mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft, wherein when three-dimensional orthogonal coordinates represented by an XY plane having a Y axis as a vertical axis are used as airframe coordinates for an airframe front view of the aircraft, and to below are defined with reference to the airframe coordinates, a shoulder rotational axis: an axis obtained by causing an upper portion of an axis that is parallel to the Y axis of the airframe coordinates to rotate about a axis of the airframe coordinates within a range of 45° to 60°, inclining the upper portion toward outside of the airframe, causing the upper portion to rotate about an X axis of the airframe coordinates within a range of 20° to 35°, and inclining the upper portion in a nose direction of the airframe, shoulder coordinates: orthogonal coordinates having the shoulder rotational axis as a Y axis passing through an origin, an arm rotational axis: an axis that is attached to the shoulder rotational axis, extends toward the outside of the airframe, is obtained by causing an axis that is parallel to an X axis of the shoulder coordinates to rotate about a Z axis of the shoulder coordinates within a range of 20° to 35° and inclining a further side of the axis in an upper direction of the airframe, and passes through shoulder coordinates Z = 0, a lift force point: one point representing a lift force acting on one main wing on one side of the aircraft, characterized in that one or more pairs of the shoulder rotational axes and the arm rotational axes are provided on left and right sides of the airframe of the aircraft, relative positions of lift force points generated by airframe lift force sources attached to the arm rotational axes with respect to the airframe are changed by causing the shoulder rotational axis to rotate, directions of lift forces generated at the lift force points are changed by causing the arm rotational axes to change, and the aircraft is controlled through combinations of the changes. a shoulder rotational axis: an axis obtained by causing an upper portion of an axis that is parallel to the Y axis of the airframe coordinates to rotate about a axis of the airframe coordinates within a range of 45° to 60°, inclining the upper portion toward outside of the airframe, causing the upper portion to rotate about an X axis of the airframe coordinates within a range of 20° to 35°, and inclining the upper portion in a nose direction of the airframe, shoulder coordinates: orthogonal coordinates having the shoulder rotational axis as a Y axis passing through an origin, an arm rotational axis: an axis that is attached to the shoulder rotational axis, extends toward the outside of the airframe, is obtained by causing an axis that is parallel to an X axis of the shoulder coordinates to rotate about a Z axis of the shoulder coordinates within a range of 20° to 35° and inclining a further side of the axis in an upper direction of the airframe, and passes through shoulder coordinates Z = 0, a lift force point: one point representing a lift force acting on one main wing on one side of the aircraft, characterized in that
A fluid machine for transferring, compressing or expanding fluid including a shim in the shape of a part of moon and a casing comprising a cylinder body, an upper end cover and a lower end cover, in which at least one pair of internal engaging gears is accommodated in said casing, working as one driving gear and one driven gear respectively, said end covers are provided with through holes for suction and evacuation of gas or liquid, and said driving gear and driven gear are provided with shorter teeth and at least one longer tooth on their pitch circles respectively, the cross-section of said longer tooth is of a hawk beak shape, characterized in that said driving gear and driven gear further have transition teeth , the profile of said longer tooth is smoothly connected in series by a convex section , a tip section , a concave section , and a leading section , a convex section of the longer tooth of the external gear projects into the outside of the pitch circle , a convex section of the longer tooth of the internal gear projects into the inside of the pitch circle , and two sides of said longer tooth are respectively provided with a transition tooth which neighbors a shorter tooth on the opposite side of said longer tooth , said driving gear and driven gear keep engaging with each other, so that the driving force is directly transmitted from the driving gear to the driven gear while the working medium is perfectly sealed, whereby when the driving gear rotates, during the longer tooth of the driving gear engages with the longer tooth of the driven gear , until the engaging point is changing from the convex section of the longer tooth of the driving gear to the leading section of the longer tooth of the driving gear , the tip section of the longer tooth of the driving gear begins to be in disengagement condition, so that during this engaging-point changing process, a multiple engaging point solution is used, thus a smooth and constant run of the gears is realized.
A liquid discharge head wiping member having a sheet-like form to wipe a nozzle surface of a liquid discharging head, comprising: a first layer configured to be brought into contact with the nozzle surface: and one or more other layers , wherein the following relation is satisfied: t1 < t2, where t1 represents a thickness of the first layer and t2 represents a thickness of the one or more other layers , wherein a porosity of the first layer is smaller than a porosity of at least one of the one or more other layers , and the porosity of the first layer is from 0.60 to 0.85; characterized in that the first layer has a surface roughness of 170 μm or more, obtained by surface roughness measurement using a laser microscope. a first layer configured to be brought into contact with the nozzle surface: and one or more other layers , wherein the following relation is satisfied: t1 < t2, where t1 represents a thickness of the first layer and t2 represents a thickness of the one or more other layers , wherein a porosity of the first layer is smaller than a porosity of at least one of the one or more other layers , and the porosity of the first layer is from 0.60 to 0.85; characterized in that the first layer has a surface roughness of 170 μm or more, obtained by surface roughness measurement using a laser microscope.
An apparatus comprising: a tip retaining structure having a number of tip retaining areas configured to hold a number of tips ; and a number of tip identifier elements corresponding to the number of tips in which a tip from the number of tips is selected for use with a nozzle of a fluid dispensing system based on the number of tip identifier elements corresponding to the number of tips; and wherein said number of tip identifier elements are located on said number of tips and each tip identifier element used for a particular tip; the apparatus further comprising: a nozzle retaining structure having a number of nozzle retaining areas configured to hold a number of nozzles ; and a number of nozzle identifier elements located on said number of nozzles, each nozzle identifier element used for a particular nozzle, wherein the fluid dispensing system is configured to select one of the number of nozzles for the fluid dispensing system based on the number of nozzle identifier elements corresponding to the number of nozzles . a tip retaining structure having a number of tip retaining areas configured to hold a number of tips ; and a number of tip identifier elements corresponding to the number of tips in which a tip from the number of tips is selected for use with a nozzle of a fluid dispensing system based on the number of tip identifier elements corresponding to the number of tips; and wherein said number of tip identifier elements are located on said number of tips and each tip identifier element used for a particular tip; the apparatus further comprising: a nozzle retaining structure having a number of nozzle retaining areas configured to hold a number of nozzles ; and a number of nozzle identifier elements located on said number of nozzles, each nozzle identifier element used for a particular nozzle, wherein the fluid dispensing system is configured to select one of the number of nozzles for the fluid dispensing system based on the number of nozzle identifier elements corresponding to the number of nozzles . a nozzle retaining structure having a number of nozzle retaining areas configured to hold a number of nozzles ; and a number of nozzle identifier elements located on said number of nozzles, each nozzle identifier element used for a particular nozzle, wherein the fluid dispensing system is configured to select one of the number of nozzles for the fluid dispensing system based on the number of nozzle identifier elements corresponding to the number of nozzles .
An onboard control device , comprising: a circuit board ; a member provided to face the circuit board ; a heat generating electronic component mounted on the member side on the circuit board ; a heat dissipating material provided between the heat generating electronic component and the member ; and a sealing resin configured to seal the circuit board , wherein the member comprises a projecting portion projecting toward the circuit board in at least a part of a range where the heat dissipating material is not provided, wherein a space between the member and the circuit board at the projecting portion is narrower than a space between the member and the circuit board in a range where the heat dissipating material is provided, and wherein the projecting portion contacts the circuit board , characterized in that : the projecting portion has a shape securing a resin flow path for the sealing resin through the projecting portion, a highest portion of the projecting portion is a portion in contact with the circuit board , and a lower region of the projecting portion functions as a resin flow passage, the projecting portion is in contact with the circuit board at least at three points; and the sealing resin seals the heat generating electronic component . a circuit board ; a member provided to face the circuit board ; a heat generating electronic component mounted on the member side on the circuit board ; a heat dissipating material provided between the heat generating electronic component and the member ; and a sealing resin configured to seal the circuit board , wherein the member comprises a projecting portion projecting toward the circuit board in at least a part of a range where the heat dissipating material is not provided, wherein a space between the member and the circuit board at the projecting portion is narrower than a space between the member and the circuit board in a range where the heat dissipating material is provided, and wherein the projecting portion contacts the circuit board , characterized in that : the projecting portion has a shape securing a resin flow path for the sealing resin through the projecting portion, a highest portion of the projecting portion is a portion in contact with the circuit board , and a lower region of the projecting portion functions as a resin flow passage, the projecting portion is in contact with the circuit board at least at three points; and the sealing resin seals the heat generating electronic component . the projecting portion has a shape securing a resin flow path for the sealing resin through the projecting portion, a highest portion of the projecting portion is a portion in contact with the circuit board , and a lower region of the projecting portion functions as a resin flow passage, the projecting portion is in contact with the circuit board at least at three points; and the sealing resin seals the heat generating electronic component .
A method of preparing a ferrite catalyst for oxidative dehydrogenation, comprising: (a) a step, in which a trivalent cationic iron (Fe) precursor and a divalent cationic metal (A) precursor are dissolved in an alcohol solvent to prepare a precursor solution; (b) a step, in which an epoxide compound is mixed with the precursor solution to obtain a gel; (c) a step of aging the obtained gel; (d) a step of obtaining a synthetic product by drying the aged gel; and (e) a step of burning the synthetic product, wherein step (e) comprises a first burning step, wherein, in the first burning step, temperature is raised from a temperature range of 70 to 90 °C to a temperature range of 170 to 200 °C, and then maintained at 170 to 200 °C for 4 to 8 hours, wherein, in the first burning step, a heating rate is 0.1 to 1 °C/min; and a second burning step, wherein, in the second burning step, temperature is raised from a temperature range of more than 200 °C to 250 °C to a temperature range of 630 to 900 °C, and then maintained at 630 to 900 °C for 4 to 8 hours, wherein, in the second burning step, a heating rate is 0.5 to 1.5 °C/min. (a) a step, in which a trivalent cationic iron (Fe) precursor and a divalent cationic metal (A) precursor are dissolved in an alcohol solvent to prepare a precursor solution; (b) a step, in which an epoxide compound is mixed with the precursor solution to obtain a gel; (c) a step of aging the obtained gel; (d) a step of obtaining a synthetic product by drying the aged gel; and (e) a step of burning the synthetic product,
A method for manufacturing an image display device in which an image display member and a curved light transmissive cover member are laminated with a cured resin layer interposed therebetween, the method comprising the following steps (A) to (D): <Step (A)> a step of integrating the image display member and the curved light transmissive cover member with each other with a concave surface of the light transmissive cover member facing the image display member to form a hollow body having a hollow portion with a pair of first and second openings; <Step (B)> a step of disposing a dam member in the first opening of the hollow body to form the hollow portion as a liquid accommodating portion ; <Step (C)> a step of filling the liquid accommodating portion with a photocurable resin composition from the second opening ; and <Step (D)> a step of irradiating the photocurable resin composition filled in the liquid accommodating portion with ultraviolet (UV) rays from the side of the curved light transmissive cover member to form a cured resin layer while concentrating a cure shrinkage space on the second opening side , wherein the ultraviolet (UV) rays are irradiated so as to scan from the first opening side toward the second opening side . <Step (A)> a step of integrating the image display member and the curved light transmissive cover member with each other with a concave surface of the light transmissive cover member facing the image display member to form a hollow body having a hollow portion with a pair of first and second openings; <Step (B)> a step of disposing a dam member in the first opening of the hollow body to form the hollow portion as a liquid accommodating portion ; <Step (C)> a step of filling the liquid accommodating portion with a photocurable resin composition from the second opening ; and <Step (D)> a step of irradiating the photocurable resin composition filled in the liquid accommodating portion with ultraviolet (UV) rays from the side of the curved light transmissive cover member to form a cured resin layer while concentrating a cure shrinkage space on the second opening side , wherein the ultraviolet (UV) rays are irradiated so as to scan from the first opening side toward the second opening side . a step of irradiating the photocurable resin composition filled in the liquid accommodating portion with ultraviolet (UV) rays from the side of the curved light transmissive cover member to form a cured resin layer while concentrating a cure shrinkage space on the second opening side , wherein the ultraviolet (UV) rays are irradiated so as to scan from the first opening side toward the second opening side .
A heater assembly comprising: a heater extending to correspond to at least a part of a length of a cigarette and comprising one end to be inserted into the cigarette and configured to generate heat when electricity is applied; a first cover coupled to the heater to maintain a position with respect to the heater and comprising one surface that faces toward the one end of the heater and extends outward from the heater ; the heater assembly being characterized in that it further comprises a second cover coupled to another end of the heater and supporting another surface of the first cover facing toward the other end of the heater , wherein the first cover comprises: a flange fixed to an outer surface of the heater and protruding outward from the outer surface of the heater ; and an outer cover disposed closer to the one end of the heater than the flange to form the one surface of the first cover , and configured to contact and support at least a part of an outer surface of the flange , and wherein the other surface of the first cover supported by the second cover is formed by the flange . a heater extending to correspond to at least a part of a length of a cigarette and comprising one end to be inserted into the cigarette and configured to generate heat when electricity is applied; a first cover coupled to the heater to maintain a position with respect to the heater and comprising one surface that faces toward the one end of the heater and extends outward from the heater ; the heater assembly being characterized in that it further comprises a second cover coupled to another end of the heater and supporting another surface of the first cover facing toward the other end of the heater , wherein the first cover comprises: a flange fixed to an outer surface of the heater and protruding outward from the outer surface of the heater ; and an outer cover disposed closer to the one end of the heater than the flange to form the one surface of the first cover , and configured to contact and support at least a part of an outer surface of the flange , and wherein the other surface of the first cover supported by the second cover is formed by the flange . a flange fixed to an outer surface of the heater and protruding outward from the outer surface of the heater ; and an outer cover disposed closer to the one end of the heater than the flange to form the one surface of the first cover , and configured to contact and support at least a part of an outer surface of the flange , and wherein the other surface of the first cover supported by the second cover is formed by the flange .
Lighting device (DE) for an optical unit (BO) of a vehicle (V), said lighting device (DE) comprising at least one light-emitting diode (MG) capable of delivering a light beam (FL) and at least one lens (LR) placed downstream of said light-emitting diode (MG) with respect to a direction of propagation of illumination photons delivered by the latter (MG), and control means (MC) arranged in the event of detection of an obstacle (OB) at a location in a zone situated in front of said vehicle (V), to operate the diode so that it illuminates said detected obstacle (OB), and to vary an electrical supply to the diode as a function of the relative position of the detected obstacle (OB) with respect to a reference direction (dr) of the vehicle (V), characterized in that said lighting device comprises action means (MA) arranged to vary the illumination angle (a) of said light beam (FL) and said control means (MC) are arranged to control said action means (MA) so that they induce an illumination angle (a) of said light beam (FL) equal to a and in that said control means (MC) are arranged to determine the power supply to the diode so that it induces an illumination of the obstacle (OB) before variation of the illumination angle (a) defined by a law E = E(dref)((dref ∗ cosθ)/dOB)2, where E(dref) is a predefined reference illumination dref is a predefined reference distance, dOB is the distance separating said vehicle (V) from said obstacle (OB) and θ is the angle representative of said angular position of the obstacle (OB) with respect to said reference direction (dr),and to determine a value of said illumination angle so that the illumination of said obstacle (OB) by said light beam (FL) is substantially constant regardless of the relative position of the obstacle (OB) detected with respect to the vehicle
Barrier adhesive comprising an adhesive base composed of - at least one reactive resin having at least one activatable group, - at least one elastomer, - optionally at least one tackifying resin, where the adhesive base after the activation of the reactive resin has a water vapour permeation rate of less than 100 g/m 2 d, preferably of less than 50 g/m 2 d, more preferably less than 15 g/m 2 d, measured to ASTM F-1249 (temperature 37.5°C, relative humidity 90%; sample layer thickness 50 μm), a transparent molecularly dispersed getter material and optionally a solvent, characterized in that the getter material is at least one cyclic azasilane. an adhesive base composed of - at least one reactive resin having at least one activatable group, - at least one elastomer, - optionally at least one tackifying resin, - at least one reactive resin having at least one activatable group, - at least one elastomer, - optionally at least one tackifying resin, where the adhesive base after the activation of the reactive resin has a water vapour permeation rate of less than 100 g/m 2 d, preferably of less than 50 g/m 2 d, more preferably less than 15 g/m 2 d, measured to ASTM F-1249 (temperature 37.5°C, relative humidity 90%; sample layer thickness 50 μm), a transparent molecularly dispersed getter material and optionally a solvent, characterized in that the getter material is at least one cyclic azasilane.