mhurhangee/ep-ind-claims huggingface dataset:
A work vehicle comprising: a running control apparatus configured to cause the work vehicle to perform automatic running, the running control apparatus comprising: an obstacle detection unit provided in the work vehicle and configured to detect an obstacle that exists in surroundings of the work vehicle; characterized in that the work vehicle comprises: a controller having a switch configured to perform a start instruction to the work vehicle to start and to resume automatic running, a suspend instruction to suspend the automatic running, and an invalidation instruction to invalidate obstacle detection by the obstacle detection unit; an automatic running suspending unit configured to, after the work vehicle started automatic running in response to the start instruction, in a case where the obstacle detection unit detected the obstacle, suspend automatic running of the work vehicle regardless of whether or not there is the suspend instruction; and a suspension releasing unit configured to release the suspension of automatic running in a case where there was the invalidation instruction during the suspension of automatic running by the automatic running suspending unit. a running control apparatus configured to cause the work vehicle to perform automatic running, the running control apparatus comprising: an obstacle detection unit provided in the work vehicle and configured to detect an obstacle that exists in surroundings of the work vehicle; characterized in that the work vehicle comprises: a controller having a switch configured to perform a start instruction to the work vehicle to start and to resume automatic running, a suspend instruction to suspend the automatic running, and an invalidation instruction to invalidate obstacle detection by the obstacle detection unit; an automatic running suspending unit configured to, after the work vehicle started automatic running in response to the start instruction, in a case where the obstacle detection unit detected the obstacle, suspend automatic running of the work vehicle regardless of whether or not there is the suspend instruction; and a suspension releasing unit configured to release the suspension of automatic running in a case where there was the invalidation instruction during the suspension of automatic running by the automatic running suspending unit. a controller having a switch configured to perform a start instruction to the work vehicle to start and to resume automatic running, a suspend instruction to suspend the automatic running, and an invalidation instruction to invalidate obstacle detection by the obstacle detection unit; an automatic running suspending unit configured to, after the work vehicle started automatic running in response to the start instruction, in a case where the obstacle detection unit detected the obstacle, suspend automatic running of the work vehicle regardless of whether or not there is the suspend instruction; and a suspension releasing unit configured to release the suspension of automatic running in a case where there was the invalidation instruction during the suspension of automatic running by the automatic running suspending unit.
Layer of carbon fibre non-woven which is suitable as electrode material for battery applications, high-temperature batteries, redox flow batteries, as high-temperature insulation material or for gas diffusion layers in fuel cells, characterised by an accumulation of terminal carbon fibres on the split surface of the layer.
A passive heat transfer apparatus suited for transferring heat away from an electronic heat generating device to another environment, the apparatus comprising: a non-metallic gasket having a plurality of spaced-apart holes that are transverse to two major opposing surfaces; thermally conductive material disposed within and filling the holes for conducting heat from one of the two major surfaces to the other major surface, the thermally conductive material being a nanocomposite material having nano particles aligned perpendicular to the two major opposing surfaces, the thermally conductive material having no internal interfacial boundaries and having a higher thermal conductivity than copper and having an effective thermal conductivity of greater than 100 W/mK when the total surface area of the thermally conductive material on one of the two major surfaces of the gasket is half of the total surface area of the one major surface. a non-metallic gasket having a plurality of spaced-apart holes that are transverse to two major opposing surfaces; thermally conductive material disposed within and filling the holes for conducting heat from one of the two major surfaces to the other major surface, the thermally conductive material being a nanocomposite material having nano particles aligned perpendicular to the two major opposing surfaces, the thermally conductive material having no internal interfacial boundaries and having a higher thermal conductivity than copper and having an effective thermal conductivity of greater than 100 W/mK when the total surface area of the thermally conductive material on one of the two major surfaces of the gasket is half of the total surface area of the one major surface.
An absorbent article comprising: a chassis comprising a topsheet, a backsheet, and an absorbent core disposed between the topsheet and backsheet; and an ear joined to the chassis and comprising: a laminate comprising a first nonwoven and second nonwoven and an elastomeric material sandwiched between said first and second nonwovens, wherein the laminate further comprises a plurality of ultrasonic bonds which join the nonwoven layers through the elastomeric material; and wherein: the elastomeric material comprises a maximum dimension, Y, in a stretch direction; the elastomeric material defines a primary region comprising an elastic region and one or more unstretched zones; the elastic region comprises a maximum dimension, X, in the stretch direction and the one or more unstretched zones comprise an aggregate lateral width of Wd, and a ratio of Wd to Y is 0.3 or less; wherein the stretch direction comprises a lateral direction of the absorbent article; wherein Wd is 13 mm or less, and wherein the ratio of Wd to X is 0.55 or less. a chassis comprising a topsheet, a backsheet, and an absorbent core disposed between the topsheet and backsheet; and an ear joined to the chassis and comprising: a laminate comprising a first nonwoven and second nonwoven and an elastomeric material sandwiched between said first and second nonwovens, wherein the laminate further comprises a plurality of ultrasonic bonds which join the nonwoven layers through the elastomeric material; and wherein: the elastomeric material comprises a maximum dimension, Y, in a stretch direction; the elastomeric material defines a primary region comprising an elastic region and one or more unstretched zones; the elastic region comprises a maximum dimension, X, in the stretch direction and the one or more unstretched zones comprise an aggregate lateral width of Wd, and a ratio of Wd to Y is 0.3 or less; the elastomeric material comprises a maximum dimension, Y, in a stretch direction; the elastomeric material defines a primary region comprising an elastic region and one or more unstretched zones; the elastic region comprises a maximum dimension, X, in the stretch direction and the one or more unstretched zones comprise an aggregate lateral width of Wd, and a ratio of Wd to Y is 0.3 or less; wherein the stretch direction comprises a lateral direction of the absorbent article; wherein Wd is 13 mm or less, and wherein the ratio of Wd to X is 0.55 or less.
A printing head for a 3D printing assembly comprising: a filament output port connected to receive an unsolidified printing material from a feedstock processor and extrude with a filament comprising the unsolidified printing material; a pressing surface positioned to contact the filament once the filament is extruded; characterised by a field emitter configured to emit a field to attract a backing article toward the pressing surface to compress the filament between a substrate (8, 13) and the pressing surface. a filament output port connected to receive an unsolidified printing material from a feedstock processor and extrude with a filament comprising the unsolidified printing material; a pressing surface positioned to contact the filament once the filament is extruded; characterised by a field emitter configured to emit a field to attract a backing article toward the pressing surface to compress the filament between a substrate (8, 13) and the pressing surface.
An automated processing system, comprising an automated processing equipment and a communication module located in a proximity to the automated processing equipment and a local operation device operable by a local operator and configured to locally operate the automated processing equipment, and wherein the automated processing equipment is operable from a remote operation device by a remote operator, and wherein the communication module comprises: a housing; a proximity sensor coupled to the housing and configured to sense a presence of a person located within a safety zone around the automated processing equipment; one or more warning devices coupled to the housing and configured to display or sound a warning to the person; a user interface coupled to the housing and configured to display information and/or allow input by a local operator; and a communication interface operatively coupled with a communication network to exchange information with the remote operation device over said communication network. equipment and a communication module located in a proximity to the automated processing equipment and a local operation device operable by a local operator and configured to locally operate the automated processing equipment, and wherein the automated processing equipment is operable from a remote operation device by a remote operator, and wherein the communication module comprises: a housing; a proximity sensor coupled to the housing and configured to sense a presence of a person located within a safety zone around the automated processing equipment; one or more warning devices coupled to the housing and configured to display or sound a warning to the person; a user interface coupled to the housing and configured to display information and/or allow input by a local operator; and a communication interface operatively coupled with a communication network to exchange information with the remote operation device over said communication network. a housing; a proximity sensor coupled to the housing and configured to sense a presence of a person located within a safety zone around the automated processing equipment; one or more warning devices coupled to the housing and configured to display or sound a warning to the person; a user interface coupled to the housing and configured to display information and/or allow input by a local operator; and a communication interface operatively coupled with a communication network to exchange information with the remote operation device over said communication network.
A process comprising: (a) receiving a solid organophosphite compound that has been recrystallized or triturated, wherein the solid organophosphite compound comprises phosphorous acid; (b) dissolving the solid organophosphite compound in an organic solvent; and (c) treating the solution with a weakly basic adsorbent; and (d) collecting the treated organophosphite solution, wherein the acid content of the organophosphite following step (d) is 30 ppm or less.
A self-propelled driving simulator with a machine frame, which can be moved on a ground via three, preferably four or more, wheel assemblies, wherein the wheel assemblies each comprise at least one wheel, which can be displaced on the ground and is arranged rotatably about a steering axle, wherein the machine frame is coupled to a control cabin, which comprises a seat for a person and operating elements for controlling the driving simulator, wherein a movement device is provided, via which the control cabin is connected to the machine frame, wherein the movement device enables the control cabin to be inclined relative to the machine frame about a pitch axis and/or a roll axis, wherein at least one wheel assembly comprises a wheel drive for driving a wheel about the wheel axle, wherein preferably several wheel assemblies or all wheel assemblies each comprise at least one wheel drive for driving a wheel about the respective wheel axle, characterized in that the control cabin has a rotational degree of freedom relative to the machine frame, so that the control cabin can be rotated relative to the machine frame about a main axis of rotation, the main axis of rotation preferably being substantially a normal vector of the plane defined by the wheel contact surfaces of the wheels on the ground, in that the movement device enables an active rotation of the control cabin relative to the machine frame about the main axis of rotation, in that the wheel assemblies and/or the wheels are connected to the machine frame via a kinematic arrangement, which is designed as a chassis, the kinematic arrangement comprising elastic and/or damping elements, such as a spring-damper arrangement and a wheel suspension, for damping and/or attenuating unevenness of the ground.
A reactor system comprising: a) capsules having a wall wherein the inner side of the wall is more hydrophilic than the outer side of the wall, wherein the capsule wall comprises a hydrophilic inner side which comprises poly(N-isopropylacrylamide) (PNIPAM); b) a solvent or solvent mixture outside the capsules; c) a solvent or solvent mixture inside the capsules which is more hydrophilic than the solvent or solvent mixture; and d) at least one catalyst inside the capsules, wherein the catalyst comprises silver nanoparticles (AgNP) supported on catalyst carrier particles. a) capsules having a wall wherein the inner side of the wall is more hydrophilic than the outer side of the wall, wherein the capsule wall comprises a hydrophilic inner side which comprises poly(N-isopropylacrylamide) (PNIPAM); b) a solvent or solvent mixture outside the capsules; c) a solvent or solvent mixture inside the capsules which is more hydrophilic than the solvent or solvent mixture; and d) at least one catalyst inside the capsules, wherein the catalyst comprises silver nanoparticles (AgNP) supported on catalyst carrier particles.
A process for preparing silica core - shell microparticles comprising the steps of: a) growing a multi-layered porous silica shell from a silica precursor onto the surface of a non-porous silica particle dispersed in a mixed surfactant solution under basic pH conditions, b) hydrothermally treating the particles of (a) in an oil-in-water emulsion system; and c) calcining the particles of (b) to remove residual surfactants, wherein step (a) is repeated at least once to achieve a silica core-shell particle with an ordered mesoporous layered shell. wherein the mixed surfactant comprises a cationic surfactant of an alkyl trimethylammonium comprising the formula: C n N 3.X wherein: n is an integer between 12 and 20; R is an alkyl group of the form, CH 3, CH 3 CH 2, CH 3 CH 2 CH 2, or CH 3 CH 2 CH 2 CH 2; and X is Cl, Br or I, and a non-ionic surfactant of the formula: PEO x PPO y PEO x. herein: x is an integer between 5 and 106; and y is an integer between 30 and 85 a) growing a multi-layered porous silica shell from a silica precursor onto the surface of a non-porous silica particle dispersed in a mixed surfactant solution under basic pH conditions, b) hydrothermally treating the particles of (a) in an oil-in-water emulsion system; and c) calcining the particles of (b) to remove residual surfactants, n is an integer between 12 and 20; R is an alkyl group of the form, CH 3, CH 3 CH 2, CH 3 CH 2 CH 2, or CH 3 CH 2 CH 2 CH 2; and X is Cl, Br or I, x is an integer between 5 and 106; and y is an integer between 30 and 85
A straddle vehicle comprising: a body frame including a main frame extending rear-downward from a head pipe, a pivot frame extending downward from the main frame, and a lower frame which extends downward from the head pipe and extends rearward, and further, is connected to a lower portion of the pivot frame; a side stand which supports a vehicle body during parking; a side stand bracket which supports the side stand; characterised in that the straddle vehicle further comprises a main step on which a foot of a rider is placed; an a main step bracket which supports the main step, wherein the side stand bracket includes: a first fixing portion connected only to the lower portion of the pivot frame; and a second fixing portion connected only to the main step bracket, wherein, the main step bracket is arranged on an outer side in a vehicle width direction of the side stand bracket, and the main step bracket has an opening portion through which a head portion of a first fastening bolt mounted on the first fixing portion passes and is exposed to an outside. a body frame including a main frame extending rear-downward from a head pipe, a pivot frame extending downward from the main frame, and a lower frame which extends downward from the head pipe and extends rearward, and further, is connected to a lower portion of the pivot frame; a side stand which supports a vehicle body during parking; a side stand bracket which supports the side stand; characterised in that the straddle vehicle further comprises a main step on which a foot of a rider is placed; an a main step bracket which supports the main step, wherein the side stand bracket includes: a first fixing portion connected only to the lower portion of the pivot frame; and a second fixing portion connected only to the main step bracket, wherein, the main step bracket is arranged on an outer side in a vehicle width direction of the side stand bracket, and the main step bracket has an opening portion through which a head portion of a first fastening bolt mounted on the first fixing portion passes and is exposed to an outside. a first fixing portion connected only to the lower portion of the pivot frame; and a second fixing portion connected only to the main step bracket, wherein, the main step bracket is arranged on an outer side in a vehicle width direction of the side stand bracket, and the main step bracket has an opening portion through which a head portion of a first fastening bolt mounted on the first fixing portion passes and is exposed to an outside.
An optical assembly for viewing a scene, the assembly having an optical path extending from an objective end to an eyepiece, an electronic display configured to produce electronic imagery, and a beam-combiner, the beam-combiner being arranged in said optical path and being configured to combine light emitted by said electronic display with scene light from said objective end of the optical assembly to produce an augmented reality image at said eyepiece, characterised by the provision of an electrochromic filter mounted within said optical path and an electrical control arrangement, the control arrangement being electrically connected to the electrochromic filter and operable to adjust the optical transmittance of the electrochromic filter to thereby control the intensity of scene light viewed through the eyepiece, wherein the control arrangement includes a light sensor and is configured to adjust the optical transmittance of the electrochromic filter automatically in dependence on the intensity of light incident on the light sensor.
A washing machine comprising; an outer drum; an inner drum configured to hold items to be washed, wherein said inner drum is rotatably arranged around a rotational axis R in said outer drum; an outer drum opening arranged in said outer drum for accessing said inner drum; a door configured to seal said outer drum opening, wherein said door is arranged to be repeatably movable between a sealed position and an opened position, wherein the transition between said sealed position and said opened position is divided into a sealing movement along a first axis A1 extending outwards from said outer drum and in a sliding movement along a second axis A2; characterized in that the washing machine comprises a door guiding means configured to allow the door to move along said first axis and said second axis, wherein said door guiding means comprises a locking device configured to lock/seal said door and to perform said sealing movement. an outer drum; an inner drum configured to hold items to be washed, wherein said inner drum is rotatably arranged around a rotational axis R in said outer drum; an outer drum opening arranged in said outer drum for accessing said inner drum; a door configured to seal said outer drum opening, wherein said door is arranged to be repeatably movable between a sealed position and an opened position, wherein the transition between said sealed position and said opened position is divided into a sealing movement along a first axis A1 extending outwards from said outer drum and in a sliding movement along a second axis A2; characterized in that the washing machine comprises a door guiding means configured to allow the door to move along said first axis and said second axis, wherein said door guiding means comprises a locking device configured to lock/seal said door and to perform said sealing movement.
A method in a wireless device, comprising: detecting that a load associated with a set of radio resources allocated for vehicle-to-other, V2x, communication exceeds a load threshold, the wireless device having a first transport format for V2x transmissions, wherein the first transport format is a most suitable format for a particular V2x application; and upon detecting that the load associated with the set of radio resources allocated for V2x communication exceeds the load threshold, selecting a second transport format for use in a subsequent V2x transmission by the wireless device, wherein the second transport format is a common format for multiple wireless devices, wherein the first transport format and the second transport format have at least one different radio parameter comprising one or more of: a channel bandwidth, a number of retransmissions, a modulation scheme, a coding scheme, and a resource hopping pattern, the second transport format being configured to reduce radio resource fragmentation. detecting that a load associated with a set of radio resources allocated for vehicle-to-other, V2x, communication exceeds a load threshold, the wireless device having a first transport format for V2x transmissions, wherein the first transport format is a most suitable format for a particular V2x application; and upon detecting that the load associated with the set of radio resources allocated for V2x communication exceeds the load threshold, selecting a second transport format for use in a subsequent V2x transmission by the wireless device, wherein the second transport format is a common format for multiple wireless devices, wherein the first transport format and the second transport format have at least one different radio parameter comprising one or more of: a channel bandwidth, a number of retransmissions, a modulation scheme, a coding scheme, and a resource hopping pattern, the second transport format being configured to reduce radio resource fragmentation.