mhurhangee/ep-ind-claims huggingface dataset:
A mobile robot, comprising: a body; a mop module for including a left rotating plate rotatably installed on the body and having a water supply space, and a right rotating plate rotatably installed on the body and having the water supply space; a water distribution module for distributing and supplying water to the water supply space of the left rotating plate and the water supply space of the right rotating plate; and a water supply module for supplying water to the water distribution module, wherein the water distribution module includes, a water-supply counterpart portion connected to the water supply module to receive water; a left water distribution pipe connected to the water-supply counterpart portion to supply water from the water-supply counterpart portion to the water supply space of the left rotating plate; and a right water distribution pipe connected to the water-supply counterpart portion to supply the water of the water-supply counterpart portion to the water supply space of the right rotating plate, wherein the length of the left water distribution pipe is the same as the length of the right water distribution pipe, and wherein the water supply module is installed on the body, characterized in that the water distribution module is installed in the mop module. a body; a mop module for including a left rotating plate rotatably installed on the body and having a water supply space, and a right rotating plate rotatably installed on the body and having the water supply space; a water distribution module for distributing and supplying water to the water supply space of the left rotating plate and the water supply space of the right rotating plate; and a water supply module for supplying water to the water distribution module, wherein the water distribution module includes, a water-supply counterpart portion connected to the water supply module to receive water; a left water distribution pipe connected to the water-supply counterpart portion to supply water from the water-supply counterpart portion to the water supply space of the left rotating plate; and a right water distribution pipe connected to the water-supply counterpart portion to supply the water of the water-supply counterpart portion to the water supply space of the right rotating plate, wherein the length of the left water distribution pipe is the same as the length of the right water distribution pipe, and wherein the water supply module is installed on the body, characterized in that the water distribution module is installed in the mop module.
Connecting device for a fluid line, designed as a subassembly with at least one holding sleeve and a separate support component, wherein the holding sleeve is designed to be inserted in a position of use with its front side leading into a fastening opening of the separate support component having an internal thread and to be fixed in the position of use in this fastening opening through engagement into the internal thread and wherein passing axially through the holding sleeve is an insertion opening into which a fluid line to be connected may be inserted from the rear of the holding sleeve, wherein the holding sleeve has a holding element with an annular structure encompassing the insertion opening and having several holding claws extending radially inwards at an angle and designed to act upon the outer periphery of the fluid line inserted into the insertion opening for the purpose of holding it, wherein the holding element has several securing arms spaced apart from one another around the insertion opening and having radially outwards extending end sections which lie on a helical line matched, in respect of their pitch, to the pitch of the internal thread of the support component and which form, in the position of use of the holding sleeve, engaging projections which engage in the thread pitch of the internal thread of the support component.
A light emitting device comprising: a substrate; a light emitting element disposed on the substrate; a light transmissive member having a plate shape and having an upper face and a lower face disposed such that the lower face opposes a light emission face of the light emitting element; a light reflecting member covering lateral faces of the light emitting element and lateral faces of the light transmissive member; and a light shielding frame disposed on the upper face of the light reflecting member surrounding the light transmissive member; wherein the light shielding frame has an opening, an inner perimeter of the opening is positioned at a distance apart from an outer perimeter of the upper face of the light transmissive member in a plan view as seen from above, and the light reflecting member is interposed between the inner perimeter of the opening and the outer perimeter of the upper face of the light transmissive member, characterised in that the lower face of the light transmissive member is larger than the upper face of the light transmissive member, and an outer perimeter of the lower face of the light transmissive member is positioned outward of the inner perimeter of the opening in the plan view as seen from above. a substrate; a light emitting element disposed on the substrate; a light transmissive member having a plate shape and having an upper face and a lower face disposed such that the lower face opposes a light emission face of the light emitting element; a light reflecting member covering lateral faces of the light emitting element and lateral faces of the light transmissive member; and a light shielding frame disposed on the upper face of the light reflecting member surrounding the light transmissive member; wherein the light shielding frame has an opening, an inner perimeter of the opening is positioned at a distance apart from an outer perimeter of the upper face of the light transmissive member in a plan view as seen from above, and the light reflecting member is interposed between the inner perimeter of the opening and the outer perimeter of the upper face of the light transmissive member, characterised in that the lower face of the light transmissive member is larger than the upper face of the light transmissive member, and an outer perimeter of the lower face of the light transmissive member is positioned outward of the inner perimeter of the opening in the plan view as seen from above.
A method for producing a part or replica by molding or casting with an embedded 2D barcode defined in the surface of said part and the said embedded 2D barcode subsequently being readable using a light source and a camera, said method comprising at least the following steps: - providing an initial mold with an array of individual areas of optical anisotropic surface structures, where at least a number of the said individual optical anisotropic structures forms a two-dimensional barcode, such as a data matrix; - making a replica of the mold using a molding or casting process, thereby making a part comprising a replica of the said array of individual areas of optical anisotropic surface structures; - wherein said replica of the said mold, comprising the said array of individual areas of optical anisotropic structures, has the property that the directional reflection coefficient of the individual areas of optical anisotropic surface structures is dependent on the illumination angle and detection angle in a way that is not rotationally symmetric around the axis normal to the surface of the said replica - and wherein said array of individually optical anisotropic surface structures of the said replica thereby are readable as a 2D barcode by illumination and detection of reflection intensity of said illumination source under a non-normal angle to the surface of the said replica, characterised in that the individual areas of optical anisotropic structures in the mold are independently rotatable in such a way that a new code can be defined in the mold between each molding or casting process. - providing an initial mold with an array of individual areas of optical anisotropic surface structures, where at least a number of the said individual optical anisotropic structures forms a two-dimensional barcode, such as a data matrix; - making a replica of the mold using a molding or casting process, thereby making a part comprising a replica of the said array of individual areas of optical anisotropic surface structures; - wherein said replica of the said mold, comprising the said array of individual areas of optical anisotropic structures, has the property that the directional reflection coefficient of the individual areas of optical anisotropic surface structures is dependent on the illumination angle and detection angle in a way that is not rotationally symmetric around the axis normal to the surface of the said replica - and wherein said array of individually optical anisotropic surface structures of the said replica thereby are readable as a 2D barcode by illumination and detection of reflection intensity of said illumination source under a non-normal angle to the surface of the said replica, characterised in that the individual areas of optical anisotropic structures in the mold are independently rotatable in such a way that a new code can be defined in the mold between each molding or casting process.
A gas heater heating element manufacturing method, wherein said gas heater heating element comprises at least one electric heating element in a monolithic structure, a support and channel structure having a plurality of channels is formed within said monolithic structure, the electric heating element is carried in the channels of the support and channel structure, and heat can be transferred from the electric heating element within the channels to a gas flowing through the channels for heating said gas and/or for achieving high gas temperatures, characterized by the following steps: - forming the electrical heating element; - coating the electric heating element at least in sections or completely with at least one coating material; - placing the coated electric heating element in a mold (5, 6) for producing a monolithic structure; - producing the monolithic structure surrounding the coated electrical heating element and - removing the coating material of the electric heating element. - forming the electrical heating element; - coating the electric heating element at least in sections or completely with at least one coating material; - placing the coated electric heating element in a mold (5, 6) for producing a monolithic structure; - producing the monolithic structure surrounding the coated electrical heating element and - removing the coating material of the electric heating element.
A loudspeaker diaphragm (11; 11A) comprising: a base layer containing natural fibers; and a coating layer containing bamboo cellulose nanofibers and formed at least on a first side of the base layer, wherein the coating layer has a thickness in a range of 3% to 15%, both inclusive of a sum of thicknesses of the base layer and the coating layer, and the coating layer has a higher elastic modulus than the base layer has. a base layer containing natural fibers; and a coating layer containing bamboo cellulose nanofibers and formed at least on a first side of the base layer, wherein the coating layer has a thickness in a range of 3% to 15%, both inclusive of a sum of thicknesses of the base layer and the coating layer, and the coating layer has a higher elastic modulus than the base layer has.
Fixing system of a canvas stretched by a chassis with fixing devices of the canvas in order to prevent a potential dimensional deformation of said sheet regardless from the said fixing devices of the canvas. These devices include a first component which is set in connection with the fixing system of the canvas, it is the support. Its features are a mobile plaque separate from the said support and positioned between the canvas and the said support as well as biaising means tending to bring the plaque away from the support in order to stretch the canvas.
A heavy wall electric resistance welded steel pipe for a line pipe having a wall thickness of 20 mm or more, the steel pipe being a heavy wall electric resistance welded steel pipe which is formed from a thick hot-rolled steel sheet as a raw material and which has a base metal zone and an electric resistance weld zone, wherein the base metal zone has a chemical composition consisting of, by mass%, C: 0.02% or more and 0.10% or less, Si: 0.05% or more and 0.25% or less, Mn: 0.80% or more and 1.80% or less, and Nb: 0.010% or more and 0.100% or less, P: 0.030% or less, S: 0.0050% or less, Ti: 0.001% or more and 0.015% or less and Al: 0.01% or more and 0.08% or less, optionally Ca: 0.0005% or more and 0.0050% or less, one, two, or more selected from among Cu: 0.5% or less, Ni: 0.5% or less, Cr: 0.5% or less, Mo: 0.5% or less, and V: 0.10% or less, and the balance being Fe and inevitable impurities, including O: 0.0030% or less and N: 0.0050% or less, and satisfying the condition that a carbon equivalent Ceq defined by equation below is 0.25% or more and 0.50% or less, and a microstructure including a bainitic ferrite phase and/or a bainite phase, wherein the base metal zone has a high strength of 360 MPa or more and 705 MPa or less in terms of yield strength and a high toughness of -45°C or lower in terms of fracture transition temperature vTrs in a Charpy impact test, wherein the electric resistance weld zone has a microstructure including a bainitic ferrite phase and/or a bainite phase and satisfying the condition that the ratio of the average crystal grain size of a portion having the largest grain size in every portion in the wall thickness direction to the average crystal grain size of a portion having the smallest grain size in every portion in the wall thickness direction, that is, (the average crystal grain size of the coarsest-grain portion)/(the average crystal grain size of the finest-grain portion) is 2.0 or less, wherein the average crystal grain size of the finest-grain portion is 10 μm or less, and 0.80 mm or more in terms of critical opening displacement δ at a testing temperature of -25°C in a CTOD test: Ceq % = C + Mn / 6 + Cr + Mo + V / 5 + Cu + Ni / 15 where C, Mn, Cr, Mo, V, Cu, Ni respectively represent the contents of the corresponding chemical elements (mass%).,
A method for estimating positions of a mobile station, the method comprising: sending a request, from the mobile station, for almanac information for wireless transmitters (601, 603, 605, 607, 609, 611, 613, 615, 617, 619, 621, 625, 629) of one or more wireless communications networks, the request including one or more indications of one or more routes including at least one of: a historical route of the mobile station and a predicted route of the mobile station; receiving, at the mobile station, the almanac information for wireless transmitters of the one or more wireless communications networks, the almanac information being for a subset of wireless transmitters (601, 603, 605, 607, 609, 611, 613) of the wireless transmitters of the one or more wireless communications networks, the subset of wireless transmitters being based, at least in part, on a proximity of the individual wireless transmitter to the historical route, on a proximity of the individual wireless transmitter to the predicted route, or on a combination thereof; acquiring signals, at the mobile station, from a plurality of wireless transmitters of the subset of wireless transmitters; and estimating, at the mobile station, a plurality of positions of the mobile station using at least one of the acquired signals from the plurality of wireless transmitters. sending a request, from the mobile station, for almanac information for wireless transmitters (601, 603, 605, 607, 609, 611, 613, 615, 617, 619, 621, 625, 629) of one or more wireless communications networks, the request including one or more indications of one or more routes including at least one of: a historical route of the mobile station and a predicted route of the mobile station; receiving, at the mobile station, the almanac information for wireless transmitters of the one or more wireless communications networks, the almanac information being for a subset of wireless transmitters (601, 603, 605, 607, 609, 611, 613) of the wireless transmitters of the one or more wireless communications networks, the subset of wireless transmitters being based, at least in part, on a proximity of the individual wireless transmitter to the historical route, on a proximity of the individual wireless transmitter to the predicted route, or on a combination thereof; acquiring signals, at the mobile station, from a plurality of wireless transmitters of the subset of wireless transmitters; and estimating, at the mobile station, a plurality of positions of the mobile station using at least one of the acquired signals from the plurality of wireless transmitters.
A photonic device comprising: a substrate; an outer cladding material formed above the substrate; an inner core within a portion of the outer cladding material, the inner core and the outer cladding material each having a top surface, wherein the top surface of the inner core and the top surface of the outer cladding material occupy a common plane; and an anti-coupling area in the substrate extending below at least a portion of the inner core and at least a portion of the outer cladding material, wherein the anti-coupling area is sufficient to mitigate optical coupling between the inner core and the substrate, wherein the inner core has a plurality of holes (140, 240, 340) extending therethrough from the top surface thereof to the anti-coupling area to form a photonic crystal, and wherein the photonic device includes a waveguide, and wherein a refractive index of the inner core is greater than a refractive index of the outer cladding. a substrate; an outer cladding material formed above the substrate; an inner core within a portion of the outer cladding material, the inner core and the outer cladding material each having a top surface, wherein the top surface of the inner core and the top surface of the outer cladding material occupy a common plane; and an anti-coupling area in the substrate extending below at least a portion of the inner core and at least a portion of the outer cladding material, wherein the anti-coupling area is sufficient to mitigate optical coupling between the inner core and the substrate, wherein the inner core has a plurality of holes (140, 240, 340) extending therethrough from the top surface thereof to the anti-coupling area to form a photonic crystal, and wherein the photonic device includes a waveguide, and wherein a refractive index of the inner core is greater than a refractive index of the outer cladding.
An implantable device that is implantable in body tissue of a human or animal, the implantable device comprising a housing, the housing comprising: an open-ended case closed by a plate and comprised of a surrounding edge wall joined to a first side wall and a second side wall opposed to the first side wall; and characterized by the housing further comprising: at least one suture port extending through the surrounding edge wall and the second side wall but not the first side wall.
Adhesive tape having a carrier composed of a film bearing on at least one side an applied adhesive, where the film is a monoaxially oriented film which consists to an extent of at least 95 wt%, preferably 99 wt%, more preferably 100 wt%, of propylene polymer composition which has different phases and which comprises the following components: i) 93 to 96 wt%, based on the total weight of components i) and ii), of a propylene polymer matrix which comprises a propylene homopolymer and further preferably a preferably random propylene copolymer having a comonomer which is selected from ethylene or C 4 to C 10 α-olefins, the comonomer content of the propylene polymer matrix being not more than 15 wt%; ii) 4 to 7 wt%, based on the total weight of components i) and ii), of an elastomer in the form of an ethylene-propylene copolymer having an ethylene content of 50 to 90 wt%. i) 93 to 96 wt%, based on the total weight of components i) and ii), of a propylene polymer matrix which comprises a propylene homopolymer and further preferably a preferably random propylene copolymer having a comonomer which is selected from ethylene or C 4 to C 10 α-olefins, the comonomer content of the propylene polymer matrix being not more than 15 wt%; ii) 4 to 7 wt%, based on the total weight of components i) and ii), of an elastomer in the form of an ethylene-propylene copolymer having an ethylene content of 50 to 90 wt%.
A prosthesis for placement in a patient for controlling fluid flow through a passageway, the prosthesis comprising: a tubular stent having a proximal portion, a distal portion, and a passage extending longitudinally therethrough; and a sleeve extending from the distal portion of the tubular stent, the sleeve having a lumen extending longitudinally therethrough and communicating with the passage of the tubular stent, the sleeve permitting the passage of a fluid through the lumen in a first direction in response to the fluid applying a first pressure to the sleeve in the first direction, the sleeve being collapsible so as to substantially close the lumen in response to a fluid applying a second pressure to the sleeve in a second direction; wherein at least a portion of a proximal portion of the sleeve extends over an outer surface of the stent and is affixed thereto at a sleeve connection position; and wherein the sleeve is normally closed in the absence of fluid applying the first pressure to the sleeve in the first direction; characterized by the distal portion of the tubular stent comprising a first opening ( 82, 84) through a sidewall thereof, the first opening being distal to the sleeve connection position. a tubular stent having a proximal portion, a distal portion, and a passage extending longitudinally therethrough; and a sleeve extending from the distal portion of the tubular stent, the sleeve having a lumen extending longitudinally therethrough and communicating with the passage of the tubular stent, the sleeve permitting the passage of a fluid through the lumen in a first direction in response to the fluid applying a first pressure to the sleeve in the first direction, the sleeve being collapsible so as to substantially close the lumen in response to a fluid applying a second pressure to the sleeve in a second direction; wherein at least a portion of a proximal portion of the sleeve extends over an outer surface of the stent and is affixed thereto at a sleeve connection position; and wherein the sleeve is normally closed in the absence of fluid applying the first pressure to the sleeve in the first direction; characterized by the distal portion of the tubular stent comprising a first opening ( 82, 84) through a sidewall thereof, the first opening being distal to the sleeve connection position.