mhurhangee/ep-ind-claims huggingface dataset:
A sensor device comprising: a casing provided with a window portion; and an optical device accommodated in the casing, the optical device scanning an object with an electromagnetic wave transmitted through the window portion, the optical device having a field of view that expands along at least one direction (X, Y), the device characterized in that an outer surface of the casing is provided with a first shape portion that is a recess or a protrusion and a second shape portion that is a recess or a protrusion, and when viewed from a direction perpendicular to the one direction (X, Y), the second shape portion is aligned with the first shape portion on a same straight line as a virtual straight line passing through a center of the field of view of the optical device, or along a direction parallel to the virtual straight line. a casing provided with a window portion; and an optical device accommodated in the casing, the optical device scanning an object with an electromagnetic wave transmitted through the window portion, the optical device having a field of view that expands along at least one direction (X, Y), the device characterized in that an outer surface of the casing is provided with a first shape portion that is a recess or a protrusion and a second shape portion that is a recess or a protrusion, and when viewed from a direction perpendicular to the one direction (X, Y), the second shape portion is aligned with the first shape portion on a same straight line as a virtual straight line passing through a center of the field of view of the optical device, or along a direction parallel to the virtual straight line.
A portable device for optical signal transmission to and from the human eye, comprising at least one emitter and/or detector of electromagnetic waves, a power supply for the respective at least one emitter and/or detector and a control unit which is connected to the at least one emitter and/or detector, characterized by a rod-shaped housing, at the two end regions of which in each case at least one emitter and/or detector of electromagnetic waves is arranged, and which comprises a holding clamp in its central region, wherein the power supply for the at least one emitter and/or detector and the control unit, which is connected to the at least one emitter and/or detector, is arranged within the rod-shaped housing.
A cookware assembly or set comprising: at least one cookware vessel of a substantially square peripheral exterior and interior form when viewed in plan, wherein the vessel has an attachment location on at least one of the four sides, the attachment location being a relief in the vessel's rim suitable for handle engagement, and a handle selectively engageable at the or any one of said attachment locations, the handle with both proximal and distal end regions having a pair of jaw elements (12, 13) at the proximal region for facilitating engagement to an attachment location such that a first jaw of the jaw pair locates substantially inside the vessel and a second jaw of the jaw pair locates substantially outside of the vessel the first jaw being a fixed jaw element and the second jaw being a sliding jaw element configured to move relative to the fixed jaw element, and a lid assembly (7, 21) able to fit on the cookware vessel and to close, or at least substantially close, the cookware vessel, wherein the relief in the rim restricts movement of an attached handle along the rim of the vessel, said lid assembly (7, 21) comprising a lid body, said lid body includes a relief substantially on its periphery to accommodate the handle when the handle is engaged at an attachment location. at least one cookware vessel of a substantially square peripheral exterior and interior form when viewed in plan, wherein the vessel has an attachment location on at least one of the four sides, the attachment location being a relief in the vessel's rim suitable for handle engagement, and a handle selectively engageable at the or any one of said attachment locations, the handle with both proximal and distal end regions having a pair of jaw elements (12, 13) at the proximal region for facilitating engagement to an attachment location such that a first jaw of the jaw pair locates substantially inside the vessel and a second jaw of the jaw pair locates substantially outside of the vessel the first jaw being a fixed jaw element and the second jaw being a sliding jaw element configured to move relative to the fixed jaw element, and a lid assembly (7, 21) able to fit on the cookware vessel and to close, or at least substantially close, the cookware vessel, wherein the relief in the rim restricts movement of an attached handle along the rim of the vessel, said lid assembly (7, 21) comprising a lid body, said lid body includes a relief substantially on its periphery to accommodate the handle when the handle is engaged at an attachment location.
A system for conducting a vitrectomy, comprising: a gas source; a vitrector including a cutting mechanism adapted to open and close according to a pressure at the vitrector; and a pulse-generating system adapted to receive gas from the gas source and to generate pulses at the vitrector, the pulses causing the pressure at the vitrector to vary according to a cycle, the varying pressure at the vitrector causing the cutting mechanism of the vitrector to open and close, wherein, at a first time in the cycle, the pulse-generating system, raises the pressure at the vitrector to a maximum pressure, the system being characterised in that: at a second time in the cycle, the pulse-generating system reduces the pressure at the vitrector to a minimum pressure that is greater than ambient, the pressure at the vitrector being maintained at least at the minimum pressure. a gas source; a vitrector including a cutting mechanism adapted to open and close according to a pressure at the vitrector; and a pulse-generating system adapted to receive gas from the gas source and to generate pulses at the vitrector, the pulses causing the pressure at the vitrector to vary according to a cycle, the varying pressure at the vitrector causing the cutting mechanism of the vitrector to open and close, wherein, at a first time in the cycle, the pulse-generating system, raises the pressure at the vitrector to a maximum pressure, the system being characterised in that: at a second time in the cycle, the pulse-generating system reduces the pressure at the vitrector to a minimum pressure that is greater than ambient, the pressure at the vitrector being maintained at least at the minimum pressure. at a second time in the cycle, the pulse-generating system reduces the pressure at the vitrector to a minimum pressure that is greater than ambient, the pressure at the vitrector being maintained at least at the minimum pressure.
Device for transmitting an optical signal comprising at least two optical components associated with different wavelengths and intended to be transmitted through, respectively, at least two optical links that can be respectively established in a tree-structured optical access network of the point-to-multipoint type between the transmission device and at least two terminal equipment items, characterized in that the transmission device comprises means for associating, as a function of at least one parameter representative of optical losses of the optical links, at least one of the optical components: - with at least one optical link chosen from said optical links, and - with an optical transmission power matched to said at least one parameter representative of optical losses of said at least one optical link chosen from said optical links. - with at least one optical link chosen from said optical links, and - with an optical transmission power matched to said at least one parameter representative of optical losses of said at least one optical link chosen from said optical links.
Filler head for a storage system comprising a body with a main part closed by a cover part, and being configured to receive a distribution nozzle of a fluid and configured to be connected, in a tighten manner, to a filling line and a venting line of a fluid tank, the filler head further comprising a buffer volume so as to reduce the speed of flow coming from the venting line, the buffer volume is in one-piece with the main part and is closed by the cover part so as to limit fluid projection from the filler head during refilling, characterised in that the body comprises a cavity integrated in the main part and in which the fluid is guided to the filling line, a separating device being mounted within the cavity between the main part and the cover part so as to improve the partitioning of the flow coming from the venting line and the flow going to the filling line.
A cabin of a utility vehicle, with a handle, wherein the handle comprises at least two cooperating mounting elements (16, 17) for positioning on a panel (10, 11) of the cabin of a utility vehicle which is pivotably mounted with respect to a frame, which can be moved from a closed position into a swung out position by actuating the handle and which can be locked in each of them, as well as comprising an actuation element by means of which the handle can be locked in each of the positions of the pivotably mounted panel (10, 11), characterized in that in the closed position of the panel (10, 11) when the handle is in the locked position, the distance between the mounting elements (16, 17) and the actuation element of the handle can be varied in the axial direction.
A vent valve including an elastic seal compressed by a first wall against an orifice in a second wall and surrounded by a third wall, characterized in that the seal has a section in a plane parallel to the first wall or to the second wall having three vertices (22a, 22b, 22c) disposed in a triangle, the three vertices (22a, 22b, 22c) of said section of the seal being connected in pairs by respective circular arcs, each of the circular arcs being on the outside of an imaginary triangle defined by the three vertices.
An actuation system, comprising: a component (24; 25; 26); a linear actuator extending longitudinally along an actuation axis; a first link extending along a first centerline parallel to the actuation axis, the first link disposed on a first side of the linear actuator; and a second link extending along a second centerline parallel to the actuation axis, the second link disposed on a second side of the linear actuator laterally opposite the first side; the first and the second links (56A, B) configured to transfer a load along the first and the second centerlines between the component (24; 25; 26) and the linear actuator; characterised in that: the system further comprises a second component; the linear actuator includes an actuator base and a translatable element, the linear actuator configured to move the translatable element relative to the actuator base; the actuator base is coupled to the second component; and the translatable element is coupled to the second component through the first and the second links (56A, B). a component (24; 25; 26); a linear actuator extending longitudinally along an actuation axis; a first link extending along a first centerline parallel to the actuation axis, the first link disposed on a first side of the linear actuator; and a second link extending along a second centerline parallel to the actuation axis, the second link disposed on a second side of the linear actuator laterally opposite the first side; the first and the second links (56A, B) configured to transfer a load along the first and the second centerlines between the component (24; 25; 26) and the linear actuator; characterised in that: the system further comprises a second component; the linear actuator includes an actuator base and a translatable element, the linear actuator configured to move the translatable element relative to the actuator base; the actuator base is coupled to the second component; and the translatable element is coupled to the second component through the first and the second links (56A, B).
A wound closure device comprising: a filamentary element having a proximal end and a distal end; and a plurality of barbs extending outwardly from said filamentary element, each said barb having a base connected with said filamentary element, a tip spaced from said base, and an outer edge facing away from said filamentary element, wherein the outer edge extends between said base and said tip, and includes a first section having a concave surface that extends between said base and a transition point of said barb and a second section having a convex surface that extends between said transition point of said barb and said tip of said barb, wherein said outer edge transforms from said concave surface of said first section to said convex surface of said second section at said transition point of said barb, and wherein said concave surface of said first section of said barb has a radius of about 1.9-6.4 mm (0.075-0.25 inches), and said convex surface of said second section of said barb has a radius of about 1.3-2.5 mm (0.05-0.1 inches). a filamentary element having a proximal end and a distal end; and a plurality of barbs extending outwardly from said filamentary element, each said barb having a base connected with said filamentary element, a tip spaced from said base, and an outer edge facing away from said filamentary element, wherein the outer edge extends between said base and said tip, and includes a first section having a concave surface that extends between said base and a transition point of said barb and a second section having a convex surface that extends between said transition point of said barb and said tip of said barb, wherein said outer edge transforms from said concave surface of said first section to said convex surface of said second section at said transition point of said barb, and wherein said concave surface of said first section of said barb has a radius of about 1.9-6.4 mm (0.075-0.25 inches), and said convex surface of said second section of said barb has a radius of about 1.3-2.5 mm (0.05-0.1 inches).
A line printer comprising: a printhead; a platen; a carriage including a head unit configured to support the printhead and a carriage frame configured to movably support the head unit; a carriage moving mechanism configured to move the carriage including the carriage frame between an opposing position where the printhead is opposite the platen, and a standby position where the printhead is not opposite the platen; and a head unit moving mechanism configured to move the head unit relative to the carriage frame in a direction toward the platen when the carriage is set to the opposing position, wherein: the carriage frame is configured to support the head unit movably between a first position where the gap between the printhead and the platen is a first distance, and a second position where said gap is a second distance that is shorter than the first distance; and the head unit moving mechanism is configured to move the head unit set to the first position to the second position, characterized in that the line printer further comprises a gap forming member configured to set a specific gap between the printhead and the platen, and to contact both the carriage and the platen when the head unit is at the second position. a printhead; a platen; a carriage including a head unit configured to support the printhead and a carriage frame configured to movably support the head unit; a carriage moving mechanism configured to move the carriage including the carriage frame between an opposing position where the printhead is opposite the platen, and a standby position where the printhead is not opposite the platen; and a head unit moving mechanism configured to move the head unit relative to the carriage frame in a direction toward the platen when the carriage is set to the opposing position, wherein: the carriage frame is configured to support the head unit movably between a first position where the gap between the printhead and the platen is a first distance, and a second position where said gap is a second distance that is shorter than the first distance; and the head unit moving mechanism is configured to move the head unit set to the first position to the second position, the carriage frame is configured to support the head unit movably between a first position where the gap between the printhead and the platen is a first distance, and a second position where said gap is a second distance that is shorter than the first distance; and the head unit moving mechanism is configured to move the head unit set to the first position to the second position, characterized in that the line printer further comprises a gap forming member configured to set a specific gap between the printhead and the platen, and to contact both the carriage and the platen when the head unit is at the second position.
A lithium-ion battery, comprising a positive electrode plate, wherein the positive electrode plate comprises a positive current collector and a positive active material layer arranged on at least one surface of the positive current collector; a positive active material in the positive active material layer comprises a positive active substance I and a positive active substance II, the positive active substance I being a layered lithium nickel transition metal oxide, and the positive active substance II being an olivine-type li-containing phosphate; and the positive electrode plate satisfies 2.5 ≤ N/(PD×(1-P 1)×(1-A)) ≤ 21, wherein A is a mass percentage of the positive active substance II in a total weight of the positive active material; wherein A satisfies 2%≤A≤40%; N is a number of particles of the positive active substance I accommodated in the positive active material layer in a thickness direction of the positive active material layer, wherein N is calculated by: making cross sections in the thickness direction of the positive electrode plate at any 10 positions of the positive electrode plate, respectively calculating numbers of arranged particles of the positive active substance I in the thickness direction and denoting as N1, N2, N3,..., N9, and N10, and calculating an average value of the numbers and denoting as N; wherein N is 6 to 55; PD is a compacted density of the positive electrode plate, measured in g/cm 3; wherein PD satisfies 3.1g/cm 3 ≤PD≤3.5g/cm 3; and P 1 is a porosity of the positive electrode plate; wherein P 1 satisfies 19%≤P 1 ≤25%. a positive active material in the positive active material layer comprises a positive active substance I and a positive active substance II, the positive active substance I being a layered lithium nickel transition metal oxide, and the positive active substance II being an olivine-type li-containing phosphate; and the positive electrode plate satisfies 2.5 ≤ N/(PD×(1-P 1)×(1-A)) ≤ 21, wherein A is a mass percentage of the positive active substance II in a total weight of the positive active material; wherein A satisfies 2%≤A≤40%; N is a number of particles of the positive active substance I accommodated in the positive active material layer in a thickness direction of the positive active material layer, wherein N is calculated by: making cross sections in the thickness direction of the positive electrode plate at any 10 positions of the positive electrode plate, respectively calculating numbers of arranged particles of the positive active substance I in the thickness direction and denoting as N1, N2, N3,..., N9, and N10, and calculating an average value of the numbers and denoting as N; wherein N is 6 to 55; PD is a compacted density of the positive electrode plate, measured in g/cm 3; wherein PD satisfies 3.1g/cm 3 ≤PD≤3.5g/cm 3; and P 1 is a porosity of the positive electrode plate; wherein P 1 satisfies 19%≤P 1 ≤25%.
A pigment dispersant comprising, as a main component, a polymer obtained by subjecting particular monomers to living radical polymerization using a polymerization-initiating compound, wherein the polymer is a graft copolymer formed through the living radical polymerization using two or more monomers comprising at least: a methacrylate having an acidic group or a basic group; and a methacrylate-based macromonomer having a methacrylate residue at one terminal of any one of polymer chains having a molecular weight of from 500 to 5000 and being selected from the group consisting of polyalkylene (C2 to C4) glycol chains, polyalkylene (C2 to C4) glycol monoalkyl (C1 to C18) ether chains, and poly (hydroxyalkyl (C2 to C18) carboxylic acid) chains, in a ratio so that the total number of moles of the methacrylate-based monomers in the raw material monomers is from 20 to 50 mol based on 1 mol of the polymerization-initiating compound, the graft copolymer having: a main chain with the methacrylate -derived acidic group or basic group bonded thereto; and a side chain being the macromonomer -derived polymer chain, and a proportion of the polymer chain constituting the graft copolymer and being selected from the group consisting of polyalkylene (C2 to C4) glycol chains, polyalkylene (C2 to C4) glycol monoalkyl (C1 to C18) ether chains, and poly (hydroxyalkyl (C2 to C18) carboxylic acid) chains in the graft copolymer is from 50 to 90 mass% expressed as a ratio. a methacrylate having an acidic group or a basic group; and a methacrylate-based macromonomer having a methacrylate residue at one terminal of any one of polymer chains having a molecular weight of from 500 to 5000 and being selected from the group consisting of polyalkylene (C2 to C4) glycol chains, polyalkylene (C2 to C4) glycol monoalkyl (C1 to C18) ether chains, and poly (hydroxyalkyl (C2 to C18) carboxylic acid) chains, in a ratio so that the total number of moles of the methacrylate-based monomers in the raw material monomers is from 20 to 50 mol based on 1 mol of the polymerization-initiating compound, the graft copolymer having: a main chain with the methacrylate -derived acidic group or basic group bonded thereto; and a side chain being the macromonomer -derived polymer chain, and a proportion of the polymer chain constituting the graft copolymer and being selected from the group consisting of polyalkylene (C2 to C4) glycol chains, polyalkylene (C2 to C4) glycol monoalkyl (C1 to C18) ether chains, and poly (hydroxyalkyl (C2 to C18) carboxylic acid) chains in the graft copolymer is from 50 to 90 mass% expressed as a ratio.