mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: an optical fiber having a distal fiber end and a proximal fiber end ; a first electromechanical transducer mechanically coupled to the optical fiber between the distal fiber end and the proximal fiber end , wherein the first electromechanical transducer is configured to apply a buckling force to the optical fiber by reducing a length of the first electromechanical transducer between a distal buckling end of the first electromechanical transducer and a proximal buckling end of the first electromechanical transducer ; and a second electromechanical transducer mechanically coupled to the optical fiber , the second electromechanical transducer having a proximal end and a distal end , the distal end being positioned between the distal fiber end and the proximal end , the proximal end being positioned between the proximal fiber end and the distal end , and the distal buckling end being positioned between the proximal end and the proximal buckling end , wherein the second electromechanical transducer is configured to excite whirling of the distal fiber end . an optical fiber having a distal fiber end and a proximal fiber end ; a first electromechanical transducer mechanically coupled to the optical fiber between the distal fiber end and the proximal fiber end , wherein the first electromechanical transducer is configured to apply a buckling force to the optical fiber by reducing a length of the first electromechanical transducer between a distal buckling end of the first electromechanical transducer and a proximal buckling end of the first electromechanical transducer ; and a second electromechanical transducer mechanically coupled to the optical fiber , the second electromechanical transducer having a proximal end and a distal end , the distal end being positioned between the distal fiber end and the proximal end , the proximal end being positioned between the proximal fiber end and the distal end , and the distal buckling end being positioned between the proximal end and the proximal buckling end , wherein the second electromechanical transducer is configured to excite whirling of the distal fiber end .
An intermediate transfer medium , comprising: a substrate ; and a transfer layer comprising a first intermediate layer , a second intermediate layer and a receiving layer , wherein the first intermediate layer contains a (meth)acrylic polyol resin having a glass transition temperature of 80°C or higher; wherein the second intermediate layer contains a polyester having a glass transition temperature of 45°C or higher, characterized in that the second intermediate layer further contains a filler having a mean particle diameter of 2 μm or more and 5 μm or less; and wherein the content of the filler in the second intermediate layer is 0.5% by mass or more and 5% by mass or less. a substrate ; and a transfer layer comprising a first intermediate layer , a second intermediate layer and a receiving layer , wherein the first intermediate layer contains a (meth)acrylic polyol resin having a glass transition temperature of 80°C or higher; wherein the second intermediate layer contains a polyester having a glass transition temperature of 45°C or higher, characterized in that the second intermediate layer further contains a filler having a mean particle diameter of 2 μm or more and 5 μm or less; and wherein the content of the filler in the second intermediate layer is 0.5% by mass or more and 5% by mass or less.
A composition for use in intraocular irrigation, the composition comprising one or more sulfur molecules selected from the group consisting of active sulfur molecules represented by Formula and Formula : R 1 S(S) n H wherein R 1 is selected from the group consisting of L-cysteine (Cys), homocysteine (Hcys) and glutathione (GSH), and n is an integer of 1 or more; and R 2 S(S) n R 3 wherein R 2 and R 3 are independently selected from the group consisting of L-cysteine (Cys), homocysteine (Hcys) and glutathione (GSH), and n is an integer of 2 or more.
A surveying instrument comprising a light projecting optical system which projects a distance measuring light emitted from a distance measuring light source onto a projecting optical axis , a light receiving optical system which receives a reflected distance measuring light from an object and leads said reflected distance measuring light to a light receiving module , a frame unit which horizontally rotates around a horizontal rotation shaft , a scanning mirror which is provided in said frame unit, vertically rotates around a vertical rotation shaft , irradiates said object with said distance measuring light from said light projecting optical system, and receives the reflected distance measuring light from said object by said light receiving optical system, a horizontal angle detector which detects a horizontal angle of said frame unit, a vertical angle detector which detects a vertical angle of said scanning mirror and an arithmetic control module which calculates the three-dimensional coordinates of said object based on a light reception result of said reflected distance measuring light, a detection result of said horizontal angle detector, and a detection result of said vertical angle detector, characterised in that said light receiving optical system has a reflecting mirror having a reflecting surface which is an off-axis paraboloidal surface or an off-axis free-form surface, and said reflected distance measuring light is configured to be led to a light receiving module by said reflecting mirror while being condensed, wherein a multilayer film optical element having a predetermined glass thickness is provided on said projecting optical axis , said multilayer film optical element has a first incidence surface which exists at a close position from said distance measuring light source and a second incidence surface which exists at an away position from said distance measuring light source, a beam splitter film which reflects a part of said distance measuring light and transmits a remaining part of said distance measuring light is formed on an incidence portion of said distance measuring light on said second incidence surface, an antireflective film is formed on a portion of said second incidence surface excluding said beam splitter film, wherein said distance measuring light is configured to be reflected by said beam splitter film, and said reflected distance measuring light is configured to be transmitted through said beam splitter film and said antireflective film.
A method for determining abnormal driving characteristics comprising: receiving current telematics data from a client device for a provider providing a service along at least a portion of a route, the telematics data describing movement of the client device during the service; determining a typical frequency of one or more abnormal behaviors associated with the portion of the route based on a set of aggregate telematics data gathered from a set of client devices; generating a provider profile with identifying information of the provider, including a deviation from the typical frequency of the one or more abnormal behaviors for the provider; determining an expected frequency of the one or more abnormal behaviors for the provider along the portion of the route by adjusting the typical frequency of the one or more abnormal behaviors based on the provider profile; generating an abnormality score reflecting a difference between a current frequency of the one or more abnormal behaviors of the current telematics data and the expected frequency of the one or more abnormal behaviors, when the abnormality score exceeds a threshold, identifying at least one abnormal driving characteristic of the provider; generating a corrective recommendation based on the at least one abnormal driving characteristic of the provider. receiving current telematics data from a client device for a provider providing a service along at least a portion of a route, the telematics data describing movement of the client device during the service; determining a typical frequency of one or more abnormal behaviors associated with the portion of the route based on a set of aggregate telematics data gathered from a set of client devices; generating a provider profile with identifying information of the provider, including a deviation from the typical frequency of the one or more abnormal behaviors for the provider; determining an expected frequency of the one or more abnormal behaviors for the provider along the portion of the route by adjusting the typical frequency of the one or more abnormal behaviors based on the provider profile; generating an abnormality score reflecting a difference between a current frequency of the one or more abnormal behaviors of the current telematics data and the expected frequency of the one or more abnormal behaviors, when the abnormality score exceeds a threshold, identifying at least one abnormal driving characteristic of the provider; generating a corrective recommendation based on the at least one abnormal driving characteristic of the provider.
An additive fabrication device configured to form layers of material on a build platform , each layer of material being formed so as to contact a container in addition to the build platform and/or a previously formed layer of material, the additive fabrication device comprising: a container ; and a movable wiper , the wiper comprising: a wiper arm ; and a wiper blade characterised in that said wiper blade is coupled to said wiper arm using a pivoting coupling , the pivoting coupling allowing the wiper blade to move in a direction away from the surface of the container to allow the wiper to continue its motion substantially unimpeded, through rotation of the wiper blade around the pivoting coupling. a container ; and a movable wiper , the wiper comprising: a wiper arm ; and a wiper blade characterised in that said wiper blade is coupled to said wiper arm using a pivoting coupling , the pivoting coupling allowing the wiper blade to move in a direction away from the surface of the container to allow the wiper to continue its motion substantially unimpeded, through rotation of the wiper blade around the pivoting coupling. a wiper arm ; and a wiper blade characterised in that said wiper blade is coupled to said wiper arm using a pivoting coupling , the pivoting coupling allowing the wiper blade to move in a direction away from the surface of the container to allow the wiper to continue its motion substantially unimpeded, through rotation of the wiper blade around the pivoting coupling.
An apparatus including: a portable chamber , comprising: a radiation source ; (i) a load board slot configured for: holding a load board configured to hold a device under test (DUT) ; and (ii) electrically connecting the load board to an automatic testing equipment ; and at least one movable device for positioning the load board slot relative to the radiation source ; wherein said chamber , connected to the automatic testing equipment , is configured to construct and operate one or more different soft errors testing of the DUT ; wherein said soft errors testing comprises, while selectively exposing the DUT to radiation: a) supplying said DUT with voltages for proper operation; b) receiving a response to said supplying as output from the DUT; c) counting soft errors in the response; the apparatus is characterised by a motion control configured to receive instructions and control the at least one movable device according to the received instructions, wherein the motion control is configured to position the load board slot relative to the radiation source according to at least one of the following parameters: (i) a size of the DUT ; and/or (ii) the amount of radiation detected by a detector . a portable chamber , comprising: a radiation source ; (i) a load board slot configured for: holding a load board configured to hold a device under test (DUT) ; and (ii) electrically connecting the load board to an automatic testing equipment ; and at least one movable device for positioning the load board slot relative to the radiation source ; a radiation source ; (i) a load board slot configured for: holding a load board configured to hold a device under test (DUT) ; and (ii) electrically connecting the load board to an automatic testing equipment ; and at least one movable device for positioning the load board slot relative to the radiation source ; (i) a load board slot configured for: holding a load board configured to hold a device under test (DUT) ; and (ii) electrically connecting the load board to an automatic testing equipment ; and wherein said chamber , connected to the automatic testing equipment , is configured to construct and operate one or more different soft errors testing of the DUT ; wherein said soft errors testing comprises, while selectively exposing the DUT to radiation: a) supplying said DUT with voltages for proper operation; b) receiving a response to said supplying as output from the DUT; c) counting soft errors in the response; the apparatus is characterised by a) supplying said DUT with voltages for proper operation; b) receiving a response to said supplying as output from the DUT; c) counting soft errors in the response; the apparatus is characterised by a motion control configured to receive instructions and control the at least one movable device according to the received instructions, wherein the motion control is configured to position the load board slot relative to the radiation source according to at least one of the following parameters: (i) a size of the DUT ; and/or (ii) the amount of radiation detected by a detector .
An integral helmet , in particular a full-face helmet, preferably in the form of a shell construction, comprising a helmet upper shell unit having an integrated neck unit , and a chin protection unit having a jaw clamp , wherein the chin protection unit can be detachably connected to the helmet upper shell unit to form the integral helmet , wherein the chin protection unit is formed as an open chin bar unit having end regions at a distance from one another for connecting to the neck unit , such that, in an assembled state, the end regions form an entirely closed unit together with the neck unit , wherein a viewing window is designed between a top area of the chin protection unit and a front area of the helmet upper-shell unit and/or the neck unit , and a self-locking interlock mechanism is provided for connecting the chin protection unit to the helmet upper-shell unit , wherein the interlock mechanism comprises connection means on the helmet upper-shell unit for interacting with corresponding connection means on the chin protection unit , wherein the connection means on the helmet upper-shell unit are arranged at the front area of the helmet upper-shell unit , wherein at least the first connection means on the chin protection unit and the first connection means on the helmet upper-shell unit corresponding thereto form a pivot joint in the connected state around a pivot axle of which the chin protection unit is able to pivot relative to the helmet upper-shell unit , characterized in that the connection means on the helmet side comprise corresponding magnet elements and the connection means on the chin protection side comprise magnetizable elements or magnets arranged in opposite polarity or the connection means on the chin protection side comprise magnet elements and the connection means on the helmet side comprise magnetizable elements or magnets arranged in opposite polarity.
Threaded tubular connection for the drilling and/or exploitation of hydrocarbon wells, comprising a first tube equipped at a first distal end with a male tool joint and a second tube equipped at a second distal end with a female tool joint , the male tool joint being capable of being assembled by makeup with the female tool joint , the first tube assembled to the second tube together define a longitudinal axis, the male tool joint comprising a male threaded portion , the female tool joint comprising a female threaded portion engaged with the male threaded portion when the connection is assembled, the male and female threaded portions each comprising at least one helix equipped with a load flank, a thread crest, a stabbing flank, a thread root, such that a pitch of the load flank LFLp and a pitch of the stabbing flank SFLp of the male threaded portion, and respectively a pitch of the load flank LFLb and a pitch of the stabbing flank SFLb of the female threaded portion fulfil the following condition, for at least two consecutive turns of the respective helices of the male and female threaded portions: SFLp = LFLp = SFLb = LFLb = k characterised in that along the longitudinal axis, in these at least two consecutive turns, a tooth width (Wtp) of the helix of the male threaded portion and a tooth width (Wtb) of the helix of the corresponding female threaded portion are such that 50 % < Wtp Wtb < 80 % Or 50 % < Wtb Wtp < 80 % And Wtp + Wtb < k the male tool joint comprising a male threaded portion , the female tool joint comprising a female threaded portion engaged with the male threaded portion when the connection is assembled, the male and female threaded portions each comprising at least one helix equipped with a load flank, a thread crest, a stabbing flank, a thread root, such that a pitch of the load flank LFLp and a pitch of the stabbing flank SFLp of the male threaded portion, and respectively a pitch of the load flank LFLb and a pitch of the stabbing flank SFLb of the female threaded portion fulfil the following condition, for at least two consecutive turns of the respective helices of the male and female threaded portions: SFLp = LFLp = SFLb = LFLb = k characterised in that along the longitudinal axis, in these at least two consecutive turns, a tooth width (Wtp) of the helix of the male threaded portion and a tooth width (Wtb) of the helix of the corresponding female threaded portion are such that 50 % < Wtp Wtb < 80 % Or 50 % < Wtb Wtp < 80 % And Wtp + Wtb < k
A method for manufacturing a wind turbine blade shell part made of a composite structure comprising a fibre-reinforcement material embedded in a polymer matrix via vacuum assisted resin transfer moulding, the method comprising the steps of: - mounting a plurality of fastening devices on a first side of a mounting plate so as to form a root end assembly, the mounting plate comprising one or more first openings for evacuating air, the mounting plate having a second side opposite the first side , - arranging the root end assembly, one or more outer fibre layers defining an outer surface of the wind turbine blade shell part, and one or more inner fibre layers on a mould surface of a mould such that the fastening devices are arranged above a root end section of the mould and are embedded between the one or more outer fibre layers and the one or more inner fibre layers, - arranging an air-tight cover member so as to form a mould cavity defined by the air-tight cover member, the mould surface, and the mounting plate, with the one or more outer fibre layers, the one or more inner fibre layers, and the fastening devices arranged within the mould cavity, - evacuating air from the mould cavity via at least the one or more first openings of the mounting plate, and - supplying a polymer into the mould cavity and allowing the polymer to cure so as to form the composite structure. - mounting a plurality of fastening devices on a first side of a mounting plate so as to form a root end assembly, the mounting plate comprising one or more first openings for evacuating air, the mounting plate having a second side opposite the first side , - arranging the root end assembly, one or more outer fibre layers defining an outer surface of the wind turbine blade shell part, and one or more inner fibre layers on a mould surface of a mould such that the fastening devices are arranged above a root end section of the mould and are embedded between the one or more outer fibre layers and the one or more inner fibre layers, - arranging an air-tight cover member so as to form a mould cavity defined by the air-tight cover member, the mould surface, and the mounting plate, with the one or more outer fibre layers, the one or more inner fibre layers, and the fastening devices arranged within the mould cavity, - evacuating air from the mould cavity via at least the one or more first openings of the mounting plate, and - supplying a polymer into the mould cavity and allowing the polymer to cure so as to form the composite structure.
A method of operating a wind turbine yaw assembly comprising a yaw ring and a number of yaw drive units , wherein a yaw drive unit comprises a pinion arranged to engage with the yaw ring , which method is characterized by the steps of - identifying a damaged tooth (20 F , 20 X ) on the yaw ring ; - providing damage descriptor parameters (D 20F , D 20X ) to the yaw drive controller ; and - controlling a yaw drive unit on the basis of the damage descriptor parameters (D 20F , D 20X ) to reduce the force exerted by its pinion on a damaged tooth (20 F , 20x) . - identifying a damaged tooth (20 F , 20 X ) on the yaw ring ; - providing damage descriptor parameters (D 20F , D 20X ) to the yaw drive controller ; and - controlling a yaw drive unit on the basis of the damage descriptor parameters (D 20F , D 20X ) to reduce the force exerted by its pinion on a damaged tooth (20 F , 20x) .
A computer-implemented method, comprising: identifying , by one or more processors, a skill disparity between at least two players of a game based on player skill data provided by a player skill engine ; selecting , based on the skill disparity between the at least two players, by the one or more of the processors, an ambient lighting scheme from a database to reduce an impact the skill disparity has on an outcome of the game, wherein the ambient lighting scheme comprises a property of emitted light selected to impair or enhance an ability of a first player of the at least two players to play the game; selecting , by one or more of the processors, one or more ambient light sources from a plurality of ambient light sources based on positions of the at least two players relative to the plurality of ambient light sources; and operating , by the one or more of the processors, the one or more ambient light sources to emit light in accordance with the ambient lighting scheme. identifying , by one or more processors, a skill disparity between at least two players of a game based on player skill data provided by a player skill engine ; selecting , based on the skill disparity between the at least two players, by the one or more of the processors, an ambient lighting scheme from a database to reduce an impact the skill disparity has on an outcome of the game, wherein the ambient lighting scheme comprises a property of emitted light selected to impair or enhance an ability of a first player of the at least two players to play the game; selecting , by one or more of the processors, one or more ambient light sources from a plurality of ambient light sources based on positions of the at least two players relative to the plurality of ambient light sources; and operating , by the one or more of the processors, the one or more ambient light sources to emit light in accordance with the ambient lighting scheme.
A haptic actuator comprising a core defining a volume, an electromagnetic coil coiled around the core, and a haptic mass suspended in the volume, the haptic mass at least partially formed with a ferromagnetic material, the haptic mass movable in the volume in response to the electromagnetic coil generating a magnetic field, characterized by the haptic actuator being a flexible actuator; the core being formed with a flexible material, the core being bendable; the electromagnetic coil being bendable; and comprising a casing surrounding an electrical conductor of the electromagnetic coil and at least a part of the core , the casing including a plurality of flexible sections and a plurality of stiff sections, the casing being bendable.