mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a logic device configured to receive torque sensor data from a torque sensor unit, TSU (410, 620, 630), coupled to a steering mechanism (150, 600) for a mobile structure and to disengage an autopilot drive for the mobile structure, wherein the logic device is configured to: receive a heading, wind direction, and/or cross track error associated with the autopilot drive for the mobile structure; determine a force applied to one or more components of the steering mechanism for the mobile structure based, at least in part, on the torque sensor data provided by the TSU; and disengage the autopilot drive for the mobile structure based, at least in part, on the determined applied force, wherein the autopilot drive is disengaged to allow manual manipulation of the steering mechanism for the mobile structure; wherein the logic device is configured to determine the force applied to the one or more components by characterizing the torque sensor data and/or corresponding sensor signals as a manual loading applied to the steering mechanism, based on one or more load profiles for the steering mechanism, the autopilot drive, and/or the mobile structure. a logic device configured to receive torque sensor data from a torque sensor unit, TSU (410, 620, 630), coupled to a steering mechanism (150, 600) for a mobile structure and to disengage an autopilot drive for the mobile structure, wherein the logic device is configured to: receive a heading, wind direction, and/or cross track error associated with the autopilot drive for the mobile structure; determine a force applied to one or more components of the steering mechanism for the mobile structure based, at least in part, on the torque sensor data provided by the TSU; and disengage the autopilot drive for the mobile structure based, at least in part, on the determined applied force, wherein the autopilot drive is disengaged to allow manual manipulation of the steering mechanism for the mobile structure; receive a heading, wind direction, and/or cross track error associated with the autopilot drive for the mobile structure; determine a force applied to one or more components of the steering mechanism for the mobile structure based, at least in part, on the torque sensor data provided by the TSU; and disengage the autopilot drive for the mobile structure based, at least in part, on the determined applied force, wherein the autopilot drive is disengaged to allow manual manipulation of the steering mechanism for the mobile structure; wherein the logic device is configured to determine the force applied to the one or more components by characterizing the torque sensor data and/or corresponding sensor signals as a manual loading applied to the steering mechanism, based on one or more load profiles for the steering mechanism, the autopilot drive, and/or the mobile structure.
A structure comprising: an inorganic nanostructure core; a shell comprising a lipid bilayer surrounding the nanostructure core and being attached thereto covalently, through physisorption, chemisorption, ionic interaction, hydrophobic interaction, hydrophilic interaction, electrostatic interaction, van der Waals interaction or a combination thereof, the shell being able to sequester cholesterol through hydrophobic interaction, the shell having an inner surface and an outer surface; and a protein associated with at least the outer surface of the shell by covalent bonding, physisorption, chemisorption or attached through ionic interaction, hydrophobic and/or hydrophilic interaction, electrostatic interaction, van de Waals interaction or a combination thereof. an inorganic nanostructure core; a shell comprising a lipid bilayer surrounding the nanostructure core and being attached thereto covalently, through physisorption, chemisorption, ionic interaction, hydrophobic interaction, hydrophilic interaction, electrostatic interaction, van der Waals interaction or a combination thereof, the shell being able to sequester cholesterol through hydrophobic interaction, the shell having an inner surface and an outer surface; and a protein associated with at least the outer surface of the shell by covalent bonding, physisorption, chemisorption or attached through ionic interaction, hydrophobic and/or hydrophilic interaction, electrostatic interaction, van de Waals interaction or a combination thereof.
A biocompatible medical or dental article, the article being elongated and coated at least partially by (i) inorganic fullerene-like nanoparticles or (ii) a composite containing such nanoparticles.
An alloy composition comprising molybdenum, wherein the composition consists of between 15% and 20% niobium and 0.05% and 0.25% carbon, 0.5% and 4% hafnium, between 1% and 3% titanium, between 1% and 10% tungsten, wherein the balance consists of molybdenum and incidental impurities, wherein the titanium may be in the form of titanium oxide (TiO 2).
A lane keeping assist device that assists a vehicle to travel within a traveling lane, in which a steering wheel in the vehicle and a turning wheel (5FL, 5FR) for turning the vehicle are mechanically detached, comprising: a turn control unit that controls a turning angle of the turning wheel using a first turning angle calculated such that the vehicle travels in the traveling lane and a second turning angle that corresponds to a steering amount of the steering wheel; a vehicle speed detection unit that detects a speed of the vehicle; and a reaction force command value calculation unit (25, 26, 17, 24c) that calculates a first reaction force command value to the steering wheel corresponding to the first turning angle, and calculates a second reaction force command value to the steering wheel corresponding to the second turning angle, characterized by a steering reaction force control unit that controls a steering reaction force to be imparted to the steering wheel to correspond only to the second reaction force command value when the vehicle speed is higher than a predetermined threshold value, and controls the steering reaction force to be imparted to the steering wheel to correspond to the first reaction force command value and the second reaction force command value when the vehicle speed is at the predetermined threshold value or less. a turn control unit that controls a turning angle of the turning wheel using a first turning angle calculated such that the vehicle travels in the traveling lane and a second turning angle that corresponds to a steering amount of the steering wheel; a vehicle speed detection unit that detects a speed of the vehicle; and a reaction force command value calculation unit (25, 26, 17, 24c) that calculates a first reaction force command value to the steering wheel corresponding to the first turning angle, and calculates a second reaction force command value to the steering wheel corresponding to the second turning angle, characterized by a steering reaction force control unit that controls a steering reaction force to be imparted to the steering wheel to correspond only to the second reaction force command value when the vehicle speed is higher than a predetermined threshold value, and controls the steering reaction force to be imparted to the steering wheel to correspond to the first reaction force command value and the second reaction force command value when the vehicle speed is at the predetermined threshold value or less.
A liquid ester composition obtained by esterifying dipentaerythritol with 2-(1,3,3-trimethyl)butyl-5,7,7-trimethyl octanoic acid in the mass ratio of 10:39 to 10:72 at 200 to 250 °C for 10 to 40 hours at the presence of a catalyst(s), said liquid ester composition having a viscosity at 25 °C of 100,000 to 2,000,000 mPa·s; a hydroxyl value of 10 to 160; and a cloud point of less than 5 °C.
A tracking device comprising: a housing; electronics disposed within the housing for tracking a position of the tracking device; a battery electrically connected to the electronics; and a battery protection system for protecting the battery, the battery protection system comprising: a protective structure comprising an open-ended tube extending from a first end to a second end and defining a protective cavity, the battery positioned within the protective cavity such that a first end of the battery extends beyond the first end of the tube by a first extension distance, and a second end of the battery extends beyond the second end of the tube by a second extension distance, wherein the protective structure is configured to prevent damage to the battery when a force of at least about 26 Newtons /square millimeter (mm 2) to about 435 N/mm 2 is applied to the protective structure. a housing; electronics disposed within the housing for tracking a position of the tracking device; a battery electrically connected to the electronics; and a battery protection system for protecting the battery, the battery protection system comprising: a protective structure comprising an open-ended tube extending from a first end to a second end and defining a protective cavity, the battery positioned within the protective cavity such that a first end of the battery extends beyond the first end of the tube by a first extension distance, and a second end of the battery extends beyond the second end of the tube by a second extension distance, wherein the protective structure is configured to prevent damage to the battery when a force of at least about 26 Newtons /square millimeter (mm 2) to about 435 N/mm 2 is applied to the protective structure.
Method for producing a piston (10, 110) for an internal combustion engine having at least two piston components (11, 18; 111, 118) wherein at least two piston components (11, 18; 111, 118) are connected with one another along their corresponding joining surfaces (23a, 24a, 23b, 24b) via at least one radially or axially peripheral laser weld seam (21, 22; 121, 122), having the following method steps: a) aligning the at least two piston components (11, 18; 111, 118) along their corresponding joining surfaces (23a, 24a, 23b, 24b), b) activating a laser (25, 27) configured for a deep welding process and aligning the laser beam (26, 28) generated by the laser (25, 27) on a defined starting point in the region of the corresponding joining surfaces (23a, 24a, 23b, 24b), characterised by the method steps: c) increasing the performance density (ramping up) of the laser beam (26, 28) starting from the defined starting point over a defined stretch along the corresponding joining surfaces (23a, 24a, 23b, 24b) with the generation of a ramp up weld seam with increasing weld seam depth, d) peripheral, complete through welding along the corresponding joining surfaces (23a, 24a, 23b, 24b) by means of deep welding with the generation of a deep weld seam with substantially constant weld seam depth up to the defined endpoint, e) reduction of the performance density (ramping down) of the laser beam (26, 28) over a defined stretch with the generation of a ramp down weld seam with decreasing weld seam depth. f) overwelding of at least one part of the defined stretches (S1, S2) by means of heat conduction welding with the use of a laser configured for a heat conduction welding process with the generation of at least one heat conduction weld seam. a) aligning the at least two piston components (11, 18; 111, 118) along their corresponding joining surfaces (23a, 24a, 23b, 24b), b) activating a laser (25, 27) configured for a deep welding process and aligning the laser beam (26, 28) generated by the laser (25, 27) on a defined starting point in the region of the corresponding joining surfaces (23a, 24a, 23b, 24b), c) increasing the performance density (ramping up) of the laser beam (26, 28) starting from the defined starting point over a defined stretch along the corresponding joining surfaces (23a, 24a, 23b, 24b) with the generation of a ramp up weld seam with increasing weld seam depth, d) peripheral, complete through welding along the corresponding joining surfaces (23a, 24a, 23b, 24b) by means of deep welding with the generation of a deep weld seam with substantially constant weld seam depth up to the defined endpoint, e) reduction of the performance density (ramping down) of the laser beam (26, 28) over a defined stretch with the generation of a ramp down weld seam with decreasing weld seam depth. f) overwelding of at least one part of the defined stretches (S1, S2) by means of heat conduction welding with the use of a laser configured for a heat conduction welding process with the generation of at least one heat conduction weld seam.
A circuit interrupter for interrupting a current, said circuit interrupter comprising: a first contact and a second contact; a trip arm which moves said second contact between a closed position in which said second contact is touching said first contact allowing the current to flow through said contacts, and an open position in which said second contact is spaced apart from said first contact interrupting the flow of the current; a first trip mechanism having a first solenoid, a first overcurrent sensor and a first arm, and being configured to trip said circuit interrupter after a first threshold amount of time if a current exceeds a first threshold level; a second trip mechanism having a second solenoid, a second overcurrent sensor and a second arm, and being configured to trip said circuit interrupter after a second threshold amount of time if the current level exceeds a second threshold level; wherein said first trip mechanism activates said first arm after a first threshold amount of time which actuates said trip arm when said first overcurrent sensor detects a first threshold level; and wherein said second trip mechanism activates said second arm after a second threshold amount of time which actuates said trip arm when said second overcurrent sensor detects a second threshold level. a first contact and a second contact; a trip arm which moves said second contact between a closed position in which said second contact is touching said first contact allowing the current to flow through said contacts, and an open position in which said second contact is spaced apart from said first contact interrupting the flow of the current; a first trip mechanism having a first solenoid, a first overcurrent sensor and a first arm, and being configured to trip said circuit interrupter after a first threshold amount of time if a current exceeds a first threshold level; a second trip mechanism having a second solenoid, a second overcurrent sensor and a second arm, and being configured to trip said circuit interrupter after a second threshold amount of time if the current level exceeds a second threshold level; wherein said first trip mechanism activates said first arm after a first threshold amount of time which actuates said trip arm when said first overcurrent sensor detects a first threshold level; and wherein said second trip mechanism activates said second arm after a second threshold amount of time which actuates said trip arm when said second overcurrent sensor detects a second threshold level.
A method executed on a network node for providing a HTTP streaming service to a user equipment via broadcasting or multicasting, comprising the steps of: - determining (2:2) under which conditions runtime reception reporting is required from a specific user equipment receiving a determined HTTP streaming service; - determining (2:3) reporting parameters, including a threshold value, to be applicable at the user equipment for determining, at the user equipment, when to trigger the runtime reception reporting, wherein the runtime reception reporting is based on Loss of Objects metrics indicated in the reporting parameters, and the threshold value is set as a percentage of loss of objects over all objects of the HTTP streaming service received by the user equipment, such that transmission of a runtime reception report from the user equipment is triggered when the percentage of loss of objects exceeds the threshold value, and - providing (2:4) the determined reporting parameters to the user equipment. - determining (2:2) under which conditions runtime reception reporting is required from a specific user equipment receiving a determined HTTP streaming service; - determining (2:3) reporting parameters, including a threshold value, to be applicable at the user equipment for determining, at the user equipment, when to trigger the runtime reception reporting, wherein the runtime reception reporting is based on Loss of Objects metrics indicated in the reporting parameters, and the threshold value is set as a percentage of loss of objects over all objects of the HTTP streaming service received by the user equipment, such that transmission of a runtime reception report from the user equipment is triggered when the percentage of loss of objects exceeds the threshold value, and - providing (2:4) the determined reporting parameters to the user equipment.
An oral hygiene implement including a body having a distal end and a proximal end, the oral hygiene implement further comprising a cleaning and/or gum massaging element carrier, wherein a first area (130A, 132A) of the massaging element carrier is attached to the body and a second area (130B, 132B) of the massaging element carrier is unattached to the body, wherein the unattached area extends toward the body, wherein the cleaning and/or gum massaging element carrier comprises a first carrier member and a second carrier member extending inboard from the proximal end and defining an intermediate opening therebetween, the first carrier member and the second carrier member being cantilevered from the proximal end, and the oral hygiene implement further comprising an intermediate member (160, 260, 360, 460, 560, 660, 760, 860, 960, 1060, 1160, 1660, 1760, 1860, 1960) attached to the body and extending through the intermediate opening.
A fastener, comprising: a bolt including an elongated shank portion having a first end, a second end opposite the first end, a smooth cylindrical shank portion located proximate to the first end, a threaded portion located at the second end and having a plurality of threads, a head located at the first end, and an annular groove located intermediate the head and the smooth cylindrical shank portion; a sleeve including a first end, a second end opposite the first end of the sleeve, a head located at the first end of the sleeve, an elongated shank portion extending from the head of the sleeve to the second end of the sleeve, an inner wall forming an inner cavity that extends from the first end of the sleeve to the second end of the sleeve, the inner cavity including an elongated portion located within the elongated shank portion of the sleeve and a recess located in the head of the sleeve, and an annular tab located at a bottom portion of the recess and proximate to the elongated shank portion of the sleeve, wherein the sleeve is adapted to receive the bolt such that the shank portion of the bolt is positioned within the elongated portion of the inner cavity of the sleeve and the head of the bolt is positioned within the recess of the head of the sleeve, wherein when the bolt is within an installed positon within the sleeve, the annular tab of the sleeve is deformed and engages the annular groove of the bolt. a bolt including an elongated shank portion having a first end, a second end opposite the first end, a smooth cylindrical shank portion located proximate to the first end, a threaded portion located at the second end and having a plurality of threads, a head located at the first end, and an annular groove located intermediate the head and the smooth cylindrical shank portion; a sleeve including a first end, a second end opposite the first end of the sleeve, a head located at the first end of the sleeve, an elongated shank portion extending from the head of the sleeve to the second end of the sleeve, an inner wall forming an inner cavity that extends from the first end of the sleeve to the second end of the sleeve, the inner cavity including an elongated portion located within the elongated shank portion of the sleeve and a recess located in the head of the sleeve, and an annular tab located at a bottom portion of the recess and proximate to the elongated shank portion of the sleeve, wherein the sleeve is adapted to receive the bolt such that the shank portion of the bolt is positioned within the elongated portion of the inner cavity of the sleeve and the head of the bolt is positioned within the recess of the head of the sleeve, wherein when the bolt is within an installed positon within the sleeve, the annular tab of the sleeve is deformed and engages the annular groove of the bolt.
A multi-layer wall element for building up drywalls - comprising an insulating ply with two flat sides of heat or sound insulating material which have a large surface area relative to front sides, - wherein a support layer is placed with an inner flat side of the support layer against each flat side of the insulating ply, - wherein a cover layer is placed against each outer flat side of the support layer, wherein the support layers are, along at least two directions (R1, R2) which are oriented parallel to a plane of the support layer and perpendicular to confining edges of the support layer, offset relative to the cover layer and the insulating ply by at least one first or second offset amount (V 1 /V 1'; V 2 /V 2') the at least one of the respective first or second offset amounts (V 1 /V 1'; V 2 /V 2') being larger than zero, wherein the support layers form each a tongue at least along a first confining edge, characterized in that along at least one opposite second confining edge the offset of each support layer forms a groove between the insulating ply and the cover layer. - comprising an insulating ply with two flat sides of heat or sound insulating material which have a large surface area relative to front sides, - wherein a support layer is placed with an inner flat side of the support layer against each flat side of the insulating ply, - wherein a cover layer is placed against each outer flat side of the support layer, wherein the support layers are, along at least two directions (R1, R2) which are oriented parallel to a plane of the support layer and perpendicular to confining edges of the support layer, offset relative to the cover layer and the insulating ply by at least one first or second offset amount (V 1 /V 1'; V 2 /V 2') the at least one of the respective first or second offset amounts (V 1 /V 1'; V 2 /V 2') being larger than zero, wherein the support layers form each a tongue at least along a first confining edge, characterized in that along at least one opposite second confining edge the offset of each support layer forms a groove between the insulating ply and the cover layer.
Arrangement of a plurality of moistened cosmetic pads on a non-woven basis which are stacked in a largely evaporative-inhibiting closeable packaging container for dispensing to the end user, wherein the pads on average have a moisture content of 300% - 500% of their dry weight, characterized in that the pads are assigned to a stack of at least 10 pads and at the most 65 pads and comprise an air laid fiber structure of staple fibers, wherein the staple fibers comprise 15 - 85% by weight of microstaple fibers and 15 - 72% by weight of cotton fibers, and that the pads are individually moistened and have a consistent moisture content within the arrangement such that the difference in the average moisture content of the pads located in the upper and in the lower fourths of the stack is at most 30% of the average moisture content of all pads in the stack.
An equipment item comprising a key and a humanoid-type robot comprising several mechanisms (70, 12, 13) that can be actuated from outside the robot, characterized in that each of the mechanisms (70, 12, 13) comprises a connection interface (72, 82, 92) into which the key can be inserted, the connection interface (72, 82, 92) of each of the mechanisms (70, 12, 13) being configured such that the insertion of the key actuates the mechanism (70, 12, 13).