mhurhangee/ep-ind-claims huggingface dataset:
A liquid composition suitable to be incorporated in a partially or totally molten polymer, comprising enzymes having a polymer-degrading activity, a carrier and an aqueous solvent, wherein i) the carrier is a polysaccharide selected from starch derivatives, natural gums, marine extracts, microbial polysaccharides and animal polysaccharides, and ii) the composition comprises, based on the total weight of the composition: - from 0.01 % to 35 % by weight of enzymes having a polymer-degrading activity, - from 15 % to 95 % by weight of the aqueous solvent, - from 3 % to 80 % by weight of carrier. wherein the liquid composition is in a liquid form at least at ambient temperature. i) the carrier is a polysaccharide selected from starch derivatives, natural gums, marine extracts, microbial polysaccharides and animal polysaccharides, and ii) the composition comprises, based on the total weight of the composition: - from 0.01 % to 35 % by weight of enzymes having a polymer-degrading activity, - from 15 % to 95 % by weight of the aqueous solvent, - from 3 % to 80 % by weight of carrier. wherein the liquid composition is in a liquid form at least at ambient temperature. - from 0.01 % to 35 % by weight of enzymes having a polymer-degrading activity, - from 15 % to 95 % by weight of the aqueous solvent, - from 3 % to 80 % by weight of carrier.
A mobile terminal, comprising a housing and a camera assembly, wherein a through hole is arranged in a frame of the housing; the camera assembly comprises a camera, a support for installing the camera, an electric motor and a push-and-pull rod; the electric motor is fixed to the housing and is electrically coupled to a circuit board of the mobile terminal; the electric motor is provided with a threaded rod, a first end of the push-and-pull rod is provided with a threaded tube which fits with the threaded rod, the threaded tube is sleeved on the threaded rod, and a second end of the push-and-pull rod is coupled to the support; when the electric motor is actuated, the threaded rod rotates and drives the push-and-pull rod to advance or retreat along the threaded rod, the push-and-pull rod drives the support to move, such that the camera is extended out of or retracted into the housing through the through hole; characterized in that, the camera assembly further comprises an elastic component, an end of the elastic component is coupled to the support, and an other end of the elastic component is coupled to the second end of the push-and-pull rod. a through hole is arranged in a frame of the housing; the camera assembly comprises a camera, a support for installing the camera, an electric motor and a push-and-pull rod; the electric motor is fixed to the housing and is electrically coupled to a circuit board of the mobile terminal; the electric motor is provided with a threaded rod, a first end of the push-and-pull rod is provided with a threaded tube which fits with the threaded rod, the threaded tube is sleeved on the threaded rod, and a second end of the push-and-pull rod is coupled to the support; when the electric motor is actuated, the threaded rod rotates and drives the push-and-pull rod to advance or retreat along the threaded rod, the push-and-pull rod drives the support to move, such that the camera is extended out of or retracted into the housing through the through hole; characterized in that, the camera assembly further comprises an elastic component, an end of the elastic component is coupled to the support, and an other end of the elastic component is coupled to the second end of the push-and-pull rod.
Triggering monitoring device for a deformation tube with two tubes parts (3.1, 3.2) which can be slid one into the other counter to a resistance in a coupling, in particular train coupling, with the following features: with a housing which has a connection for connecting to the deformation tube, and at least one action surface for acting upon a tube part (3.1, 3.2) during its displacement in relation to the other tube part (3.1, 3.2) of the deformation tube; wherein the housing can be deformed by the tube part (3.1, 3.2) acting on the action surface; characterized in that a sensor is provided in or on the housing, the sensor detecting a deformation of the housing and being configured to transmit a detection of deformation to an evaluation device. with a housing which has a connection for connecting to the deformation tube, and at least one action surface for acting upon a tube part (3.1, 3.2) during its displacement in relation to the other tube part (3.1, 3.2) of the deformation tube; wherein the housing can be deformed by the tube part (3.1, 3.2) acting on the action surface; characterized in that a sensor is provided in or on the housing, the sensor detecting a deformation of the housing and being configured to transmit a detection of deformation to an evaluation device.
A method of transmitting a sounding reference signal, SRS, the method performed by a user equipment in a wireless communication system supporting multiple antenna ports and a plurality of numerologies, the method comprising: identifying whether a periodic SRS transmission or a semi-persistent SRS transmission is configured; calculating, in case that the periodic SRS transmission or the semi-persistent SRS transmission is configured, an SRS transmission count based on a slot number within a frame for a numerology of the plurality of numerologies, a number of slots per frame for the numerology, an SRS periodicity, a number of SRS symbols, an SRS repetition factor and a system frame number, and identifying a frequency position for the SRS mapped to at least one antenna port of the multiple antenna ports based on the SRS transmission count; and transmitting the SRS, by using frequency hopping based on the frequency position for the SRS mapped to the at least one antenna port. identifying whether a periodic SRS transmission or a semi-persistent SRS transmission is configured; calculating, in case that the periodic SRS transmission or the semi-persistent SRS transmission is configured, an SRS transmission count based on a slot number within a frame for a numerology of the plurality of numerologies, a number of slots per frame for the numerology, an SRS periodicity, a number of SRS symbols, an SRS repetition factor and a system frame number, and identifying a frequency position for the SRS mapped to at least one antenna port of the multiple antenna ports based on the SRS transmission count; and transmitting the SRS, by using frequency hopping based on the frequency position for the SRS mapped to the at least one antenna port.
A device for reversing an articulated vehicle combination comprising at least two vehicle units (2, 3, 4) interconnected via at least one articulated joint (5, 8), comprising - means for recording and storing a plurality of global positions (G1,... GN) of a local position of the vehicle combination, - at least one sensor, mounted on the vehicle combination, for recording data representing a plurality properties of the surroundings, and - a control unit arranged to determine, based at least partly on a plurality of dimensions (In, Wn, Leqn, Xnr) of the vehicle combination, a set of global positions (G1,... GN) recorded when the vehicle combination is moving forward, and a set of data representing properties of the surroundings recorded during said forward movement, vehicle control input data for control of the vehicle combination during a reverse movement of the vehicle combination, - characterized in that - the control unit is adapted to identify properties of the surroundings, including asphalt and grass, by a signal analysis function, in the form of an image analysis function, - in that the control unit is arranged to determine a swept area (SA, ASA) of the vehicle combination based at least on the set of global positions (G1,... GN), and to determine the vehicle control input data partly based on the swept area (SA, ASA), - and in that the control unit is arranged to simulate a reverse movement of the vehicle combination, and to determine the swept area (SA, ASA) partly based on the simulated reverse movement. - means for recording and storing a plurality of global positions (G1,... GN) of a local position of the vehicle combination, - at least one sensor, mounted on the vehicle combination, for recording data representing a plurality properties of the surroundings, and - a control unit arranged to determine, based at least partly on a plurality of dimensions (In, Wn, Leqn, Xnr) of the vehicle combination, a set of global positions (G1,... GN) recorded when the vehicle combination is moving forward, and a set of data representing properties of the surroundings recorded during said forward movement, vehicle control input data for control of the vehicle combination during a reverse movement of the vehicle combination, - characterized in that - the control unit is adapted to identify properties of the surroundings, including asphalt and grass, by a signal analysis function, in the form of an image analysis function, - in that the control unit is arranged to determine a swept area (SA, ASA) of the vehicle combination based at least on the set of global positions (G1,... GN), and to determine the vehicle control input data partly based on the swept area (SA, ASA), - and in that the control unit is arranged to simulate a reverse movement of the vehicle combination, and to determine the swept area (SA, ASA) partly based on the simulated reverse movement.
A smart artefact having first interfacing means, active within a first range, for initiating an interactive session with a user terminal, and second interfacing means, active within a second range that extends beyond said first range, CHARACTERIZED IN THAT said smart artefact further has: handover means for transferring said interactive session from said first interfacing means towards said second interfacing means for continuing said interactive session with said user terminal through said second interfacing means; and further in that: said first interfacing means contain haptic or tactile aspects requiring said user terminal to touch said smart artefact to initiate said interactive session. handover means for transferring said interactive session from said first interfacing means towards said second interfacing means for continuing said interactive session with said user terminal through said second interfacing means; and further in that: said first interfacing means contain haptic or tactile aspects requiring said user terminal to touch said smart artefact to initiate said interactive session. said first interfacing means contain haptic or tactile aspects requiring said user terminal to touch said smart artefact to initiate said interactive session.
An assembly type rod (500, 1100), comprising: a front bite rod (510, 1010, 1110), a middle part of the bite rod (510, 1010, 1110) placeable between maxillary and mandibular anterior teeth of a user in order to obtain midline, a symmetry of arches and information of frontal plane parallel to an interpupillary line, wherein an occlusal plane is measured by obtaining information of frontal plane parallel to the interpupillary line of the user through the bite rod, further including extension parts (520, 1120) coupled to both ends of the bite rod, and extended in parallel to a line that connects an ala of nose and middles of ears on both sides of user in order to obtain information on Camper's lines, wherein the bite rod (510, 1010, 1110) comprises a scale part (511, 1111) enabling a length of anatomical references to be checked when a fixed or removable prosthesis is fabricated, characterised in that the extension parts include ball-shaped coupling parts, respectively, coupled to the bite rod (510, 1010, 1110) in a ball & socket form, and since the extension parts can be rotated in the state of being connected with the bite rod (510, 1010, 1110), it is possible to adjust and fix them in parallel with the Camper's line on both lateral sides, and wherein the bite rod (510, 1010, 1110) is coupled to or separated from the extension parts through the coupling parts. a front bite rod (510, 1010, 1110), a middle part of the bite rod (510, 1010, 1110) placeable between maxillary and mandibular anterior teeth of a user in order to obtain midline, a symmetry of arches and information of frontal plane parallel to an interpupillary line, wherein an occlusal plane is measured by obtaining information of frontal plane parallel to the interpupillary line of the user through the bite rod, further including extension parts (520, 1120) coupled to both ends of the bite rod, and extended in parallel to a line that connects an ala of nose and middles of ears on both sides of user in order to obtain information on Camper's lines, wherein the bite rod (510, 1010, 1110) comprises a scale part (511, 1111) enabling a length of anatomical references to be checked when a fixed or removable prosthesis is fabricated, characterised in that the extension parts include ball-shaped coupling parts, respectively, coupled to the bite rod (510, 1010, 1110) in a ball & socket form, and since the extension parts can be rotated in the state of being connected with the bite rod (510, 1010, 1110), it is possible to adjust and fix them in parallel with the Camper's line on both lateral sides, and wherein the bite rod (510, 1010, 1110) is coupled to or separated from the extension parts through the coupling parts.
A pharmaceutical formulation for oral administration comprising tamsulosin hydrochloride-containing sustained-release pellets, each pellet comprising (i) tamsulosin hydrochloride, (ii) hydroxypropyl methylcellulose (HPMC), (iii) an acid-resistant acrylic polymer, and (iv) two or more kinds of insoluble diluent, wherein the pharmaceutical formulation for oral administration is prepared by a method comprising: (a) mixing and extruding a mixture comprising (i) tamsulosin hydrochloride, (ii) hydroxypropyl methylcellulose (HPMC), (iii) an acid-resistant acrylic polymer, and (iv) two or more kinds of insoluble diluent to mold the mixture in the form of granules; and (b) spheronizing the extruded granules using a spheronizer at a rotation speed of about 600 rpm to about 800 rpm for about 10 minutes to about 45 minutes to prepare pellets, wherein the sustained-release pellets each comprise (i) 0.07% by weight to 0.50% by weight of tamsulosin hydrochloride, (ii) 1.0% by weight to 7.0% by weight of hydroxypropyl methylcellulose (HPMC), (iii) 3.0% by weight to 20.0% by weight of an acid-resistant acrylic polymer, and (iv) 70.0% by weight to 95.9% by weight of two or more kinds of insoluble diluent, based on a dry pellet, and wherein the hydroxypropyl methylcellulose (HPMC) has a viscosity of 10000 cPs to 100000 cPs (10 Pa.s to 100 Pa.s). wherein the pharmaceutical formulation for oral administration is prepared by a method comprising: (a) mixing and extruding a mixture comprising (i) tamsulosin hydrochloride, (ii) hydroxypropyl methylcellulose (HPMC), (iii) an acid-resistant acrylic polymer, and (iv) two or more kinds of insoluble diluent to mold the mixture in the form of granules; and (b) spheronizing the extruded granules using a spheronizer at a rotation speed of about 600 rpm to about 800 rpm for about 10 minutes to about 45 minutes to prepare pellets, (a) mixing and extruding a mixture comprising (i) tamsulosin hydrochloride, (ii) hydroxypropyl methylcellulose (HPMC), (iii) an acid-resistant acrylic polymer, and (iv) two or more kinds of insoluble diluent to mold the mixture in the form of granules; and (b) spheronizing the extruded granules using a spheronizer at a rotation speed of about 600 rpm to about 800 rpm for about 10 minutes to about 45 minutes to prepare pellets, wherein the sustained-release pellets each comprise (i) 0.07% by weight to 0.50% by weight of tamsulosin hydrochloride, (ii) 1.0% by weight to 7.0% by weight of hydroxypropyl methylcellulose (HPMC), (iii) 3.0% by weight to 20.0% by weight of an acid-resistant acrylic polymer, and (iv) 70.0% by weight to 95.9% by weight of two or more kinds of insoluble diluent, based on a dry pellet, and wherein the hydroxypropyl methylcellulose (HPMC) has a viscosity of 10000 cPs to 100000 cPs (10 Pa.s to 100 Pa.s).
Rail vehicle, comprising: - a rail vehicle outer wall having a door opening; - a sliding door, which is set back relative to the rail vehicle outer wall towards an inner region of the rail vehicle and which, in the closed state, covers the door opening; - a door frame on an edge region of the door opening; - and wherein a gap sealed with a sealing element is formed between the sliding door, in the closed state, and the door frame; characterized by - an aerodynamic door panel, which is oriented along the door frame, is fastened to the door frame, spatially distanced from the door frame and the sliding door, extends in the vertical extent of the sliding door and is arranged in front of the gap. - a rail vehicle outer wall having a door opening; - a sliding door, which is set back relative to the rail vehicle outer wall towards an inner region of the rail vehicle and which, in the closed state, covers the door opening; - a door frame on an edge region of the door opening; - and wherein a gap sealed with a sealing element is formed between the sliding door, in the closed state, and the door frame; characterized by - an aerodynamic door panel, which is oriented along the door frame, is fastened to the door frame, spatially distanced from the door frame and the sliding door, extends in the vertical extent of the sliding door and is arranged in front of the gap.
A composite laminated article comprising: a first layer of a closed cell foam of a thermoplastic material, and a second layer of a fibre-reinforced resin, the resin adhering a surface of the second layer to a surface of the first layer, wherein the closed cell foam has an average cell size, the cell size being substantially homogeneous in the closed cell foam, of less than 100 microns.
Light-emitting diode chip, comprising: - a semiconductor body having a first and a second region; - an active zone within the semiconductor body, which active zone, during the operation of the light-emitting diode chip, emits electromagnetic radiation through a radiation coupling-out area formed at least in places by a first main area of the semiconductor body, wherein - an area of the semiconductor body which lies opposite the first main area of the light-emitting diode chip is provided with a reflector layer, - the light-emitting diode chip comprises a carrier element and the reflector layer is arranged between the carrier element and the semiconductor body, wherein the semiconductor body is fixed to the carrier element by means of a connecting material, - at least one trench in the semiconductor body wherein parts of the semiconductor body are removed in the region of the trench, wherein - the at least one trench extends at least as far as the active zone, - the at least one trench completely surrounds the first region in a lateral direction, and - the second region completely surrounds the at least one trench and the first region in a lateral direction, characterized in that: - the at least one trench extends through the reflector layer, and - all side areas and a base area of the at least one trench are covered completely by a passivation layer, - the connecting material is in direct contact with the passivation layer in the regions of the light-emitting diode chip which have been removed from the reflector layer. - a semiconductor body having a first and a second region; - an active zone within the semiconductor body, which active zone, during the operation of the light-emitting diode chip, emits electromagnetic radiation through a radiation coupling-out area formed at least in places by a first main area of the semiconductor body, wherein - an area of the semiconductor body which lies opposite the first main area of the light-emitting diode chip is provided with a reflector layer, - the light-emitting diode chip comprises a carrier element and the reflector layer is arranged between the carrier element and the semiconductor body, wherein the semiconductor body is fixed to the carrier element by means of a connecting material, - at least one trench in the semiconductor body wherein parts of the semiconductor body are removed in the region of the trench, wherein - the at least one trench extends at least as far as the active zone, - the at least one trench completely surrounds the first region in a lateral direction, and - the second region completely surrounds the at least one trench and the first region in a lateral direction, - the at least one trench extends through the reflector layer, and - all side areas and a base area of the at least one trench are covered completely by a passivation layer, - the connecting material is in direct contact with the passivation layer in the regions of the light-emitting diode chip which have been removed from the reflector layer.
Method for controlling an inverter supplying power to a motor of an aircraft fan, the inverter comprising a plurality of controlled switches (30A, 30B, 32A, 32B, 34A, 34B) for regulating the power supply to the motor, the motor comprising a rotor and a stator which are adapted to be in rotation relative to one another, the method being characterised in that it comprises the following steps: - generating a periodic time count (C 1), - deriving a duty cycle setpoint, said duty cycle setpoint being constant during each period of the time count (C 1) and being equal to the value of a reference duty cycle (RC 0) at the start of each new period of the time count (C 1), - generating a cyclic digital signal for controlling the switches (30A, 30B, 32A, 32B, 34A, 34B), at a predetermined frequency, the cyclic digital signal being derived by comparing the time count (C 1) with the duty cycle setpoint, - transmitting the cyclic digital control signal to one of the switches (30A, 30B, 32A, 32B, 34A, 34B) of the inverter, - detecting a change in angle of the rotor relative to the stator, and - temporally synchronising the cyclic digital control signal with a time (to) of detection of the change in angle of the rotor, said temporal synchronisation step comprising a sub-step of reinitialising the time count (C 1) when the change in angle of the rotor is detected. - generating a periodic time count (C 1), - deriving a duty cycle setpoint, said duty cycle setpoint being constant during each period of the time count (C 1) and being equal to the value of a reference duty cycle (RC 0) at the start of each new period of the time count (C 1), - generating a cyclic digital signal for controlling the switches (30A, 30B, 32A, 32B, 34A, 34B), at a predetermined frequency, the cyclic digital signal being derived by comparing the time count (C 1) with the duty cycle setpoint, - transmitting the cyclic digital control signal to one of the switches (30A, 30B, 32A, 32B, 34A, 34B) of the inverter, - detecting a change in angle of the rotor relative to the stator, and - temporally synchronising the cyclic digital control signal with a time (to) of detection of the change in angle of the rotor, said temporal synchronisation step comprising a sub-step of reinitialising the time count (C 1) when the change in angle of the rotor is detected.