mhurhangee/ep-ind-claims huggingface dataset:
A person lifting device (100, 300) comprising: a lift actuator operatively connected to an accessory coupling (148, 248), whereby the lift actuator raises and lowers the accessory coupling; at least one imaging sensor; and an electronic control unit communicatively coupled to the lift actuator and the at least on imaging sensor, the electronic control unit comprising a processor and a non-transitory memory storing a computer readable and executable instruction set which, when executed by the processor: collects, with the at least one imaging sensor, at least one image of a person to be lifted with the person lifting device; determines, automatically with the electronic control unit and based on the at least one image, a characteristic of the person to be lifted with the person lifting device, wherein the characteristic is at least one of a height and a weight of the person to be lifted; and determines, automatically with the electronic control unit and based on the determined characteristic, an identification of a suitable lift accessory for attachment to the accessory coupling to enable the person lifting device to lift the person,. a lift actuator operatively connected to an accessory coupling (148, 248), whereby the lift actuator raises and lowers the accessory coupling; at least one imaging sensor; and an electronic control unit communicatively coupled to the lift actuator and the at least on imaging sensor, the electronic control unit comprising a processor and a non-transitory memory storing a computer readable and executable instruction set which, when executed by the processor: collects, with the at least one imaging sensor, at least one image of a person to be lifted with the person lifting device; determines, automatically with the electronic control unit and based on the at least one image, a characteristic of the person to be lifted with the person lifting device, wherein the characteristic is at least one of a height and a weight of the person to be lifted; and determines, automatically with the electronic control unit and based on the determined characteristic, an identification of a suitable lift accessory for attachment to the accessory coupling to enable the person lifting device to lift the person,. collects, with the at least one imaging sensor, at least one image of a person to be lifted with the person lifting device; determines, automatically with the electronic control unit and based on the at least one image, a characteristic of the person to be lifted with the person lifting device, wherein the characteristic is at least one of a height and a weight of the person to be lifted; and determines, automatically with the electronic control unit and based on the determined characteristic, an identification of a suitable lift accessory for attachment to the accessory coupling to enable the person lifting device to lift the person,.
A balanced rotor for a turbine engine, comprising: a rotor component extending around an axis and having a slot; a row of rotor blades extending radially outwardly from the circumference of the rotor component, each blade having a blade root, a balance weight is located within the slot, the weight having a land which extends beneath a blade root and having a mass-adjustment protrusion extending from the land in a radial direction relative to the axis of the rotor component characterized in that the slot is a circumferential slot, wherein each blade root is inserted within the circumferential slot, wherein the mass-adjustment protrusion which lies wholly between the blade root and an adjacent blade root and has a width in the axial direction that is less than the axial width of the slot; and wherein the slot has a radially outer neck opening to a radially inner securing cavern, wherein the width of the mass adjustment protrusion is less than the width of the slot neck. a rotor component extending around an axis and having a slot; a row of rotor blades extending radially outwardly from the circumference of the rotor component, each blade having a blade root, a balance weight is located within the slot, the weight having a land which extends beneath a blade root and having a mass-adjustment protrusion extending from the land in a radial direction relative to the axis of the rotor component characterized in that the slot is a circumferential slot, wherein each blade root is inserted within the circumferential slot, wherein the mass-adjustment protrusion which lies wholly between the blade root and an adjacent blade root and has a width in the axial direction that is less than the axial width of the slot; and wherein the slot has a radially outer neck opening to a radially inner securing cavern, wherein the width of the mass adjustment protrusion is less than the width of the slot neck.
An agricultural baler, comprising: a main bale chamber; a plunger reciprocally movable within the main bale chamber through a compression stroke and a return stroke, said plunger having a duty cycle with a maximum power requirement, a minimum power requirement, and an average power requirement over the duty cycle; a flywheel; a gearbox coupled with the plunger for reciprocally moving the plunger within the main bale chamber, the gearbox being driven by the flywheel which in turn is connected via a drive shaft with a power take-off coupler; and a driveline having an input end couplable with a power take-off of a traction unit, and an output end coupled with the gearbox; characterized in that the agricultural baler further comprises an auxiliary power system coupled with the driveline, said APS being configured for receiving power from the driveline, storing the power, and transmitting the stored power back to the driveline to offset the duty cycle of the plunger and thereby establish a substantially constant power requirement at the driveline, wherein the APS includes a power generation device configured for receiving power from the driveline and generating power when an actual power requirement during the duty cycle is approximately below the average power requirement, a power storage device coupled with and configured for storing power from the power generation device, and a power feedback device configured for transmitting the stored power back to the driveline when an actual power requirement during the duty cycle is above the approximately average power requirement. a main bale chamber; a plunger reciprocally movable within the main bale chamber through a compression stroke and a return stroke, said plunger having a duty cycle with a maximum power requirement, a minimum power requirement, and an average power requirement over the duty cycle; a flywheel; a gearbox coupled with the plunger for reciprocally moving the plunger within the main bale chamber, the gearbox being driven by the flywheel which in turn is connected via a drive shaft with a power take-off coupler; and a driveline having an input end couplable with a power take-off of a traction unit, and an output end coupled with the gearbox; characterized in that the agricultural baler further comprises an auxiliary power system coupled with the driveline, said APS being configured for receiving power from the driveline, storing the power, and transmitting the stored power back to the driveline to offset the duty cycle of the plunger and thereby establish a substantially constant power requirement at the driveline, wherein the APS includes a power generation device configured for receiving power from the driveline and generating power when an actual power requirement during the duty cycle is approximately below the average power requirement, a power storage device coupled with and configured for storing power from the power generation device, and a power feedback device configured for transmitting the stored power back to the driveline when an actual power requirement during the duty cycle is above the approximately average power requirement.
An electric rotary machine comprising a rotor that is rotatable about an axis of rotation and a stator that is arranged statically with respect to the rotor, and at least one statically fixedly arranged fluid supply device and a distributor element that is connected to the fluid supply device in a flow-conducting manner and can be rotated relative to the fluid supply device, said distributor element being a component that is substantially rotationally symmetrical about its axis of rotation, wherein the fluid supply device comprises a flow channel having an outlet for dispensing a cooling fluid volume flow in an outlet direction, and an axis of rotation of the distributor element is arranged in relation to the outlet in such a way that the outlet direction is tangential to a circumference of the distributor element, so that the distributor element can be tangentially supplied with the cooling fluid volume flow emerging from the outlet and the distributor element can be set in rotation by the incoming flow, whereby the cooling fluid can be distributed around the axis of rotation of the distributor element by the distributor element, wherein the cooling fluid is distributed as such to at least one component of the electric rotary machine, and wherein the flow channel is formed at least in sections by a longitudinal bore of a screw screwed into a statically fixedly arranged element of the electrical rotary machine, wherein the outlet is formed in the screw extending from the longitudinal bore.
A method for forming an inorganic fiber holding seal member for holding an exhaust gas purifying body and preventing leakage of exhaust gas, the method comprising: preparing an inorganic fiber mat; relatively moving the inorganic fiber mat and a liquid ejection head of a liquid ejection device; and printing identification information on the surface of the inorganic fiber mat by ejecting liquid from the liquid ejection head, characterized in that the method further comprises a step of cutting out a plurality of holding seal members from the inorganic fiber mat, wherein the identification information is printed on each holding seal member before the holding seal members are cut out from the inorganic fiber mat, wherein the holding seal members are formed from an inorganic fiber mat impregnated with at least an organic binder, and wherein the amount of the organic binder impregnated in the holding seal member is 1 to 10% by mass with respect to the mass of the holding seal member. preparing an inorganic fiber mat; relatively moving the inorganic fiber mat and a liquid ejection head of a liquid ejection device; and printing identification information on the surface of the inorganic fiber mat by ejecting liquid from the liquid ejection head, characterized in that the method further comprises a step of cutting out a plurality of holding seal members from the inorganic fiber mat, wherein the identification information is printed on each holding seal member before the holding seal members are cut out from the inorganic fiber mat, wherein the holding seal members are formed from an inorganic fiber mat impregnated with at least an organic binder, and wherein the amount of the organic binder impregnated in the holding seal member is 1 to 10% by mass with respect to the mass of the holding seal member.
A process for the currentless coating of metallic surfaces of objects, which can optionally be precoated (= surfaces to be coated), with a large number of inorganic water-insoluble or/and organic water-insoluble particles to form a wash-resistant particle layer, in which the particles are applied to the surfaces to be coated in a stabilizable or stable aqueous composition in the form of a dispersion and are applied to and held on the surfaces to be coated predominantly by means of electrostatic forces, characterized in that the surfaces to be coated are first activated with an activating agent, wherein an activation layer with charges is formed with the activating agent on the surfaces to be coated, wherein these charges have been or/and are charged oppositely to the charges of the particles of the composition which are subsequently to be applied, an activation layer, which in the case of a cationic activation layer is produced by contacting with at least one cationic compound and which in the case of an anionic activation layer is produced by contacting with at least one anionic substance, is formed on the surface to be coated, at least one protonatable or/and protonated silane is used as the cationic compound(s) to form the activation layer, or at least one deprotonatable compound, at least one deprotonated compound or/and at least one deprotonated anion chosen from a) substances with groups of borate, carbonate, carboxylate, halide, such as e.g. chloride or/and fluoride, hydroxide, phosphate, phosphonate, sulfate or/and sulfonate, and b) negatively charged complexes or/and esters thereof, or c) anionic organic polymer is/are used as the anionic substance(s) to form the activation layer, the particles applied in a coating step with a particle-containing composition have been or/and are charged oppositely to the charges of the activation layer, anionically stabilized aqueous polymer particle dispersions or cationically stabilized aqueous polymer particle dispersions are used as particles, in a or in each coating step with a particle-containing composition in each case a layer is formed on the surfaces to be coated in an average thickness of a plurality of average particle sizes of the particles applied, and the or each particle layer is optionally then formed into a film or/and cross-linked, wherein substantially closed or closed coatings with a layer thickness in the range of 100 nm to 15 μm are produced from the surfaces coated with particles.
A moored floating offshore wind turbine structure including a vertically extending floating central body comprising a cylindrical tubular tower coaxial with and supported by a columnar hollow tubular flotation chamber, providing a plurality of attachment points spaced radially outwardly from said body for tensioned mooring tethers, further comprising: an outrigger structure (114,116) which comprises a plurality of outrigger arms (114a-114h) extending radially from said body, the distal ends of which are interconnected by a ring of horizontal braces (116a-116h), and an inclined bracing structure which comprises a plurality of inclined brace members running from the distal part of the outrigger structure (114,116) to connect with said floating body, characterised in that; said inclined brace members run diagonally downwardly and inwardly from the plane of said attachment points, and the proximal ends of said inclined brace members join said floating body around its lower end. an outrigger structure (114,116) which comprises a plurality of outrigger arms (114a-114h) extending radially from said body, the distal ends of which are interconnected by a ring of horizontal braces (116a-116h), and an inclined bracing structure which comprises a plurality of inclined brace members running from the distal part of the outrigger structure (114,116) to connect with said floating body, characterised in that; said inclined brace members run diagonally downwardly and inwardly from the plane of said attachment points, and the proximal ends of said inclined brace members join said floating body around its lower end.
A microphone comprising: a microphone unit; an impedance converter that converts output impedance of the microphone unit; a light source that notifies an operation state of the microphone unit; a conversion substrate on which the impedance converter is mounted; a light source substrate on which the light source is mounted; characterised by a connection substrate to which a signal line that transmits a signal from the impedance converter and a power line (52, 53, 54) that transmits power to the light source are connected, wherein the conversion substrate, the light source substrate, and the connection substrate are three-dimensionally connected to one another to constitute one substrate unit. a microphone unit; an impedance converter that converts output impedance of the microphone unit; a light source that notifies an operation state of the microphone unit; a conversion substrate on which the impedance converter is mounted; a light source substrate on which the light source is mounted; characterised by a connection substrate to which a signal line that transmits a signal from the impedance converter and a power line (52, 53, 54) that transmits power to the light source are connected, wherein the conversion substrate, the light source substrate, and the connection substrate are three-dimensionally connected to one another to constitute one substrate unit.
Sensor guide wire for intravascular measurements of a physiological variable in a living body, comprising: a core wire running along at least a part of said sensor guide wire; a sensor element arranged in a jacket in a sensor region of said sensor guide wire, wherein said jacket is tubular and includes a jacket wall; characterized in that a portion of the core wire that extends longitudinally along the sensor region forms part of the wall of said jacket, in order to provide more space in said jacket, wherein said jacket wall has a longitudinal opening adapted to receive said portion of said core wire, and a side of said core wire constitutes a part of an envelope surface of said sensor guide wire. a core wire running along at least a part of said sensor guide wire; a sensor element arranged in a jacket in a sensor region of said sensor guide wire, wherein said jacket is tubular and includes a jacket wall; characterized in that a portion of the core wire that extends longitudinally along the sensor region forms part of the wall of said jacket, in order to provide more space in said jacket, wherein said jacket wall has a longitudinal opening adapted to receive said portion of said core wire, and a side of said core wire constitutes a part of an envelope surface of said sensor guide wire.
An escalator with a step band or a moving walkway with a pallet band, wherein the step band or pallet band comprises at least one sprocket chain (8, 108) that is arranged in a revolving manner between a first deflecting region and a second deflecting region (6, 106) of the escalator or the moving walkway, wherein running rollers (28, 128), as well as steps or pallets, are arranged on the sprocket chain (8, 108), wherein the sprocket chain (8, 108) furthermore comprises system rollers (27A, 27B, 127A, 127B) and the running rollers (28, 128) and system rollers (27A, 27B, 127A, 127B) are arranged on at least three tracks (S1, S2, S2) that lie adjacent to one another in the revolving direction of the sprocket chain (8, 108), and wherein one of the tracks is occupied by the running rollers (28, 128) and at least two of the tracks (S1, S2) are occupied by the system rollers (27A, 27B, 127A, 127B), characterized in that the running rollers (28, 128) roll on roller rails (12, 13, 112, 113) between the deflecting regions (5, 6, 106) and the system rollers (27A, 27B, 127A, 127B) are at least sectionally released and therefore not subjected to a load between the deflecting regions (5, 6, 106), and in that the system rollers (27A, 27B, 127A, 127B) of at least one of the tracks (S1, S2, S3) are in the deflecting regions (5, 6, 106) engaged with a chain wheel (14, 114) of the deflecting region (5, 6, 106) and the running rollers (28, 128) are released.
An adhesive resin composition for use in adhesion of a fluorine-based resin, the composition comprising a polyethylene-based resin, an elastomer component, and a component having an epoxy group and a vinyl group, wherein a content of said polyethylene-based resin is 55 parts by mass or more and 90 parts by mass or less, a content of said elastomer component is 10 parts by mass or more and 45 parts by mass or less, a content of said component having an epoxy group and a vinyl group based on a total amount of 100 parts by mass of said polyethylene-based resin and said elastomer component is 0.1 parts by mass or more and 1.5 parts by mass or less, said polyethylene-based resin is any one or two or more kinds selected from the group consisting of a linear low density polyethylene, a low density polyethylene, a medium density polyethylene, and a high density polyethylene, said elastomer component is a styrene-ethylene-butylene-styrene copolymer having a styrene content of 8% by mass or more and 24% by mass or less, and said component having an epoxy group and a vinyl group is a component having an epoxy group partially introduced into 1,2-polybutadiene, and has a number average molecular weight of 500 or more and 4,000 or less. a content of said polyethylene-based resin is 55 parts by mass or more and 90 parts by mass or less, a content of said elastomer component is 10 parts by mass or more and 45 parts by mass or less, a content of said component having an epoxy group and a vinyl group based on a total amount of 100 parts by mass of said polyethylene-based resin and said elastomer component is 0.1 parts by mass or more and 1.5 parts by mass or less, said polyethylene-based resin is any one or two or more kinds selected from the group consisting of a linear low density polyethylene, a low density polyethylene, a medium density polyethylene, and a high density polyethylene, said elastomer component is a styrene-ethylene-butylene-styrene copolymer having a styrene content of 8% by mass or more and 24% by mass or less, and said component having an epoxy group and a vinyl group is a component having an epoxy group partially introduced into 1,2-polybutadiene, and has a number average molecular weight of 500 or more and 4,000 or less.
Control method for a high pressure cleaning appliance that comprises a pump for conveying a cleaning liquid, an electric motor for driving the pump, a control device for controlling the electric motor, as well as a first connecting element for connecting a supply conduit for cleaning liquid to be pressurized and a second connecting element for connecting an outlet conduit that bears on its free end a dispensing member with a nozzle for dispensing the pressurized cleaning liquid, wherein the control device comprises a plurality of operating modes in which it controls the electric motor at a different rotational speed in each case, and wherein the control device monitors the electrical power consumption of the electric motor, characterized in that the control device, in the case of an increase in the power consumption of the electric motor exceeding a predetermined tolerance range, switches from the current operating mode into the operating mode with the next higher rotational speed of the electric motor, provided the current operating mode is not already the operating mode with the highest rotational speed of the electric motor, and wherein the control device, in the case of a reduction in the power consumption of the electric motor exceeding a predetermined tolerance range, switches from the current operating mode into the operating mode with the next lower rotational speed of the electric motor, provided the current operating mode is not already the operating mode with the lowest rotational speed of the electric motor.