mhurhangee/ep-ind-claims huggingface dataset:
An apparatus comprising: a processor; and a memory storing thereon a computer program, which when executed by the processor, causes the processor to perform operations including: detecting a recognition target present within a predetermined range from an autonomous moving body which includes the apparatus; and presenting, to the detected recognition target, a recognition result indicating that the autonomous moving body recognizes the recognition target as a result of detection of the recognition target, wherein the presenting includes emitting light in a direction in which the recognition target is present and emitting light in a predetermined shape toward the ground at a position where the recognition target is present characterized by presenting further includes emitting light to a straight line that connects the position on the ground at which the recognition target is present and a position on the ground at which the autonomous moving body is present. a processor; and a memory storing thereon a computer program, which when executed by the processor, causes the processor to perform operations including: detecting a recognition target present within a predetermined range from an autonomous moving body which includes the apparatus; and presenting, to the detected recognition target, a recognition result indicating that the autonomous moving body recognizes the recognition target as a result of detection of the recognition target, wherein the presenting includes emitting light in a direction in which the recognition target is present and emitting light in a predetermined shape toward the ground at a position where the recognition target is present characterized by presenting further includes emitting light to a straight line that connects the position on the ground at which the recognition target is present and a position on the ground at which the autonomous moving body is present. detecting a recognition target present within a predetermined range from an autonomous moving body which includes the apparatus; and presenting, to the detected recognition target, a recognition result indicating that the autonomous moving body recognizes the recognition target as a result of detection of the recognition target, wherein the presenting includes emitting light in a direction in which the recognition target is present and emitting light in a predetermined shape toward the ground at a position where the recognition target is present characterized by presenting further includes emitting light to a straight line that connects the position on the ground at which the recognition target is present and a position on the ground at which the autonomous moving body is present.
A method for decoding an SID frame for transmitting background noise information using a scalable speech signal coding method with the following steps: Determining an amount of received broadband speech frames relative to received narrowband speech frames during a speech phase, Decoding the background noise information contained in an SID frame upon entrance into a DTX phase, wherein the decoding takes place according to the determined amount of primarily broadband or narrowband. Determining an amount of received broadband speech frames relative to received narrowband speech frames during a speech phase, Decoding the background noise information contained in an SID frame upon entrance into a DTX phase, wherein the decoding takes place according to the determined amount of primarily broadband or narrowband.
Output device for folded, flat structures with at least one rear wall and two side walls adjacent thereto and a base region, wherein the base region has a removal opening extending longitudinally between the side walls, the removal opening adjoining a removal curvature of the base region extending into an interior of the output device, wherein the removal curvature extends between the rear side of the base region and the removal opening, characterised in that the removal curvature forms a recess in the rear wall.
A process for preparing spherical particles of a catalyst composition, the process comprising: contacting an organomagnesium precursor with a transition metal compound in presence of an internal donor to obtain a reaction mixture; heating the reaction mixture from a first pre-determined temperature to a second pre-determined temperature and thereafter heating the reaction mixture from second pre-determined temperature to a third pre-determined temperature to obtain spherical particles of the catalyst composition, wherein heating the reaction mixture from the first pre-determined temperature to the second pre-determined temperature is instigated for a fixed period of time in the range of 5 to 200 minutes at a rate of 0.01 to 10.0°C/minute; wherein the heating of the reaction mixture from the first pre-determined temperature to the second pre-determined temperature is done at an agitation/stirring speed of 100 to 1000 rpm; wherein the organomagnesium precursor is liquid in nature and is prepared by contacting magnesium source with organohalide and alcohol in presence of a solvent in a single step or the organomagnesium precursor is solid in nature and is prepared by first contacting the magnesium source with organohalide in presence of solvating agent as the first step and then followed by addition of alcohol. contacting an organomagnesium precursor with a transition metal compound in presence of an internal donor to obtain a reaction mixture; heating the reaction mixture from a first pre-determined temperature to a second pre-determined temperature and thereafter heating the reaction mixture from second pre-determined temperature to a third pre-determined temperature to obtain spherical particles of the catalyst composition, wherein heating the reaction mixture from the first pre-determined temperature to the second pre-determined temperature is instigated for a fixed period of time in the range of 5 to 200 minutes at a rate of 0.01 to 10.0°C/minute; wherein the heating of the reaction mixture from the first pre-determined temperature to the second pre-determined temperature is done at an agitation/stirring speed of 100 to 1000 rpm; wherein the organomagnesium precursor is liquid in nature and is prepared by contacting magnesium source with organohalide and alcohol in presence of a solvent in a single step or the organomagnesium precursor is solid in nature and is prepared by first contacting the magnesium source with organohalide in presence of solvating agent as the first step and then followed by addition of alcohol.
A medical device system for delivering a neuromodulation therapy, comprising: an implantable medical device comprising: a housing; an electronic circuit within the housing; an electrical lead comprising a lead body extending between a proximal end coupled to the housing and a distal end extending away from the housing and at least one electrode carried by the lead body; and a delivery tool for deploying the implantable medical device at a neuromodulation therapy site, characterised in that the tool comprises a first cavity for receiving the housing and a second cavity for receiving the lead, the first cavity and the second cavity in direct communication for receiving the housing and the lead coupled to the housing as a single unit. an implantable medical device comprising: a housing; an electronic circuit within the housing; an electrical lead comprising a lead body extending between a proximal end coupled to the housing and a distal end extending away from the housing and at least one electrode carried by the lead body; and a housing; an electronic circuit within the housing; an electrical lead comprising a lead body extending between a proximal end coupled to the housing and a distal end extending away from the housing and at least one electrode carried by the lead body; and a delivery tool for deploying the implantable medical device at a neuromodulation therapy site, characterised in that the tool comprises a first cavity for receiving the housing and a second cavity for receiving the lead, the first cavity and the second cavity in direct communication for receiving the housing and the lead coupled to the housing as a single unit.
An adhesion method of noble metal to a carbon steel material of an atomic energy plant, the method comprising: forming either a nickel metal film or a chrome metal film on a surface of the carbon steel material of the atomic energy plant, which comes into contact with cooling water, so as to cover the surface with the formed metal film; and adhering noble metal to the surface of the formed metal film, wherein the forming of either the nickel metal film or the chrome metal film, and the adhering of the noble metal are performed when the atomic energy plant is suspended. forming either a nickel metal film or a chrome metal film on a surface of the carbon steel material of the atomic energy plant, which comes into contact with cooling water, so as to cover the surface with the formed metal film; and adhering noble metal to the surface of the formed metal film, wherein the forming of either the nickel metal film or the chrome metal film, and the adhering of the noble metal are performed when the atomic energy plant is suspended.
Hand-held power tool which has a sub-assembly vibrating along an axis of vibration and a contactless manual electrical switch, the manual switch having an actuating means, a switch in sensor form and an at least pivotable switching means carrier and the switching means carrier being controllable manually by the actuating means via a transmission means for pivoting movement which has limited axial mobility in the direction defined by the axis of vibration, characterised in that the switch in sensor form is connected to the vibrating sub-assembly and is connected to the switching means carrier to be free of vibration relative to the said switching means carrier, and an axis of pivot of the switching means carrier is orientated along or alongside the axis of vibration.
A curable epoxy resin formulation composition useful as insulation for electrical apparatus comprising (a) at least one liquid epoxy resin wherein the liquid epoxy resin is diglycidyl ether of bisphenol A, bisphenol F diglycidyl ether, epoxy novolac, or mixtures thereof, and wherein the concentration of the at least one liquid epoxy resin ranges from 7 weight percent to 30 weight percent; (b) at least one liquid cyclic anhydride hardener wherein the liquid cyclic anhydride hardener is phthalic anhydride, tetrahydrophthalic anhydride, methyl tetrahydrophthalic anhydride, hexahydrophthalic anhydride, methyl hexahydrophthalic anhydride, nadic methyl anhydride, succinic anhydride, dodecenylsuccinic anhydride, glutaric anhydride, pyromellitic anhydride, maleic anhydride, isatoic anhydride, benzophenonetetracarboxylic anhydride, or mixtures thereof, and wherein the concentration of the at least one liquid cyclic anhydride hardener ranges from 7 weight percent to 35 weight percent; (c) at least one thermally conducting and electrically insulating solid filler, wherein the filler is an epoxy-silane treated filler, wherein the filler has a size between 1 μm (micron) and 100 μm (microns), and wherein the concentration of the at least one filler ranges from 40 weight percent to 80 weight percent; and (d) at least one amine cure catalyst having no amine hydrogens wherein the catalyst is tertiary amines, 1-substituted imidazoles, organo-phosphines, and acid salts, and wherein the concentration of the at least one amine cure catalyst ranges from 0.005 weight percent to 2 weight percent; wherein the epoxy resin formulation composition upon curing provides a cured product with a balance of properties comprising a glass transition temperature of at least 140°C, a tensile strength of at least 80 MPa, a dielectric breakdown strength of at least 10 kV/mm, a thermal conductivity of at least 0.8 W/m-K, and a volume resistivity of at least 1x10 12 ohm-cm.
Percussion drilling apparatus to affect at least one characteristic of a shock wave produced in a drill string, the apparatus comprising: an elongate piston having a main length and an energy transmission end, the piston mounted to shuttle back and forth axially to contact a drill string or an intermediate adaptor and create a shock wave within the drill string; an elongate energy transmission adaptor having, rearward end to receive energy from the piston and a forward end for coupling to the drill string, a length section positioned axially between the ends (102, 103); characterised in that: the adaptor comprises an elongate shock wave modification sleeve having a free end and an attachment end formed as an annular wall that projects radially from the length section of the adaptor at an axial position between the ends (102, 103) such that a main length section and the free end of the sleeve are separated radially from and surround a region of an outer surface of the length section of the adaptor; and an annular gap region is positioned radially between the outer surface and the main length section; wherein a ratio of an axial length (Ls) of the sleeve main length section and an axial length (L P) of the main length of the piston is in a range 0.1 to 1.0. an elongate piston having a main length and an energy transmission end, the piston mounted to shuttle back and forth axially to contact a drill string or an intermediate adaptor and create a shock wave within the drill string; an elongate energy transmission adaptor having, rearward end to receive energy from the piston and a forward end for coupling to the drill string, a length section positioned axially between the ends (102, 103); characterised in that: the adaptor comprises an elongate shock wave modification sleeve having a free end and an attachment end formed as an annular wall that projects radially from the length section of the adaptor at an axial position between the ends (102, 103) such that a main length section and the free end of the sleeve are separated radially from and surround a region of an outer surface of the length section of the adaptor; and an annular gap region is positioned radially between the outer surface and the main length section; wherein a ratio of an axial length (Ls) of the sleeve main length section and an axial length (L P) of the main length of the piston is in a range 0.1 to 1.0. the adaptor comprises an elongate shock wave modification sleeve having a free end and an attachment end formed as an annular wall that projects radially from the length section of the adaptor at an axial position between the ends (102, 103) such that a main length section and the free end of the sleeve are separated radially from and surround a region of an outer surface of the length section of the adaptor; and an annular gap region is positioned radially between the outer surface and the main length section; wherein a ratio of an axial length (Ls) of the sleeve main length section and an axial length (L P) of the main length of the piston is in a range 0.1 to 1.0.
A circular stapler comprising an anvil cap for providing secure anastomosis, a main body, a clamping arm configured on said main body, a punch section and a punch surface (12.1) corresponding to said punch section; wherein said anvil cap comprises - an outer shaft, - an inner shaft adapted to pass through the outer shaft, - lower wings having thrust bearings (2.2) and connected to the outer shaft by a first set of joint points (2.3), - upper wings having thrust protrusions (5.3) and connected to the inner shaft by a second set of joint points, and - a command wire, characterized in that the outer shaft provides attachment of the anvil cap with the main body, and the command wire passes through the outer shaft, thereby providing pulling movement on the inner shaft for opening of the lower wings with pressure of the thrust protrusions (5.3) on the thrust bearings (2.2) and positioning of the upper wings into interspaces (14.1) between the lower wings. - an outer shaft, - an inner shaft adapted to pass through the outer shaft, - lower wings having thrust bearings (2.2) and connected to the outer shaft by a first set of joint points (2.3), - upper wings having thrust protrusions (5.3) and connected to the inner shaft by a second set of joint points, and - a command wire,
A robotic system comprising: a guide tube; a plurality of devices (2231, 2241, 2261); a plurality of slave manipulators (2232, 2242, 2262), each manipulator of the plurality of slave manipulators (2232, 2242, 2262) configured to manipulate a respective device of the plurality of devices (2231, 2241, 2261), wherein each of the plurality of devices (2231, 2241, 2261) is disposed through the guide tube so as to be extendable beyond a distal end of the guide tube; a master input device (203, 204); and characterized by: means (2202; 3402, 3403, 3404, 3405; 3302, 3304, 3305) for concurrently commanding the plurality of slave manipulators (2232, 2242, 2262) to move their respective devices in a common degree-of-freedom direction in response to movement of the master input device (203, 204), wherein the common degree-of-freedom direction is a surge direction relative to the distal end of the guide tube, wherein movement of the respective device in the surge direction moves the respective device longitudinally in the guide tube to extend beyond, or to retract into, the distal end of the guide tube. a guide tube; a plurality of devices (2231, 2241, 2261); a plurality of slave manipulators (2232, 2242, 2262), each manipulator of the plurality of slave manipulators (2232, 2242, 2262) configured to manipulate a respective device of the plurality of devices (2231, 2241, 2261), wherein each of the plurality of devices (2231, 2241, 2261) is disposed through the guide tube so as to be extendable beyond a distal end of the guide tube; a master input device (203, 204); and characterized by: means (2202; 3402, 3403, 3404, 3405; 3302, 3304, 3305) for concurrently commanding the plurality of slave manipulators (2232, 2242, 2262) to move their respective devices in a common degree-of-freedom direction in response to movement of the master input device (203, 204), wherein the common degree-of-freedom direction is a surge direction relative to the distal end of the guide tube, wherein movement of the respective device in the surge direction moves the respective device longitudinally in the guide tube to extend beyond, or to retract into, the distal end of the guide tube.
An elevator system having a cabin and a first and a second transport path (1; 2) for said cabin, wherein the direction of the first transport path runs vertically and the direction of the second transport path runs non-vertically, so that the direction of the first transport path differs from that of the second transport path, characterized in that in or on the cabin a signaling device is located, which displays a change of the cabin from the first transport path into the second transport path and/or vice versa.
A chemical agent package, comprising: a package bag formed of a water-soluble film; and a chemical agent packaged in the package bag, wherein the water-soluble film comprises a polyvinyl alcohol resin as a main component, wherein a ratio (X TD /X MD) of a degree of elongation (X TD) in a transverse direction of the water-soluble film to a degree of elongation (X MD) in a machine direction thereof during testing conditions wherein the water-soluble film is floated on a surface of water at 20°C for 60 seconds is from 1.05 to 1.5, wherein the polyvinyl alcohol resin comprises an anionic group-modified polyvinyl alcohol resin, and wherein a 4 wt.% aqueous solution viscosity of the polyvinyl alcohol resin at 20°C is from 20 mPa·s to 50 mPa·s. a package bag formed of a water-soluble film; and a chemical agent packaged in the package bag, wherein the water-soluble film comprises a polyvinyl alcohol resin as a main component, wherein a ratio (X TD /X MD) of a degree of elongation (X TD) in a transverse direction of the water-soluble film to a degree of elongation (X MD) in a machine direction thereof during testing conditions wherein the water-soluble film is floated on a surface of water at 20°C for 60 seconds is from 1.05 to 1.5, wherein the polyvinyl alcohol resin comprises an anionic group-modified polyvinyl alcohol resin, and wherein a 4 wt.% aqueous solution viscosity of the polyvinyl alcohol resin at 20°C is from 20 mPa·s to 50 mPa·s.
Device for optimally adjusting the lens plate in a concentrating photovoltaic module, which consists of a plurality of CPV sensors, which are arranged in a surface, in a sensor carrier plate and a plurality of lenses, which are attached above this at the distance of the focal length thereof in a lens plate, wherein both plates (1, 2) are housed in a weather-insensitive housing, having the following features: a) a sensor carrier plate having a plurality of CPV sensors, wherein a settable electrical power can be applied to the CPV sensors, b) a lens plate having a number of lenses corresponding to the number of the CPV sensors, wherein the lenses are mounted essentially parallel to the horizontal location of the CPV sensors in the region of the optical axis thereof, c) a fixed lens plate mounted in parallel to the location of the lens plate, d) a number, corresponding to the number of CPV sensors, of quadrant sensors, which are aligned in parallel to the fixed lens plate, and the geometrical center point of which is located at a distance of the focal length of the fixed lenses of the lens plate on the optical axis thereof, e) two devices (12, 13) for adjusting the lens plate in two horizontal directions, which are aligned at a right angle to one another, f) a control unit for analyzing output signals of the quadrant sensors, wherein the control unit controls the two devices (12, 13) in dependence on the quality of the output signals of the quadrant sensors and the supplied electrical power of the CPV sensors. a) a sensor carrier plate having a plurality of CPV sensors, wherein a settable electrical power can be applied to the CPV sensors, b) a lens plate having a number of lenses corresponding to the number of the CPV sensors, wherein the lenses are mounted essentially parallel to the horizontal location of the CPV sensors in the region of the optical axis thereof, c) a fixed lens plate mounted in parallel to the location of the lens plate, d) a number, corresponding to the number of CPV sensors, of quadrant sensors, which are aligned in parallel to the fixed lens plate, and the geometrical center point of which is located at a distance of the focal length of the fixed lenses of the lens plate on the optical axis thereof, e) two devices (12, 13) for adjusting the lens plate in two horizontal directions, which are aligned at a right angle to one another, f) a control unit for analyzing output signals of the quadrant sensors, wherein the control unit controls the two devices (12, 13) in dependence on the quality of the output signals of the quadrant sensors and the supplied electrical power of the CPV sensors.
Kit of parts for fastening a housing in a vehicle, with a carrier plate oriented transversely to an insertion direction, which has at least one receptacle (7, 8) into which a projection of the housing can be inserted along the insertion direction, and a securing plate extending parallel to the insertion direction, which has a further receptacle for a further projection of the housing, wherein the further receptacle is connected to an edge of the securing plate via a passage, wherein the kit of parts comprises an elastic buffer which can be fixed in each receptacle (7, 8) of the carrier plate and has a passage extending in the insertion direction in order to receive the at least one projection, characterized in that the buffer has a section of smaller diameter between two sections of larger diameter and each receptacle (7, 8) of the carrier plate has a wide area which is dimensioned to at least to let one of the sections of larger diameter through, and a narrow area in which the section of smaller diameter can be fixed immovably in the insertion direction.