mhurhangee/patent-ind-claim-en huggingface dataset:
Method of paving a road surface by a road paver and a compactor , comprising paving a road surface by means of a paving screed of the road paver , defining a target rolling field by means of an electronic data processing system on the basis of a temperature image generated by means of simulation calculation, determining a speed and a compression power of the compactor as well as a relative position of the compactor in relation to the target rolling field , as operating parameters of the compactor , generating a vibration of a main driving switch of the compactor , depending on the relative position of the compactor to the target rolling field , and depending on the determined speed and/or the determined compression power, wherein a vibration pattern varies depending on the type of operating parameter, relative position, speed and compression power. paving a road surface by means of a paving screed of the road paver , defining a target rolling field by means of an electronic data processing system on the basis of a temperature image generated by means of simulation calculation, determining a speed and a compression power of the compactor as well as a relative position of the compactor in relation to the target rolling field , as operating parameters of the compactor , generating a vibration of a main driving switch of the compactor , depending on the relative position of the compactor to the target rolling field , and depending on the determined speed and/or the determined compression power, wherein a vibration pattern varies depending on the type of operating parameter, relative position, speed and compression power.
A method comprising: receiving video data captured from a camera device; receiving sensor data captured from auxiliary sensors associated with the camera device; associating the sensor data and the video data using time data, wherein each of one or more samples of sensor data is associated with a single video frame; detecting camera view motion in the sensor data; segmenting the sensor data into one or more stable segments according to the amount of camera view motion; segmenting the video data; wherein, if less than a predetermined threshold of video data associated with the stable segments is present, the method further comprises: extracting one or more temporal features from the segments of the video data associated with the stable segments of the sensor data to determine real motion of objects independent of camera view motion; and if not, the method further comprises: detecting one or more temporal features from the video data; and modifying feature-descriptors of the one or more detected temporal features based on the sensor data. receiving video data captured from a camera device; receiving sensor data captured from auxiliary sensors associated with the camera device; associating the sensor data and the video data using time data, wherein each of one or more samples of sensor data is associated with a single video frame; detecting camera view motion in the sensor data; segmenting the sensor data into one or more stable segments according to the amount of camera view motion; segmenting the video data; wherein, if less than a predetermined threshold of video data associated with the stable segments is present, the method further comprises: extracting one or more temporal features from the segments of the video data associated with the stable segments of the sensor data to determine real motion of objects independent of camera view motion; and if not, the method further comprises: detecting one or more temporal features from the video data; and modifying feature-descriptors of the one or more detected temporal features based on the sensor data. extracting one or more temporal features from the segments of the video data associated with the stable segments of the sensor data to determine real motion of objects independent of camera view motion; and if not, the method further comprises: detecting one or more temporal features from the video data; and modifying feature-descriptors of the one or more detected temporal features based on the sensor data. detecting one or more temporal features from the video data; and modifying feature-descriptors of the one or more detected temporal features based on the sensor data.
Distance sensor for determining the distance of objects in a monitoring area, having a transmitter and a receiver , wherein transmission pulses emitted by the transmitter are guided to the object and reflected by the latter as a reception pulse to the receiver , and having an evaluation unit in which the distance of the object to the distance sensor is determined from the transit time of the transmission pulses to the object , wherein two independently asynchronously operating oscillators are provided, one oscillator generating pulse-shaped, periodic clock signals for transmitter operation and one oscillator forming a clock generator which generates periodic clock signals for controlling components of the evaluation unit, wherein the clock generator generates a clock signal which is asynchronous to the transmission pulse, in that the evaluation unit comprises at least one TDC unit , wherein this has a coarse measuring unit and two fine measuring units , each with a delay line , wherein the coarse measuring unit is constructed as follows counting whole clock pulses (a) of the clock signal , in that a first fine measuring unit is started with a transmission pulse, the coarse measuring unit being started with this and the time interval (c) between transmission of the transmission pulse and the subsequent start of a clock pulse (a) of the clock signal being measured, in that the second fine measuring unit is started with the receive pulse following the transmit pulse, the coarse measuring unit being stopped with this and the time interval (c) between receiving the receive pulse and the subsequent start of a clock pulse (a) of the clock signal being measured.
A fuel for compression-ignition engines, containing monooxymethylene dimethylether, characterised in that the fuel contains at least 80 % by weight monooxymethylene dimethylether and up to 20 % by weight of at least one oxygenate of the n-polyoxaalkane type, which is selected from the group consisting of polyoxymethylene dialkylethers of the formula RO(-CH 2 O-) n R, wherein n = 4 to 10 and R = an alkyl group, polyethylene glycol dialkylethers and/or polyethylene glycol monoalkylether formals, and in that the fuel has a cetane number of ≥ 48.6.
An air-breathing turbojet engine (101;301) for a hypersonic vehicle, comprising: a pump (201;401) for pumping a cryogenic fuel; an inlet (102;302) configured to compress inlet air by one or more shocks, thereby producing compressed inlet air; a cooler (103;303) configured to cool the compressed inlet air using the cryogenic fuel, thereby producing cooled air; a turbo-compressor (104;304) configured to receive cooled air from the cooler and to compress the air further, thereby producing compressed cooled air; a combustor (105;305) configured to receive compressed cooled air from the turbo-compressor and a first portion of the cryogenic fuel for combustion therein, thereby producing combustion products; a first turbine (106;306) configured to expand and be driven by combustion products from the combustor; a second turbine (107;307) configured to expand and be driven by a second portion of the cryogenic fuel, the first turbine and the second turbine being configured to drive the turbo-compressor via a shaft (108;308); an afterburner (109;309) configured to receive combustion products from the first turbine and the second portion of the cryogenic fuel from the second turbine for combustion therein; characterised in that the first portion of the cryogenic fuel is different from the second portion of the cryogenic fuel, and the cryogenic fuel is divided into the first portion and the second portion prior to the combustor and the second turbine whereby, of the first portion and the second portion, only the first portion is received by the combustor and only the second portion expands and drives the second turbine. a pump (201;401) for pumping a cryogenic fuel; an inlet (102;302) configured to compress inlet air by one or more shocks, thereby producing compressed inlet air; a cooler (103;303) configured to cool the compressed inlet air using the cryogenic fuel, thereby producing cooled air; a turbo-compressor (104;304) configured to receive cooled air from the cooler and to compress the air further, thereby producing compressed cooled air; a combustor (105;305) configured to receive compressed cooled air from the turbo-compressor and a first portion of the cryogenic fuel for combustion therein, thereby producing combustion products; a first turbine (106;306) configured to expand and be driven by combustion products from the combustor; a second turbine (107;307) configured to expand and be driven by a second portion of the cryogenic fuel, the first turbine and the second turbine being configured to drive the turbo-compressor via a shaft (108;308); an afterburner (109;309) configured to receive combustion products from the first turbine and the second portion of the cryogenic fuel from the second turbine for combustion therein; characterised in that the first portion of the cryogenic fuel is different from the second portion of the cryogenic fuel, and the cryogenic fuel is divided into the first portion and the second portion prior to the combustor and the second turbine whereby, of the first portion and the second portion, only the first portion is received by the combustor and only the second portion expands and drives the second turbine.
A bird deterrence system comprising: - a laser device for producing a laser beam; comprising scanning equipment for rotating the laser beam at designated lateral and elevational angular speeds relative to a normal axis; - a power supply for feeding the laser device ; and - a control unit for controlling the laser device ; and - characterized in that an input module is programmed, in a teach mode, to control rotation of the laser beam at designated lateral and elevational angles, wherein the input module further comprises an identification routine to identify said designated lateral and elevational angles as successive waypoints defining a laser scanning area; and to store the waypoints in the control unit , and wherein the input module further comprises a routine for defining a maximum elevational angle; and wherein the control unit is programmed to de-activate the laser beam for elevational angles larger than the maximum designated elevational angle wherein the control unit is programmed to define successive trajectories of the laser spot having the same principal directions on the ground. - a laser device for producing a laser beam; comprising scanning equipment for rotating the laser beam at designated lateral and elevational angular speeds relative to a normal axis; - a power supply for feeding the laser device ; and - a control unit for controlling the laser device ; and - characterized in that an input module is programmed, in a teach mode, to control rotation of the laser beam at designated lateral and elevational angles, wherein the input module further comprises an identification routine to identify said designated lateral and elevational angles as successive waypoints defining a laser scanning area; and to store the waypoints in the control unit , and wherein the input module further comprises a routine for defining a maximum elevational angle; and wherein the control unit is programmed to de-activate the laser beam for elevational angles larger than the maximum designated elevational angle wherein the control unit is programmed to define successive trajectories of the laser spot having the same principal directions on the ground.
A saddle-type vehicle comprising: an occupant protection device ; a plurality of acceleration sensors (S1 and S2) which detect translational acceleration in forward and backward directions acting on a vehicle; and a control device which controls an operation of the occupant protection device on the basis of detection values of the acceleration sensors (S1 and S2), wherein the plurality of acceleration sensors (S1 and S2) include a first acceleration sensor (S1) and a second acceleration sensor (S2), the first acceleration sensor (S1) is disposed above a center of gravity (G) of the vehicle, characterized in that the second acceleration sensor (S2) is disposed below the center of gravity (G), and the control device averages a detection value (de1) detected by the first acceleration sensor (S1) and a detection value (de2) detected by the second acceleration sensor (S2) and controls an operation of the occupant protection device on the basis of the averaged value. an occupant protection device ; a plurality of acceleration sensors (S1 and S2) which detect translational acceleration in forward and backward directions acting on a vehicle; and a control device which controls an operation of the occupant protection device on the basis of detection values of the acceleration sensors (S1 and S2), wherein the plurality of acceleration sensors (S1 and S2) include a first acceleration sensor (S1) and a second acceleration sensor (S2), the first acceleration sensor (S1) is disposed above a center of gravity (G) of the vehicle, characterized in that the second acceleration sensor (S2) is disposed below the center of gravity (G), and the control device averages a detection value (de1) detected by the first acceleration sensor (S1) and a detection value (de2) detected by the second acceleration sensor (S2) and controls an operation of the occupant protection device on the basis of the averaged value.
A communication method performed by a centralized unit user plane, CU-UP, of an access network, comprising: sending, by the centralized unit user plane, CU-UP, of an access network, an E1 interface setup request message to a centralized unit control plane, CU-CP, of the access network, wherein the interface setup request message comprises an identity of a public land mobile network served by the CU-UP and a network slice identifier corresponding to the public land mobile network, wherein the network slice identifier is single network slice selection assistance information, S-NSSAI, or an S-NSSAI list, the interface setup request message further comprises service range information of the CU-UP, and the service range information comprises an identity of a cell served by the CU-UP; and receiving, by the CU-UP, an interface setup response message from the CU-CP after sending the interface setup request message. sending, by the centralized unit user plane, CU-UP, of an access network, an E1 interface setup request message to a centralized unit control plane, CU-CP, of the access network, wherein the interface setup request message comprises an identity of a public land mobile network served by the CU-UP and a network slice identifier corresponding to the public land mobile network, wherein the network slice identifier is single network slice selection assistance information, S-NSSAI, or an S-NSSAI list, the interface setup request message further comprises service range information of the CU-UP, and the service range information comprises an identity of a cell served by the CU-UP; and receiving, by the CU-UP, an interface setup response message from the CU-CP after sending the interface setup request message.
Use of a detergent composition comprising a fatty acid-transforming enzyme to impart increased suds longevity in a manual dishwashing process, wherein the enzyme is selected from EC 3.1.1.4, EC 3.1.1.5 (phospholipase A2 and lysophospholipase, respectively) and EC 3.1.1.32 (phospholipase A1).
Process for producing a non-dairy food product of enhanced viscosity, comprising mixing of aqueous liquid deamidated oat base and vegetable protein isolate comprising or consisting of vegetable protein isolate selected from pea protein isolate, potato protein isolate, faba bean protein isolate, chickpea protein isolate, and lentil protein isolate, thereby providing a mixture of the liquid deamidated oat base and the vegetable protein isolate; crosslinking of glutamine and lysine units of the protein isolate by means of transglutaminase.
A clothes treating apparatus comprising a main body , a laundry insertion opening formed on a front surface of the main body , and a door arranged to open and close the laundry insertion opening, wherein the door comprises a holder member rotatably coupled to the front surface of the main body , a transparent member passing through and coupled to the holder member , and a cover member covering a front surface of the holder member to define an external appearance of the door, and wherein the cover member comprises: a cover frame provided in a shape corresponding to the holder member ; a cover panel coupled to a front surface of the cover frame ; and a door handle comprising a protrusion portion formed by protrusion of a portion of the front surface of the cover frame so as to be capable of providing a receiving space (Si) in which a user's hand is received, and a recessed portion formed by recessing a portion of a front surface of the cover panel at a position corresponding to the protrusion portion so as to be capable of guiding a user's hand to the receiving space (Si). a cover frame provided in a shape corresponding to the holder member ; a cover panel coupled to a front surface of the cover frame ; and a door handle comprising a protrusion portion formed by protrusion of a portion of the front surface of the cover frame so as to be capable of providing a receiving space (Si) in which a user's hand is received, and a recessed portion formed by recessing a portion of a front surface of the cover panel at a position corresponding to the protrusion portion so as to be capable of guiding a user's hand to the receiving space (Si).
A carrousel apparatus for moving containers comprising: a supporting structure; a carrousel mounted on the supporting structure and rotatable on itself about a main axis of rotation ; and a plurality of operating units , associated with a perimetric portion of the carrousel , for rotating with it about the main axis of rotation , each operating unit being configured to retain and move a container , along a movement path which goes from a container feeding station to a container releasing station; wherein: each operating unit comprises a plate and a retaining head ; each plate is rotatably connected to the carrousel for rotating, on itself about its own secondary axis of rotation , which is vertical and parallel to the main axis of rotation ; each retaining head is vertically aligned with the relative plate along the secondary axis of rotation , rotates with the carrousel in the rotation about the main axis of rotation and is fixed relative to the secondary axis of rotation of the relative plate , during the rotation of the plate on itself; each retaining head comprises three or more pressure rollers distributed eccentrically relative to the respective secondary axis of rotation , and configured for pushing a container towards the plate during the rotation of the plate on itself; and each retaining head comprises a supporting portion with which the pressure rollers are rotatably associated, each according to a third axis of rotation ; characterised in that the third axes of rotation are inclined relative to the secondary axis of rotation , intersect the secondary axis of rotation and converge towards it moving away from the plate ; and in that the pressure rollers of each retaining head are configured to centre the container on the secondary axis of rotation . a supporting structure; a carrousel mounted on the supporting structure and rotatable on itself about a main axis of rotation ; and a plurality of operating units , associated with a perimetric portion of the carrousel , for rotating with it about the main axis of rotation , each operating unit being configured to retain and move a container , along a movement path which goes from a container feeding station to a container releasing station; each operating unit comprises a plate and a retaining head ; each plate is rotatably connected to the carrousel for rotating, on itself about its own secondary axis of rotation , which is vertical and parallel to the main axis of rotation ; each retaining head is vertically aligned with the relative plate along the secondary axis of rotation , rotates with the carrousel in the rotation about the main axis of rotation and is fixed relative to the secondary axis of rotation of the relative plate , during the rotation of the plate on itself; each retaining head comprises three or more pressure rollers distributed eccentrically relative to the respective secondary axis of rotation , and configured for pushing a container towards the plate during the rotation of the plate on itself; and each retaining head comprises a supporting portion with which the pressure rollers are rotatably associated, each according to a third axis of rotation ;
A non-invasive method of measuring the sugar content of a wine contained in a hermetically sealed transparent glass bottle, the method consisting of the following steps: (a) shining light from at least two light sources through the bottle wall, each having a unique incident angle and unique path length, (b) measuring the intensity of the Fresnel reflection at the glass/wine interface from each light source, (c) using the measured intensities of the Fresnel reflections, in conjunction with the known alcohol content of the wine in order to calculate the sugar content of the wine contained within the bottle. (a) shining light from at least two light sources through the bottle wall, each having a unique incident angle and unique path length, (b) measuring the intensity of the Fresnel reflection at the glass/wine interface from each light source, (c) using the measured intensities of the Fresnel reflections, in conjunction with the known alcohol content of the wine in order to calculate the sugar content of the wine contained within the bottle.