxiliary electrode is in fluidic contact with the outlet and is connected, directly or indirectly, to a positive pole of a power supply, and wherein the PdH reference electrode is in fluidic contact with the fluid sample passageway and is connected, directly or indirectly, to a negative pole of the power supply.
Tyre weave embedded into two rubber mixture strips for production of strengthening element plies for tyres, especially pneumatic vehicle tyres, • where the weave is a plain weave and • where the weave has a first warp thread system with first warp threads (1, 11) and a weft thread system having weft threads, characterized in that • the first warp threads (1, 11) are bound into the weave without insertion, • the weave has a second warp thread system composed of second warp threads and • the second warp threads are bound into the weave with insertion. • where the weave is a plain weave and • where the weave has a first warp thread system with first warp threads (1, 11) and a weft thread system having weft threads, • the first warp threads (1, 11) are bound into the weave without insertion, • the weave has a second warp thread system composed of second warp threads and • the second warp threads are bound into the weave with insertion.
Chain link for anti-skid chains of vehicle tyres, having a lower side for bearing on a tyre tread of a vehicle tyre and having an upper side on which, in order to improve the grip properties, in particular on a smooth base, at least two spikes project from the chain link, which are arranged offset to one another laterally and in the longitudinal direction thereof, characterized in that the spikes are arranged so that they, in the mounted state of the anti-skid chain, are inclined at an angle (α) in the range from 70° to 78° with respect to the tyre tread, wherein each spike has, perpendicular to its longitudinal extent, a cross-section, the outer edge of which has a wave-like circumferential design of consecutive wave troughs and wave crests, wherein furthermore at least six wave troughs and six wave crests are provided, and the wave crests in their radially outwardly lying region and the wave troughs in their radially inwardly lying region have in each case a profile (R 1, R 2) which has a circular arc shape in cross-section, wherein these profiles with a circular arc shape run tangentially into one another at their ends which face one another.
An exhaust gas treatment device comprising: a filter that collects particulate matter included in exhaust gas flowing through an exhaust passage of an engine mounted on a vehicle; a temperature increasing unit (56c,56a) that increases a temperature of the exhaust gas flowing into the filter; and a controller that performs regeneration control for burning the particulate matter accumulated in the filter by the exhaust gas having the temperature increased by the temperature increasing unit, wherein the controller performs control for decreasing an outlet temperature of the exhaust passage, when the outlet temperature exceeds a determination value as a result of performance of the regeneration control while the vehicle is in a stop state, and the controller decreases a rotation speed of the engine as the control for decreasing the outlet temperature, the exhaust gas treatment device being characterized in that the controller suppresses the regeneration control as additional control for decreasing the outlet temperature, when the outlet temperature exceeds a determination value higher than the determination value after the rotation speed of the engine is decreased. a filter that collects particulate matter included in exhaust gas flowing through an exhaust passage of an engine mounted on a vehicle; a temperature increasing unit (56c,56a) that increases a temperature of the exhaust gas flowing into the filter; and a controller that performs regeneration control for burning the particulate matter accumulated in the filter by the exhaust gas having the temperature increased by the temperature increasing unit, wherein the controller performs control for decreasing an outlet temperature of the exhaust passage, when the outlet temperature exceeds a determination value as a result of performance of the regeneration control while the vehicle is in a stop state, and the controller decreases a rotation speed of the engine as the control for decreasing the outlet temperature, the exhaust gas treatment device being characterized in that the controller suppresses the regeneration control as additional control for decreasing the outlet temperature, when the outlet temperature exceeds a determination value higher than the determination value after the rotation speed of the engine is decreased.
An inhibitor of colony stimulating factor 1 receptor (CSF-1R) activity for use in the treatment and/or prophylaxis of pulmonary fibrosis, wherein the inhibitor is an antibody or functionally active fragment thereof and wherein the antibody or fragment thereof binds to CSF-1R.