mhurhangee/ep-ind-claims huggingface dataset:
Lid of a material supply device for a spray gun, wherein the material supply device comprises a cup-shaped container and the lid which can be fitted onto the latter, with a connecting part moulded on the lid for detachable fastening of the lid to a gun body of the spray gun, wherein the connecting part comprises: - a hollow cylindrical connecting stub, - a screw wedge element running around the external circumference of the connecting stub with a lower start and an upper end which is used to produce a screw wedge connection with an opposing element arranged on the gun body of the spray gun, - and a stop element which forms an end stop when the screw wedge connection is produced, characterised in that the stop element is arranged a distance from the upper end of the screw wedge element in the circumferential direction, through which a gap is formed between the stop element and the upper end of the screw wedge element. - a hollow cylindrical connecting stub, - a screw wedge element running around the external circumference of the connecting stub with a lower start and an upper end which is used to produce a screw wedge connection with an opposing element arranged on the gun body of the spray gun, - and a stop element which forms an end stop when the screw wedge connection is produced,
An information processing apparatus, comprising: a display unit located on a front surface of a case; a sensing unit located on a side surface of the case facing away from the display unit, wherein the sensing unit includes a plurality of sensors (141, 142) disposed in a longitudinal direction (x) of the case and configured to detect a position of an object in the longitudinal direction (x) and to detect a distance between the object and the sensing unit in a direction (y) perpendicular to the longitudinal direction (x), wherein the display unit is controlled in accordance with a change in the position and the distance of the object; a display control unit configured to control, in accordance with a movement of the object, a display position of a displayed object on the display unit; and an inclination sensor configured to detect an angle of inclination (θ) of the information processing apparatus, wherein the position of the object is determined based on the angle of inclination (θ). a display unit located on a front surface of a case; a sensing unit located on a side surface of the case facing away from the display unit, wherein the sensing unit includes a plurality of sensors (141, 142) disposed in a longitudinal direction (x) of the case and configured to detect a position of an object in the longitudinal direction (x) and to detect a distance between the object and the sensing unit in a direction (y) perpendicular to the longitudinal direction (x), wherein the display unit is controlled in accordance with a change in the position and the distance of the object; a display control unit configured to control, in accordance with a movement of the object, a display position of a displayed object on the display unit; and an inclination sensor configured to detect an angle of inclination (θ) of the information processing apparatus, wherein the position of the object is determined based on the angle of inclination (θ).
An evaporator (10B; 10C) comprising: a plurality of heat transfer pipes (11A, 11B, 11C) that are provided at intervals in a vertical direction and allow a refrigerant to flow therethrough toward first ends; and a header that is configured to extend in the vertical direction, has the first ends of the plurality of heat transfer pipes (11A, 11B, 11C) connected thereto, and allows the refrigerant to flow from a lower end toward an upper end to which a refrigerant pipe is connected, wherein a flow passage cross-sectional area of a portion of the header to which the heat transfer pipe located at a lowermost stage among the plurality of heat transfer pipes (11A, 11B, 11C) is connected is smaller than a flow passage cross-sectional area at the upper end of the header, characterized by further comprising: a bypass pipe that allows the lower end of the header and the refrigerant pipe to communicate therethrough. a plurality of heat transfer pipes (11A, 11B, 11C) that are provided at intervals in a vertical direction and allow a refrigerant to flow therethrough toward first ends; and a header that is configured to extend in the vertical direction, has the first ends of the plurality of heat transfer pipes (11A, 11B, 11C) connected thereto, and allows the refrigerant to flow from a lower end toward an upper end to which a refrigerant pipe is connected, wherein a flow passage cross-sectional area of a portion of the header to which the heat transfer pipe located at a lowermost stage among the plurality of heat transfer pipes (11A, 11B, 11C) is connected is smaller than a flow passage cross-sectional area at the upper end of the header, characterized by further comprising: a bypass pipe that allows the lower end of the header and the refrigerant pipe to communicate therethrough.
A polishing tool which is to be driven in rotation by a driving machine about an axis of rotation, which polishing tool has a support body and a polishing body attached to the support body, wherein the polishing body comprises a number of first lamellae and at least a number of second lamellae, wherein the first lamellae comprise a polishing felt and the second lamellae comprise a nonwoven, wherein the nonwoven is formed substantially of synthetic fibers and wherein the nonwoven has a higher porosity than the polishing felt.
An insertion guide device for a film armored battery, that inserts a flat film armored battery with a tab-shaped terminal (12, 13) guided out from a side edge of a rectangular outer packaging body into a space between a plurality of plates which are arranged in a predetermined plate stacking direction to be spaced at predetermined intervals, in a predetermined insertion direction perpendicular to the plate stacking direction, wherein the film armored battery is inserted with a posture allowing the side edge of the outer packaging body from which the terminal (12, 13) is guided out to be along the insertion direction, and wherein a guide member for guiding the terminal (12, 13) to the space between the plates during insertion of the film armored battery is provided, wherein, in the guide member, a portion corresponding to a base portion close to the outer packaging body in the terminal (12, 13) is relatively projected toward a counter-insertion direction in comparison with a portion corresponding to a tip portion far from the outer packaging body in the terminal (12, 13).
A vent assembly device for a twin-screw extruder, comprising a vent assembly that has a vent opening and that is provided in a cylinder of a twin-screw extruder having a left axis-side screw and a right axis-side screw, wherein the size of at least the vent opening of the vent assembly is adaptable by forming the vent assembly from a plurality of vent assembly units, the vent assembly device being characterized in that the vent assembly units corresponding to the left axis-side screw are formed of a plurality of units, the vent assembly units corresponding to the right axis-side screw are formed of a plurality of units, and the vent assembly units have a linear shape and an L-shape as viewed in a cross-section.
A method for determining a radar compatible coating, the method comprising the steps of: obtaining a reflectance measurement of a target coating to characterize a color of the target coating; generating, using a processor, one or more candidate formulations to determine color matching to the color of the target coating; predicting, using the processor and one or more predictive models, a corresponding color and a corresponding radar property for each of the one or more candidate formulations; and, generating, using the processor, a radar compatible coating composition that is the same or substantially similar in appearance to the target coating including the color, wherein generating the radar compatible coating composition is based at least in part on the corresponding color and the corresponding radar property for one of the one or more candidate formulations. obtaining a reflectance measurement of a target coating to characterize a color of the target coating; generating, using a processor, one or more candidate formulations to determine color matching to the color of the target coating; predicting, using the processor and one or more predictive models, a corresponding color and a corresponding radar property for each of the one or more candidate formulations; and, generating, using the processor, a radar compatible coating composition that is the same or substantially similar in appearance to the target coating including the color, wherein generating the radar compatible coating composition is based at least in part on the corresponding color and the corresponding radar property for one of the one or more candidate formulations.
A high back booster seat or child restraint designed to be used by a child during transport in vehicles or transport means, such as, for example, a car, bus, airplane and similar, which high back booster seat or child restraint is provided with a seat cushion (1: 7) with a rear part arranged to be located next to a back support of the vehicle or transport means, characterised in that there is arranged in the region of the rear part of the seat cushion (1; 11) of the high back booster seat or child restraint on at least one side of the high back booster seat or child restraint an illumination arrangement (7; 12) built into the high back booster seat or child restraint, arranged to illuminate the region at the side of the high back booster seat or child restraint.
A heat exchange plate, comprising a plate main body, with multiple recesses and protrusions being disposed on a surface of the plate main body, wherein the multiple recesses and protrusions are arranged alternately in a first direction S1, and the tops of the multiple protrusions have an elongated shape in the first direction S1, wherein the multiple recesses and protrusions are also arranged alternately in a second direction S2 perpendicular to the first direction S1, wherein the protrusions form contacts with protrusions of an adjacent heat exchanger plate, while the recesses form contacts to the recesses (12") of another heat exchanger plate (1"), wherein a protrusion and a recess which are adjacent to one another are connected in a transitional manner by means of an inclined surface therebetween, characterized in that adjacent recesses are connected in a transitional manner by means of a curved surface trough therebetween, the bottom of the curved surface trough being higher than the bottom of the recess.
Method for increasing retention and drainage of a papermaking furnish on a papermaking machine which comprises the step of adding to a papermaking furnish from 0.00005 to 1.25 % by weight based on the dry weight of fiber in the furnish of a particulate borosilicate, wherein the borosilicate has a mole ratio of boron to silicon ranging from 1:100 to 2:5, a mole ratio of sodium to silicon ranging from 6:1000 to 1.04:1, a particle size from 1 nm to 2000 nm and a surface area in the range of 15 to 3000 m 2 /g.
An intervertebral spinal implant in a form of a shaped body with a first bearing side, a second bearing side located opposite to the first bearing side, a front part, a rear part, a concave side and a convex side, in which - the concave side and the convex side are both connected to the bearing sides (4A, 4B) as well as to the front part and the rear part, - the first bearing side and the second bearing side are each provided with at least two projections for penetration within vertebral body's wall and have holes for bony tissue, where the projections are formed by elongated sliding-guiding runners which extend in a curved manner from the concave side of the body towards the rear part of the body, characterized in that - the rear part of the body is provided with a hole, in which an element for cooperation with an installation tool is situated, - the sliding-guiding runners extend in a diverging manner so that they also extend from the concave side of the body towards the convex side of the body in addition to extending towards the rear part of the body, - the sliding-guiding runners are provided with a smooth surface facing the convex side of the body and with a rough surface facing the concave side of the body. - the concave side and the convex side are both connected to the bearing sides (4A, 4B) as well as to the front part and the rear part, - the first bearing side and the second bearing side are each provided with at least two projections for penetration within vertebral body's wall and have holes for bony tissue, where the projections are formed by elongated sliding-guiding runners which extend in a curved manner from the concave side of the body towards the rear part of the body, - the rear part of the body is provided with a hole, in which an element for cooperation with an installation tool is situated, - the sliding-guiding runners extend in a diverging manner so that they also extend from the concave side of the body towards the convex side of the body in addition to extending towards the rear part of the body, - the sliding-guiding runners are provided with a smooth surface facing the convex side of the body and with a rough surface facing the concave side of the body.
An electromagnetic positioning device having armature means (10, 12, 14, 16, 22) which are drivable relative to stationary coil means (34, 36; 34, 40) in reaction to energizing said coil means (34, 36; 34, 40), the movement (U Schalten) and/or actuated position of said armature means being detectable via detection means, which are associated to the coil means, relative to stationary core means which interact with the coil means, the coil means having a first coil winding, which is realized for magnetically interacting with the armature means by means of the energization, as well as a second coil winding (36; 40), which is realized for generating a detection signal temporally outside of the energization for the detection means, the first and the second coil winding forming a parallel circuit for forming a two-terminal circuit, characterized in that electronic switching and/or locking means (D1, D2) are assigned to the two-terminal circuit in such a manner that they prevent a short circuit of the detection signal (U Sensor) via the first coil winding outside of the energization, a ratio of the ohmic resistances of the second coil winding with regard to the first coil winding being > 40, preferably > 100, more preferably > 300, and/or the locking means having a first diode looped in a branch of the two-terminal circuit associated with the first coil winding.
An elevator access system, comprising: an access control module (200, 400, 500) operably connected to an elevator system (101, 201, 401); and an access device (331, 508) located within the access control module (200, 400, 500) and removable therefrom, wherein, when the access device (331, 508) is within the access control module (200, 400, 500), a normal mode of operation of the elevator system (101, 201, 401) is activated, and wherein, when the access device (331, 508) is removed from the access control module (200, 400, 500), the elevator system (101, 201, 401) enters a safety mode of operation, characterized in that the access device (331, 508) is configured to unlock and lock a landing door lock (333, 433) at a landing (125, 225, 425a, 425c, 425c, 425d) of the elevator system (101, 201, 401), wherein the landing door lock (333 433) is arranged to secure the access device (331, 508) within the landing door lock (333, 433) when a landing door (402a, 402b, 402c, 402d) is opened. an access control module (200, 400, 500) operably connected to an elevator system (101, 201, 401); and an access device (331, 508) located within the access control module (200, 400, 500) and removable therefrom, wherein, when the access device (331, 508) is within the access control module (200, 400, 500), a normal mode of operation of the elevator system (101, 201, 401) is activated, and wherein, when the access device (331, 508) is removed from the access control module (200, 400, 500), the elevator system (101, 201, 401) enters a safety mode of operation, characterized in that the access device (331, 508) is configured to unlock and lock a landing door lock (333, 433) at a landing (125, 225, 425a, 425c, 425c, 425d) of the elevator system (101, 201, 401), wherein the landing door lock (333 433) is arranged to secure the access device (331, 508) within the landing door lock (333, 433) when a landing door (402a, 402b, 402c, 402d) is opened.
Method for data management in a vehicle comprising a traction battery, wherein information is provided by a permanently active clock generator or timer, on the basis of which information the age of traction battery data sets which have been recorded during operation of the vehicle can be determined, wherein the recorded traction battery data sets are parameters of the traction battery and wherein the current time is ascertained from the information, and wherein the duration of an interruption in driving of the vehicle is ascertained on the basis of the age of the traction battery data sets and the current real time after restarting, and wherein optimized initialization values for filters and/or algorithms of the state identification and/or the power prediction of the traction battery are calculated depending on the duration of the interruption in driving and are used for initializing the filters and/or algorithms of the state identification and/or the power prediction of the traction battery.
A manufacturing facility for manufacturing a product on a foil, the manufacturing facility comprising a deposition zone wherein a first deposition facility is arranged for depositing a layer of a material on the foil, the manufacturing facility further comprising at least one processing facility for processing the deposited layer, said processing facility being arranged outside said deposition zone and comprising a processing trajectory with a first path in a first direction away from said deposition zone, towards a turning facility and with a second path from said turning facility back towards said the deposition zone, the manufacturing facility further comprising redirecting facilities (51a, 51b) for redirecting the foil within the deposition zonewherein the deposition zone is a clean room having an exit and an entry, wherein said first path leads in a first direction away from said exit and leads back towards said entry), characterized in that at least a second deposition facility is arranged in the deposition zone, the foil being guided along said first and said at least a second deposition facility via the processing facility.
A method of fabricating an organic electronic device on a substrate (1, 300), said organic electronic device having a structure including an upper conductive layer (14, 19, 306a, 306b) and an underlying layer (13, 18, 304) immediately beneath said upper conducting layer and with at least one solution processable semiconducting layer (12, 21) the method comprising: patterning said upper conductive layer (14, 19, 306a, 306b) of said structure by laser ablation, wherein said laser ablating comprises repeatedly removing portions of said upper conductive layer at substantially the same spatial position to expose said underlying layer using repeated laser pulses characterised by further comprising an initial, lower resolution stage of laser ablation using one or more laser pulses having a pulse duration of equal to or greater than Ins followed by laser ablation using pulses each having a duration of less than Ins to remove edge burring of said conductive layer created by said initial, lower resolution stage of laser ablation. patterning said upper conductive layer (14, 19, 306a, 306b) of said structure by laser ablation, wherein said laser ablating comprises repeatedly removing portions of said upper conductive layer at substantially the same spatial position to expose said underlying layer using repeated laser pulses characterised by further comprising an initial, lower resolution stage of laser ablation using one or more laser pulses having a pulse duration of equal to or greater than Ins followed by laser ablation using pulses each having a duration of less than Ins to remove edge burring of said conductive layer created by said initial, lower resolution stage of laser ablation.
A system for fabricating a composite material assembly comprising: - a first mold for receiving a first module made of composite material, said first mold comprising: - a first composite material laminate support structure having first and second opposite edges (16,18); and - a first attachment interface for attachment of the first mold to an adjacent mold; and - a second mold for receiving a second module made of composite material, said second mold comprising: - a second composite material laminate support structure having first and second opposite edges (26, 28); - a second attachment interface for attachment of the second mold to the first mold; and - at least one removable insert extending beyond at least one of said first and second edges (26, 28) of the second mold, wherein the first module comprises a first laminate covering the first laminate support structure, the second module comprises a second laminate covering the second laminate support structure and extending over the at least one removable insert, and wherein the at least one removable insert is removed from the second mold prior to assembly of the first mold to the second mold, and a section of the second laminate extending over the at least one removable insert overlaps over the first laminate after closing and assembly of the first mold onto the second mold. - a first mold for receiving a first module made of composite material, said first mold comprising: - a first composite material laminate support structure having first and second opposite edges (16,18); and - a first attachment interface for attachment of the first mold to an adjacent mold; and - a first composite material laminate support structure having first and second opposite edges (16,18); and - a first attachment interface for attachment of the first mold to an adjacent mold; - a second mold for receiving a second module made of composite material, said second mold comprising: - a second composite material laminate support structure having first and second opposite edges (26, 28); - a second attachment interface for attachment of the second mold to the first mold; and - at least one removable insert extending beyond at least one of said first and second edges (26, 28) of the second mold, - a second composite material laminate support structure having first and second opposite edges (26, 28); - a second attachment interface for attachment of the second mold to the first mold; and - at least one removable insert extending beyond at least one of said first and second edges (26, 28) of the second mold,