mhurhangee/ep-ind-claims huggingface dataset:
A device for screwing objects, comprising: - a tool unit designed for screwing screw connection elements, - a rotation default output means designed to output the torque to be applied when screwing with the tool unit and/or the angle of rotation to be achieved when screwing, and - a data processing unit designed to detect torque data or rotational angle data representing the torque applied during screwing or the rotational angle achieved during screwing, - an image capturing unit comprising a stereo camera for capturing a spatial image of a working area having at least a portion of an object to be screwed together and providing the captured image data, and - the data processing unit comprises an image analysis unit designed to recognize the object, the tool unit and a screwing location on the object in the captured image and to generate a protocol tuple (p) including data representing the recognized screwing location, the detected torque data and/or rotational angle data associated with each other, and - characterized in that the device comprises a carrier unit carrying at least the image capturing unit, the carrier unit being designed to be carried on the body of a user. - a tool unit designed for screwing screw connection elements, - a rotation default output means designed to output the torque to be applied when screwing with the tool unit and/or the angle of rotation to be achieved when screwing, and - a data processing unit designed to detect torque data or rotational angle data representing the torque applied during screwing or the rotational angle achieved during screwing, - an image capturing unit comprising a stereo camera for capturing a spatial image of a working area having at least a portion of an object to be screwed together and providing the captured image data, and - the data processing unit comprises an image analysis unit designed to recognize the object, the tool unit and a screwing location on the object in the captured image and to generate a protocol tuple (p) including data representing the recognized screwing location, the detected torque data and/or rotational angle data associated with each other, and - characterized in that the device comprises a carrier unit carrying at least the image capturing unit, the carrier unit being designed to be carried on the body of a user.
A polymeric material formed of a composition, comprising: polyalkylsiloxane forming a polymer matrix; and a gamma radiation resistant component in an amount of 0.1 wt% to 20 wt% based on the weight of the polyalkylsiloxane, the gamma radiation resistant component being a silicone oil including halide or phenyl functional groups. polyalkylsiloxane forming a polymer matrix; and a gamma radiation resistant component in an amount of 0.1 wt% to 20 wt% based on the weight of the polyalkylsiloxane, the gamma radiation resistant component being a silicone oil including halide or phenyl functional groups.
A method of determining an acquisition guidance path of a vehicle, the method comprising: defining a desired guidance path for travel by the vehicle; determining a first acquisition factor of the acquisition guidance path between the vehicle 812) and the desired guidance path; determining a second acquisition factor; and calculating the acquisition guidance path based on the first acquisition factor and the second acquisition factor to control travel of the vehicle to the desired guidance path, characterized in that the second acquisition factor defines a ratio between a heading error and a lateral error of the acquisition guidance path. defining a desired guidance path for travel by the vehicle; determining a first acquisition factor of the acquisition guidance path between the vehicle 812) and the desired guidance path; determining a second acquisition factor; and calculating the acquisition guidance path based on the first acquisition factor and the second acquisition factor to control travel of the vehicle to the desired guidance path, characterized in that the second acquisition factor defines a ratio between a heading error and a lateral error of the acquisition guidance path.
A pair of toothed wheels (15, 16) that mesh with each other characterized by, comprising: a plateau portion (15b, 16b) whose surface is a plateau-structure surface formed on each tooth face of each of the pair of the toothed wheels (15, 16), with peak portions of convexities,, out of a plurality of concavities and the convexities provided on the each tooth face (15a, 16a), being flat, wherein a reduced valley depth of the plateau portion of one of the pair of the toothed wheels (15, 16) as defined in JISB0671-2 is greater than the reduced valley depth of the plateau portion of the other of the pair of the toothed wheels (15, 16), and an area occupied by the concavities in the plateau portion of the one of the toothed wheels (15, 16) is larger than an area occupied by the concavities in the plateau portion of the other toothed wheel. a plateau portion (15b, 16b) whose surface is a plateau-structure surface formed on each tooth face of each of the pair of the toothed wheels (15, 16), with peak portions of convexities,, out of a plurality of concavities and the convexities provided on the each tooth face (15a, 16a), being flat, wherein a reduced valley depth of the plateau portion of one of the pair of the toothed wheels (15, 16) as defined in JISB0671-2 is greater than the reduced valley depth of the plateau portion of the other of the pair of the toothed wheels (15, 16), and an area occupied by the concavities in the plateau portion of the one of the toothed wheels (15, 16) is larger than an area occupied by the concavities in the plateau portion of the other toothed wheel.
A method performed by a network node of a wireless telecommunication network, the network node operating in a combined radio cell deployment where several radio units (20-1, 20-2, 20-3) are controlled by the network node and where each of the several radio units (20-1, 20-2, 20-3) is serving a respective radio cell sector (20-1c, 20-2c, 20-3c) of a combined radio cell, the method comprising: establishing a plurality of different Physical Random Access Channel, PRACH, configurations, wherein each PRACH configuration is mapped to a respective radio unit of the several radio units; determining a location of at least one wireless communication device; selecting, in dependence of the determined location of the at least one wireless communication device, a set of PRACH configurations that is available for the at least one wireless communication device; and transmitting, to the at least one wireless communication device, a radio signal comprising information about the set of PRACH configurations that is available for the at least one wireless communication device. establishing a plurality of different Physical Random Access Channel, PRACH, configurations, wherein each PRACH configuration is mapped to a respective radio unit of the several radio units; determining a location of at least one wireless communication device; selecting, in dependence of the determined location of the at least one wireless communication device, a set of PRACH configurations that is available for the at least one wireless communication device; and transmitting, to the at least one wireless communication device, a radio signal comprising information about the set of PRACH configurations that is available for the at least one wireless communication device.
A status monitoring apparatus of a railway vehicle (101, 102) comprising: a detecting apparatus (103a, 103b, 104a, 104b, 105a, 105b 106a, 106b, 403a, 403b, 404a, 404b, 405a, 405b, 406a, 406b) attached to a side of a vehicle constituting a train; and a signal processing function (1201, 1301, 1601) for processing each of a plurality of signals indicating a status of the side of the train detected via the detecting apparatus; characterized in that the detecting apparatus is a plurality of imaging apparatuses (103a, 103b, 104a, 104b, 105a, 105b 106a, 106b) disposed on an outer upper portion of the side of the vehicle for acquiring images, and in that the signal processing function comprises: a signal converting function for converting the plurality of signals to a plurality of overhead-view-images (112, 113, 114); an image merging function for matching the overhead-view-images and merging them to form a continuous panoramic image; and a display function for displaying the merged images on a monitor disposed on the vehicle. a detecting apparatus (103a, 103b, 104a, 104b, 105a, 105b 106a, 106b, 403a, 403b, 404a, 404b, 405a, 405b, 406a, 406b) attached to a side of a vehicle constituting a train; and a signal processing function (1201, 1301, 1601) for processing each of a plurality of signals indicating a status of the side of the train detected via the detecting apparatus; a signal converting function for converting the plurality of signals to a plurality of overhead-view-images (112, 113, 114); an image merging function for matching the overhead-view-images and merging them to form a continuous panoramic image; and a display function for displaying the merged images on a monitor disposed on the vehicle.
Aircraft turbine engine comprising - a fan and a reducer to rotate the fan about the drive shaft - a subassembly for an aircraft turbine engine extending along a drive shaft directed from upstream to downstream, between an upstream air inlet end and a downstream air outlet end, the subassembly comprising: - a row of stator vanes, the row of stator vanes is an input row of the aircraft turbine engine, - a row of structural arms of an input support casing of the aircraft turbine engine, and extend at least partially circumferentially around the reducer and being capable for the passage of force to the reducer, - a row of input rotor vanes of a low-pressure compressor, of the aircraft turbine engine, the subassembly being such that: - these rows are arranged, in the abovesaid order, successively and directly, along the drive shaft; - at least one downstream portion of at least one of the arms extends both axially and circumferentially and has an extension direction into a downstream trailing edge of the arm inclined by an angle (α) which is non-zero with respect to the drive shaft, so as to circumferentially deviate an airflow of an axial trajectory. - a fan and a reducer to rotate the fan about the drive shaft - a subassembly for an aircraft turbine engine extending along a drive shaft directed from upstream to downstream, between an upstream air inlet end and a downstream air outlet end, the subassembly comprising: - a row of stator vanes, the row of stator vanes is an input row of the aircraft turbine engine, - a row of structural arms of an input support casing of the aircraft turbine engine, and extend at least partially circumferentially around the reducer and being capable for the passage of force to the reducer, - a row of input rotor vanes of a low-pressure compressor, of the aircraft turbine engine, - a row of stator vanes, the row of stator vanes is an input row of the aircraft turbine engine, - a row of structural arms of an input support casing of the aircraft turbine engine, and extend at least partially circumferentially around the reducer and being capable for the passage of force to the reducer, - a row of input rotor vanes of a low-pressure compressor, of the aircraft turbine engine, the subassembly being such that: - these rows are arranged, in the abovesaid order, successively and directly, along the drive shaft; - at least one downstream portion of at least one of the arms extends both axially and circumferentially and has an extension direction into a downstream trailing edge of the arm inclined by an angle (α) which is non-zero with respect to the drive shaft, so as to circumferentially deviate an airflow of an axial trajectory. - these rows are arranged, in the abovesaid order, successively and directly, along the drive shaft; - at least one downstream portion of at least one of the arms extends both axially and circumferentially and has an extension direction into a downstream trailing edge of the arm inclined by an angle (α) which is non-zero with respect to the drive shaft, so as to circumferentially deviate an airflow of an axial trajectory.
A connector, in particular a push-pull connector, comprising: - a cable feedthrough or cable bushing for receiving a cable end; and - a first sealing member arranged at least partially between the cable end and the cable bushing, wherein a plurality of pressure elements movable relative to the cable end is arranged at the cable bushing, and is movable into a fastening position in which the inner side of the first sealing element is pressed flatly against the outer side of the cable end by the plurality of pressure elements, and wherein an inner diameter of the first sealing element decreases at least in sections in the cable guiding direction when the plurality of pressure elements is not moved to the fastening position, and wherein the cable guiding direction corresponds to a direction in which the connector extends starting from the cable bushing toward a connecting region of the connector, wherein, when assuming the fastening position by moving the movable pressing members toward the cable end, the inner side of the first sealing member at the section or sections with widened inner diameter can be pressed toward the cable end. - a cable feedthrough or cable bushing for receiving a cable end; and - a first sealing member arranged at least partially between the cable end and the cable bushing, wherein a plurality of pressure elements movable relative to the cable end is arranged at the cable bushing, and is movable into a fastening position in which the inner side of the first sealing element is pressed flatly against the outer side of the cable end by the plurality of pressure elements, and wherein an inner diameter of the first sealing element decreases at least in sections in the cable guiding direction when the plurality of pressure elements is not moved to the fastening position, and wherein the cable guiding direction corresponds to a direction in which the connector extends starting from the cable bushing toward a connecting region of the connector, wherein, when assuming the fastening position by moving the movable pressing members toward the cable end, the inner side of the first sealing member at the section or sections with widened inner diameter can be pressed toward the cable end.
A preform assembly for a microstructured optical fiber, the fiber preform assembly comprising: - a preform center element (41, 51, 61, 71), and - a preform ring element (42, 52, 62, 63, 73, 93) arranged to surround the preform center element (41, 51, 61, 71), where said preform ring element (42, 52, 62, 63, 73, 93) has a length and a center axis along its length, a first and second end defined by its length and an outer preform element surface (OS, 134, 144) and said preform ring element (42, 52, 73, 93) comprising a plurality of longitudinal structures (4, 14, 24) disposed to form longitudinal hole(s) (14a, 131) in a background material, wherein said plurality of longitudinal structures is encaged in said background material and extends in the length direction of the preform element, and wherein the preform ring element (42, 52, 62, 63, 73, 93) is provided by arranging an inner hollow cane inside an outer hollow cane and arranging the longitudinal structures (4, 14, 24) between the inner and outer cane, characterized in that the preform ring element (42, 52, 73, 93) comprises at least one slot (45, 55) extending from its outer preform element surface (134, 144) and intersecting at least one of said longitudinal holes (14a, 131) and wherein the at least one slot (45, 55) does not fully intersect the preform ring element (42, 52, 73, 93). - a preform center element (41, 51, 61, 71), and - a preform ring element (42, 52, 62, 63, 73, 93) arranged to surround the preform center element (41, 51, 61, 71), where said preform ring element (42, 52, 62, 63, 73, 93) has a length and a center axis along its length, a first and second end defined by its length and an outer preform element surface (OS, 134, 144) and said preform ring element (42, 52, 73, 93) comprising a plurality of longitudinal structures (4, 14, 24) disposed to form longitudinal hole(s) (14a, 131) in a background material, wherein said plurality of longitudinal structures is encaged in said background material and extends in the length direction of the preform element, and wherein the preform ring element (42, 52, 62, 63, 73, 93) is provided by arranging an inner hollow cane inside an outer hollow cane and arranging the longitudinal structures (4, 14, 24) between the inner and outer cane, characterized in that the preform ring element (42, 52, 73, 93) comprises at least one slot (45, 55) extending from its outer preform element surface (134, 144) and intersecting at least one of said longitudinal holes (14a, 131) and wherein the at least one slot (45, 55) does not fully intersect the preform ring element (42, 52, 73, 93).
A stroller frame particularly for transporting a child, comprising: - two rear arms (14D, 14G) and a single front arm, which are fixedly joined to one another and respectively provided with at least one wheel (20, 22D, 22G) bearing on the ground, characterized by - movement mechanical means for moving the rear and front wheels relative to their respective arms, suitable for simultaneously moving, by mechanical transmission, all the wheels between, respectively, an extended service position, in which both the rotation axes (Y 20 -Y 20, Y 22D -Y 22D, Y 22G -Y 22G) of all the wheels extend substantially perpendicularly to the same antero-posterior median plane of the frame and the front wheel or wheels are spaced from the rear wheels by a first antero-posterior distance, and a retracted storage position, in which both the rotation axes of all the wheels extend substantially parallel to this plane, and the front wheel or wheels are spaced from the rear wheels by a second antero-posterior distance that is smaller than the first antero-posterior distance, and by - a specific handle for manually driving the movement means, arranged at the front end of the front arm. - two rear arms (14D, 14G) and a single front arm, which are fixedly joined to one another and respectively provided with at least one wheel (20, 22D, 22G) bearing on the ground, characterized by - movement mechanical means for moving the rear and front wheels relative to their respective arms, suitable for simultaneously moving, by mechanical transmission, all the wheels between, respectively, an extended service position, in which both the rotation axes (Y 20 -Y 20, Y 22D -Y 22D, Y 22G -Y 22G) of all the wheels extend substantially perpendicularly to the same antero-posterior median plane of the frame and the front wheel or wheels are spaced from the rear wheels by a first antero-posterior distance, and a retracted storage position, in which both the rotation axes of all the wheels extend substantially parallel to this plane, and the front wheel or wheels are spaced from the rear wheels by a second antero-posterior distance that is smaller than the first antero-posterior distance, and by - a specific handle for manually driving the movement means, arranged at the front end of the front arm.
An integrally-formed capacitive touch panel (1, 1a) comprising: a singular lens substrate (11, 11a) having a top surface for receiving physical tactile input and a bottom surface; and a sensing circuit (13, 13a, 19a) for outputting a capacitive sensing signal corresponding to a touched position for a capacitive effect produced by the physical tactile input received by the top surface, the sensing circuit (13, 13a, 19a) being integrally coupled with said singular lens substrate (11, 11a); a shielding layer (16, 16a) provided on the bottom surface of the singular lens substrate (11, 11 a) for preventing noise signals; and a mask layer (12, 12a), wherein part of the sensing circuit (13, 13a, 19) is grown on a bottom surface of the mask layer so that, when viewed from above the singular lens substrate (11, 11a), it appears that part of the sensing circuit (13, 13a, 19) is covered by the mask layer (12, 12a), wherein the exposed part of the sensing circuit (13, 13a, 19) forms the sensing region, wherein said singular lens substrate (11, 11a), said mask layer (12, 12a), said shielding layer (16, 16a), and said sensing circuit (13, 13a, 19a) are integrally formed, and wherein said shielding layer (16, 16a) is positioned between said singular lens substrate (11, 11a) and said mask layer (12, 12a). a singular lens substrate (11, 11a) having a top surface for receiving physical tactile input and a bottom surface; and a sensing circuit (13, 13a, 19a) for outputting a capacitive sensing signal corresponding to a touched position for a capacitive effect produced by the physical tactile input received by the top surface, the sensing circuit (13, 13a, 19a) being integrally coupled with said singular lens substrate (11, 11a);
A processing system comprising: a light irradiation apparatus that irradiates an object with a plurality of processing lights to process the object; the light irradiation apparatus further including: a multibeam optical system that is configured to divide incident light to generate a first processing light and a second processing light of the plurality of processing lights; and a displacement member which the first and second processing lights enter and which is configured to move a first irradiation area of the first processing light and a second irradiation area of the second processing light along one direction that is along a surface of the object, the processing system being characterised by: an irradiation position change apparatus that changes a relative positional relationship between irradiation positions of the plurality of processing lights on a surface of the object so that a desired pattern structure is formed at the object. a light irradiation apparatus that irradiates an object with a plurality of processing lights to process the object; the light irradiation apparatus further including: a multibeam optical system that is configured to divide incident light to generate a first processing light and a second processing light of the plurality of processing lights; and a displacement member which the first and second processing lights enter and which is configured to move a first irradiation area of the first processing light and a second irradiation area of the second processing light along one direction that is along a surface of the object, the processing system being characterised by: an irradiation position change apparatus that changes a relative positional relationship between irradiation positions of the plurality of processing lights on a surface of the object so that a desired pattern structure is formed at the object. a multibeam optical system that is configured to divide incident light to generate a first processing light and a second processing light of the plurality of processing lights; and a displacement member which the first and second processing lights enter and which is configured to move a first irradiation area of the first processing light and a second irradiation area of the second processing light along one direction that is along a surface of the object, the processing system being characterised by: an irradiation position change apparatus that changes a relative positional relationship between irradiation positions of the plurality of processing lights on a surface of the object so that a desired pattern structure is formed at the object.