mhurhangee/ep-ind-claims huggingface dataset:
Disinfection device, comprising: a housing, having a first accommodating cavity within the housing, and a first opening portion at an upper end of the housing, and the first opening portion being communicated with the first accommodating cavity and capable of being opened or closed; a mounting portion, accommodated in the first accommodating cavity and capable of sliding in an axial direction of the first accommodating cavity; a disinfection portion, arranged in the first accommodating cavity and performing disinfection in the first accommodating cavity after the first opening portion is closed;a second driving portion accommodated in the first accommodating cavity and connected to the mounting portion, wherein the second driving portion drives the mounting portion to slide in the axial direction of the first accommodating cavity; characterised in that the second driving portion comprises: a first sleeve, provided with an internal thread on an inner surface thereof, and the mounting portion being accommodated in the first sleeve; an external thread portion, connected to the mounting portion and engaged with the internal thread of the first sleeve; and a first motor, configured to drive the first sleeve and the external thread portion to rotate relatively. a housing, having a first accommodating cavity within the housing, and a first opening portion at an upper end of the housing, and the first opening portion being communicated with the first accommodating cavity and capable of being opened or closed; a mounting portion, accommodated in the first accommodating cavity and capable of sliding in an axial direction of the first accommodating cavity; a disinfection portion, arranged in the first accommodating cavity and performing disinfection in the first accommodating cavity after the first opening portion is closed;a second driving portion accommodated in the first accommodating cavity and connected to the mounting portion, wherein the second driving portion drives the mounting portion to slide in the axial direction of the first accommodating cavity; characterised in that the second driving portion comprises: a first sleeve, provided with an internal thread on an inner surface thereof, and the mounting portion being accommodated in the first sleeve; an external thread portion, connected to the mounting portion and engaged with the internal thread of the first sleeve; and a first motor, configured to drive the first sleeve and the external thread portion to rotate relatively. a first sleeve, provided with an internal thread on an inner surface thereof, and the mounting portion being accommodated in the first sleeve; an external thread portion, connected to the mounting portion and engaged with the internal thread of the first sleeve; and a first motor, configured to drive the first sleeve and the external thread portion to rotate relatively.
A high precision thread rolling assembly including a pitman arm connected to a flywheel on a work platform, wherein a mounting flange is secured to the work platform, the assembly being characterized in that it comprises: a first rack and a first guide rail each fixed to the mounting flange; a moving die block including a second rack and a second guide rail each connected thereto, wherein the first and second racks (102, 112) each include a series of rack teeth; a bearing assembly comprising: a first rolling element linear motion bearing movably coupled to the first guide rail; and a second rolling element linear motion bearing movably coupled to the second guide rail; and a gear reduction assembly comprising: a plate connected to each of the first and second rolling element linear motion bearings (124, 126); and a pinion gear including a plurality of gear teeth, wherein the pinion gear is rotatably connected to the plate so that the gear teeth are disposed in meshing engagement with the first and second rack teeth. a first rack and a first guide rail each fixed to the mounting flange; a moving die block including a second rack and a second guide rail each connected thereto, wherein the first and second racks (102, 112) each include a series of rack teeth; a bearing assembly comprising: a first rolling element linear motion bearing movably coupled to the first guide rail; and a second rolling element linear motion bearing movably coupled to the second guide rail; and a gear reduction assembly comprising: a plate connected to each of the first and second rolling element linear motion bearings (124, 126); and a pinion gear including a plurality of gear teeth, wherein the pinion gear is rotatably connected to the plate so that the gear teeth are disposed in meshing engagement with the first and second rack teeth. a first rolling element linear motion bearing movably coupled to the first guide rail; and a second rolling element linear motion bearing movably coupled to the second guide rail; and a gear reduction assembly comprising: a plate connected to each of the first and second rolling element linear motion bearings (124, 126); and a pinion gear including a plurality of gear teeth, wherein the pinion gear is rotatably connected to the plate so that the gear teeth are disposed in meshing engagement with the first and second rack teeth. a plate connected to each of the first and second rolling element linear motion bearings (124, 126); and a pinion gear including a plurality of gear teeth, wherein the pinion gear is rotatably connected to the plate so that the gear teeth are disposed in meshing engagement with the first and second rack teeth.
An electrically powered remote controlled demolition robot adapted to operate in environments lacking high power outlets, comprising one or more robot members with an accessory tool holder for holding an accessory, a controller and at least one actuator for operating corresponding robot members and being controlled through a hydraulic system comprising at least one valve adapted for controlling a flow of hydraulic fluid to a corresponding actuator, characterized in that the demolition robot further comprises a hydraulic gas accumulator, wherein the controller is configured to interpret control information received from a remote control; determine a fluid flow in the hydraulic system by means of a first pressure sensor; determine if the determined fluid flow in the hydraulic system is above a first threshold, and if so discharge the accumulator to provide power to the actuator; and determine if the determined fluid flow in the hydraulic system is below a second threshold, and if so charge the accumulator for buffering power in the hydraulic system. interpret control information received from a remote control; determine a fluid flow in the hydraulic system by means of a first pressure sensor; determine if the determined fluid flow in the hydraulic system is above a first threshold, and if so discharge the accumulator to provide power to the actuator; and determine if the determined fluid flow in the hydraulic system is below a second threshold, and if so charge the accumulator for buffering power in the hydraulic system.
A variable vane actuation system for a gas turbine engine, comprising: a variable vane; a vane stem operably associated with the variable vane, wherein the variable vane is configured to rotate with the vane stem; a vane arm having a vane stem end and a vane pin end opposite the vane stem end, the vane arm being operably connected to the vane stem at the vane stem end; a pin attached to the vane pin end of the vane arm; a rotational variable differential transformer operably connected to the vane stem, the rotational variable differential transformer configured to detect an amount of rotation of the vane stem; an actuator operably connected to vane arm at the vane pin end; a torque tube operably connected to the actuator; a series of mechanical linkages operably connected to the torque tube; an actuation ring operably connecting the series of mechanical linkages to the vane arm at the vane pin end; a first shaft operably connected to the vane stem; and a second shaft operably connecting the first shaft to the rotational variable differential transformer; wherein the first shaft and the second shaft pass through the torque tube. a variable vane; a vane stem operably associated with the variable vane, wherein the variable vane is configured to rotate with the vane stem; a vane arm having a vane stem end and a vane pin end opposite the vane stem end, the vane arm being operably connected to the vane stem at the vane stem end; a pin attached to the vane pin end of the vane arm; a rotational variable differential transformer operably connected to the vane stem, the rotational variable differential transformer configured to detect an amount of rotation of the vane stem; an actuator operably connected to vane arm at the vane pin end; a torque tube operably connected to the actuator; a series of mechanical linkages operably connected to the torque tube; an actuation ring operably connecting the series of mechanical linkages to the vane arm at the vane pin end; a first shaft operably connected to the vane stem; and a second shaft operably connecting the first shaft to the rotational variable differential transformer; a series of mechanical linkages operably connected to the torque tube; an actuation ring operably connecting the series of mechanical linkages to the vane arm at the vane pin end; a first shaft operably connected to the vane stem; and a second shaft operably connecting the first shaft to the rotational variable differential transformer; wherein the first shaft and the second shaft pass through the torque tube.
A method for the continuous production of radially closed hollow profiles made from non-ferrous metals with a wall thickness of less than 0.15 mm and cross sections smaller than 4 mm, comprising: - Feeding a flat strip of non-ferrous metal at a first feeding speed to a forming device, wherein the thickness of the strip corresponds to the wall thickness of the hollow profile to be produced, - continuous forming of the fed flat strip into a form corresponding to the hollow profile, wherein two opposite edges of the flat strip lie flush against each other in a contact area extending in the longitudinal direction of the hollow profile, - continuous welding of the edges lying flush against each other in the contact area without prior treatment for reducing reflections, wherein the edges to be welded are moved at the first feed speed past a welding area fixed in relation to a device implementing the method, and wherein a surface in the welding area is heated by means of a laser, which emits light of a wave length smaller than 600 nm, and wherein the heated surface has a diameter, which is less than 20% of the cross-sectional dimension of the hollow profile, - pulling the welded hollow profile out of the welding area, - mounting the hollow profile in a mounting device, characterized in that the laser beam is focused according to a profile on the welding area, which has a central focus point of great intensity and a ring-shaped area of lower intensity surrounding the central focus point. - Feeding a flat strip of non-ferrous metal at a first feeding speed to a forming device, wherein the thickness of the strip corresponds to the wall thickness of the hollow profile to be produced, - continuous forming of the fed flat strip into a form corresponding to the hollow profile, wherein two opposite edges of the flat strip lie flush against each other in a contact area extending in the longitudinal direction of the hollow profile, - continuous welding of the edges lying flush against each other in the contact area without prior treatment for reducing reflections, wherein the edges to be welded are moved at the first feed speed past a welding area fixed in relation to a device implementing the method, and wherein a surface in the welding area is heated by means of a laser, which emits light of a wave length smaller than 600 nm, and wherein the heated surface has a diameter, which is less than 20% of the cross-sectional dimension of the hollow profile, - pulling the welded hollow profile out of the welding area, - mounting the hollow profile in a mounting device,
An authenticable medical product comprising a matrix material with at least one authentication body embedded into the matrix material, wherein the authentication body is heterogeneous and comprises: - a core material forming a core of the authentication body, and - at least one cover layer at least partially covering the core of the authentication body, wherein a material of the at least one cover layer is different from the core material and the matrix material. - a core material forming a core of the authentication body, and - at least one cover layer at least partially covering the core of the authentication body, wherein a material of the at least one cover layer is different from the core material and the matrix material.
An array antenna, comprising: - a plurality of mechanically separate radiating panels (300-1, 300-N) arranged side-by-side, each radiating panel comprising a plurality of radiating elements (301-1, 30M-1, 301-N, 30M-N), - means (351-1, 35M-1, 351-N, 35M-N) for applying a shaping to radio frequency signals transmitted by or received from each radiating element, and - a device for managing the radio frequency signal shaping application means, wherein the shaping application means are configured to apply, to the signal transmitted by or received from each radiating element, a complex shaping coefficient, the array antenna being characterised in that said complex shaping coefficient corresponds to a sum of at least: ∘ a shaping coefficient ( W co) making it possible to orient the maximum gain of the antenna in a given direction, and ∘ at least the opposite of a shaping coefficient ( W c) making it possible to orient the maximum gain of the antenna in the direction of a side lobe resulting from differences between the radiating panels of the array antenna. - a plurality of mechanically separate radiating panels (300-1, 300-N) arranged side-by-side, each radiating panel comprising a plurality of radiating elements (301-1, 30M-1, 301-N, 30M-N), - means (351-1, 35M-1, 351-N, 35M-N) for applying a shaping to radio frequency signals transmitted by or received from each radiating element, and - a device for managing the radio frequency signal shaping application means, wherein the shaping application means are configured to apply, to the signal transmitted by or received from each radiating element, a complex shaping coefficient, the array antenna being characterised in that said complex shaping coefficient corresponds to a sum of at least: ∘ a shaping coefficient ( W co) making it possible to orient the maximum gain of the antenna in a given direction, and ∘ at least the opposite of a shaping coefficient ( W c) making it possible to orient the maximum gain of the antenna in the direction of a side lobe resulting from differences between the radiating panels of the array antenna. wherein the shaping application means are configured to apply, to the signal transmitted by or received from each radiating element, a complex shaping coefficient, the array antenna being characterised in that said complex shaping coefficient corresponds to a sum of at least: ∘ a shaping coefficient ( W co) making it possible to orient the maximum gain of the antenna in a given direction, and ∘ at least the opposite of a shaping coefficient ( W c) making it possible to orient the maximum gain of the antenna in the direction of a side lobe resulting from differences between the radiating panels of the array antenna. ∘ a shaping coefficient ( W co) making it possible to orient the maximum gain of the antenna in a given direction, and ∘ at least the opposite of a shaping coefficient ( W c) making it possible to orient the maximum gain of the antenna in the direction of a side lobe resulting from differences between the radiating panels of the array antenna.
An insole for insertion into footwear comprising: a fabric layer made from natural or synthetic fibers and having a peripheral edge defining a toe portion, a heel portion, and an arch portion, the fabric layer having a bottom surface and an exposed fabric upper surface that can contact the foot or sock of a wearer; and a base layer comprised of a self-adhering, cured liquid silicone rubber material applied in liquid form and directly bonded to the bottom surface of the fabric layer without a separate intermediate adhesive layer between the fabric layer and the base layer, the base layer covering at least 80% of the bottom surface of the fabric layer and having a bottom surface that is placed in contact with a footbed of the footwear. a fabric layer made from natural or synthetic fibers and having a peripheral edge defining a toe portion, a heel portion, and an arch portion, the fabric layer having a bottom surface and an exposed fabric upper surface that can contact the foot or sock of a wearer; and a base layer comprised of a self-adhering, cured liquid silicone rubber material applied in liquid form and directly bonded to the bottom surface of the fabric layer without a separate intermediate adhesive layer between the fabric layer and the base layer, the base layer covering at least 80% of the bottom surface of the fabric layer and having a bottom surface that is placed in contact with a footbed of the footwear.
A system for capturing and communicating golf swing data (12, 24), comprising: a club data module incorporated in a golf club and having a data capture element for capturing golf swing data comprising club-related golf swing data, the club data module further having a data transmission element for transmitting golf swing data (32,34), a mobile computing auxiliary device incorporated in the golf club, the mobile computing auxiliary device having an auxiliary receiving element for receiving captured golf swing data (32,34) transmitted from the club data module, characterised in that the system further comprises a ball data module incorporated in a golf ball and having a data capture element for capturing ball-related golf swing data, the ball data module further having a data transmission element for transmitting ball-related golf swing data, the ball data module being configured to transmit ball-related golf swing data to the club data module to be captured in the club data module. a club data module incorporated in a golf club and having a data capture element for capturing golf swing data comprising club-related golf swing data, the club data module further having a data transmission element for transmitting golf swing data (32,34), a mobile computing auxiliary device incorporated in the golf club, the mobile computing auxiliary device having an auxiliary receiving element for receiving captured golf swing data (32,34) transmitted from the club data module, characterised in that the system further comprises a ball data module incorporated in a golf ball and having a data capture element for capturing ball-related golf swing data, the ball data module further having a data transmission element for transmitting ball-related golf swing data, the ball data module being configured to transmit ball-related golf swing data to the club data module to be captured in the club data module.
A lead-free projectile, having the length L tot, for small-bore weapons, comprising a hard-metal core, wholly or partially enclosed by a metal jacket, wherein the projectile is configured for a lower friction between the projectile and the weapon upon firing of the projectile, so that the quantity of metal particles and environmentally hazardous gases from the projectile is reduced, at the same time as the performance of the projectile is maintained or improved, wherein the core of the projectile comprises a front core part, constituting the penetrator part of the projectile, and a rear core part, constituting the ballast part of the projectile, wherein: - the front and the rear core part (7, 8) are detachably joined together with each other by a radial guide configured for mutual freedom of rotation between the front and rear core part (7, 8), - the rear core part comprises a cylindrical core part having the length L C and a conical core part having the length L k, wherein the angle α for the conical core part lies within the range 5° - 9°, and wherein the contact surface between the jacket of the cylindrical core part and the inner side of the weapon 1 constitutes less than 30% of the total surface area of the projectile, - the distance (L TP) between the tip of the projectile and the center of gravity TP of the projectile lies within the range 0.55 L tot ≤ L TP ≤ 0.60L tot, wherein L tot is the whole length of the projectile, - the length L C of the cylindrical part of the rear core part lies within the range 0.25L tot ≤ L C ≤ 0.31L tot, and in that the rear core part comprises at least 90% unhardened steel. - the front and the rear core part (7, 8) are detachably joined together with each other by a radial guide configured for mutual freedom of rotation between the front and rear core part (7, 8), - the rear core part comprises a cylindrical core part having the length L C and a conical core part having the length L k, wherein the angle α for the conical core part lies within the range 5° - 9°, and wherein the contact surface between the jacket of the cylindrical core part and the inner side of the weapon 1 constitutes less than 30% of the total surface area of the projectile, - the distance (L TP) between the tip of the projectile and the center of gravity TP of the projectile lies within the range 0.55 L tot ≤ L TP ≤ 0.60L tot, - the length L C of the cylindrical part of the rear core part lies within the range 0.25L tot ≤ L C ≤ 0.31L tot, and in that the rear core part comprises at least 90% unhardened steel.
A direct current power cable, comprising a conductor which is surrounded by at least an inner semiconductive layer, an insulation layer and an outer semiconductive layer, in that order, wherein at least the insulation layer, comprises, preferably consists of, a polymer composition comprising (a) a polyolefin, (b) an inorganic filler, and (c) a crosslinking agent, wherein said polyolefin (a) is an unsaturated LDPE. (a) a polyolefin, (b) an inorganic filler, and (c) a crosslinking agent,
Use of a polymorphism for diagnosis of susceptibility to cardiac disease in a subject, wherein said polymorphism occurs in a renin angiotensin system gene, characterized in that said polymorphism occurs in AT1R, further characterized in that said cardiac disease comprises heart failure and atrial fibrillation, wherein said atrial fibrillation is a complication of heart failure.
Planar element having a first self-adhesive side face and a second self-adhesive side face, the planar element featuring a layer sequence comprising a heating layer, a contacting layer and an adhesive layer, wherein the heating layer is in contact, and in electrically conducting communication, with a first side face of the contacting layer, where the heating layer and the contacting layer are in direct contact, and wherein the adhesive layer is in contact with a second side face of the contacting layer and is in direct contact therewith, and where the heating layer is composed of an intrinsically heatable first self-adhesive designed as a posistor which heats up when an electric current is passed through, and the adhesive layer is composed of a second self-adhesive, where the first self-adhesive and the second self-adhesive are in each case pressure-sensitive adhesives which undergo a permanent adhesive bond with a substrate at room temperature, where the contacting layer is a two-dimensionally extended perforate contacting element.