mhurhangee/ep-ind-claims huggingface dataset:
An electrodynamic apparatus comprising: a first arm extending in a first direction; a second arm supported by the first arm; and a first linear actuator that is provided in the first arm or the second arm and moves the second arm along the first direction with respect to the first arm, a support extending in a second direction that is different from the first direction and supporting the first arm, wherein the first arm includes a first power transmission antenna, the second arm includes a first power reception antenna, the first power transmission antenna supplies electric power to the first power reception antenna wirelessly, and the first power reception antenna supplies the supplied electric power to a load electrically connected to the first power reception antenna. a first arm extending in a first direction; a second arm supported by the first arm; and a first linear actuator that is provided in the first arm or the second arm and moves the second arm along the first direction with respect to the first arm, a support extending in a second direction that is different from the first direction and supporting the first arm, wherein the first arm includes a first power transmission antenna, the second arm includes a first power reception antenna, the first power transmission antenna supplies electric power to the first power reception antenna wirelessly, and the first power reception antenna supplies the supplied electric power to a load electrically connected to the first power reception antenna.
An adhesion promoter composition comprising: from 80 wt % to 99 wt % of a solvent; and from 20 wt % to 1 wt % of a maleic anhydride functionalized ethylene/octene multi-block copolymer with a base ethylene/octene multi-block copolymer comprising hard segments and soft segments linked in a linear fashion, the base ethylene/octene multi-block copolymer having (i) a crystallinity from 1 % to 10 %, wherein the percent crystallinity is calculated by dividing the heat of fusion determined from a second heat curve obtained from DSC, by 292 J/g, and multiplying this quantity by 100; and (ii) a melt index from greater than 15 g/10 min to 100 g/10 min, the melt index being measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg. from 80 wt % to 99 wt % of a solvent; and from 20 wt % to 1 wt % of a maleic anhydride functionalized ethylene/octene multi-block copolymer with a base ethylene/octene multi-block copolymer comprising hard segments and soft segments linked in a linear fashion, the base ethylene/octene multi-block copolymer having (i) a crystallinity from 1 % to 10 %, wherein the percent crystallinity is calculated by dividing the heat of fusion determined from a second heat curve obtained from DSC, by 292 J/g, and multiplying this quantity by 100; and (ii) a melt index from greater than 15 g/10 min to 100 g/10 min, the melt index being measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg. (i) a crystallinity from 1 % to 10 %, wherein the percent crystallinity is calculated by dividing the heat of fusion determined from a second heat curve obtained from DSC, by 292 J/g, and multiplying this quantity by 100; and (ii) a melt index from greater than 15 g/10 min to 100 g/10 min, the melt index being measured in accordance with ASTM D 1238, Condition 190°C/2.16 kg.
A stent for a vessel used by being inserted into a vessel of a living body, comprising: a main body portion of the stent comprising a yarn (2, 21) bent in a zigzag design and wound into a tube without forming overlapping portions with any yarn, said yarn (2, 21) being formed of a biodegradable polymer and exhibiting a shape memory function, wherein said main body portion of the stent is enlarged or contracted in diameter with bends (4; 24) of said yarn (2, 21) as displacing portions, wherein said main body portion of the stent comprises a contracted size and a shape-memorized size, and wherein the enlargement of said main body portion of the stent from its contracted size to its shape-memorized size is temperature dependent characterized in that said main body portion of the stent is made up of said yarn (2, 21) which is bent in a zigzag design and formed into a ring-shaped element, wherein a plurality of ring-shaped elements are juxtaposed along the axial direction of said stent to form the tubular main body, wherein the opening angles (θ1, θ2) of said bends formed partway of the yarn (2, 21) are set so as to be approximately equal to each other, the length of both sides of said bends (4; 24) are set so as to be approximately equal to each other, and the apices of the neighboring bends contacting each other are bonded together. a main body portion of the stent comprising a yarn (2, 21) bent in a zigzag design and wound into a tube without forming overlapping portions with any yarn, said yarn (2, 21) being formed of a biodegradable polymer and exhibiting a shape memory function, wherein said main body portion of the stent is enlarged or contracted in diameter with bends (4; 24) of said yarn (2, 21) as displacing portions, wherein said main body portion of the stent comprises a contracted size and a shape-memorized size, and wherein the enlargement of said main body portion of the stent from its contracted size to its shape-memorized size is temperature dependent
The traction box of a railway vehicle, comprising: - first (16, 17) and second pieces of electric equipment, and - a cooling device, able to remove heat dissipated by said first and second pieces of electric equipment, the cooling device comprising: - a first (38, 39) and a second heat exchange areas, able to dissipate heat generated respectively by the first (16, 17) and second pieces of electric equipment; - first (54, 62, 70, 71) and second (54, 60, 70, 71) fluid circuits, respectively crossing the first (38, 39) and the second heat exchange areas, each of the first and second fluid circuits forming a closed loop; and - a first and a second heat exchangers, respectively crossed by said first and said second fluid circuits and allowing a heat exchange between said fluid and a first air flow, wherein: - the first and second fluid circuits comprise a first common conduit (70, 71, 54) for fluid circulation, crossing the first heat exchanger; and - at the outlet of said first heat exchanger, said first conduit is connected to a second and a third conduits parallel to the circulation of fluid, said second conduit belonging to the second fluid circuit, said second conduit first crossing the second heat exchanger and then the second heat exchange area. - first (16, 17) and second pieces of electric equipment, and - a cooling device, able to remove heat dissipated by said first and second pieces of electric equipment, - a first (38, 39) and a second heat exchange areas, able to dissipate heat generated respectively by the first (16, 17) and second pieces of electric equipment; - first (54, 62, 70, 71) and second (54, 60, 70, 71) fluid circuits, respectively crossing the first (38, 39) and the second heat exchange areas, each of the first and second fluid circuits forming a closed loop; and - a first and a second heat exchangers, respectively crossed by said first and said second fluid circuits and allowing a heat exchange between said fluid and a first air flow, - the first and second fluid circuits comprise a first common conduit (70, 71, 54) for fluid circulation, crossing the first heat exchanger; and - at the outlet of said first heat exchanger, said first conduit is connected to a second and a third conduits parallel to the circulation of fluid, said second conduit belonging to the second fluid circuit, said second conduit first crossing the second heat exchanger and then the second heat exchange area.
Cooling apparatus comprising:- a mechanical refrigerator having a first cooled stage and a second cooled stage, the second cooled stage being adapted to be coupled thermally with target apparatus to be cooled; and, a heat pipe having a first part coupled thermally to the first stage of the mechanical refrigerator and a second part coupled thermally to a cooled member, the heat pipe being adapted to contain a condensable gaseous coolant when in use; the apparatus being adapted in use to be operated in a first cooling mode in which the temperature of the cooled member causes the coolant within the second part of the heat pipe to be gaseous and the temperature of the first stage causes the coolant in the first part to condense, whereby the cooled member is cooled by the movement of the condensed liquid from the first part to the second part of the heat pipe; and wherein the apparatus is further adapted in use to be operated in a second cooling mode in which the temperature of the first stage of the mechanical refrigerator causes the freezing of the coolant and causes the temperature of the second stage to become lower than the temperature of the first stage; characterised in that the heat pipe further comprises an anti-radiation member operative to reduce the passage of electromagnetic radiation between the first and second parts, the anti-radiation member being arranged to allow passage of liquid from one side of the member to the opposing side. a mechanical refrigerator having a first cooled stage and a second cooled stage, the second cooled stage being adapted to be coupled thermally with target apparatus to be cooled; and, a heat pipe having a first part coupled thermally to the first stage of the mechanical refrigerator and a second part coupled thermally to a cooled member, the heat pipe being adapted to contain a condensable gaseous coolant when in use; the apparatus being adapted in use to be operated in a first cooling mode in which the temperature of the cooled member causes the coolant within the second part of the heat pipe to be gaseous and the temperature of the first stage causes the coolant in the first part to condense, whereby the cooled member is cooled by the movement of the condensed liquid from the first part to the second part of the heat pipe; and wherein the apparatus is further adapted in use to be operated in a second cooling mode in which the temperature of the first stage of the mechanical refrigerator causes the freezing of the coolant and causes the temperature of the second stage to become lower than the temperature of the first stage; characterised in that the heat pipe further comprises an anti-radiation member operative to reduce the passage of electromagnetic radiation between the first and second parts, the anti-radiation member being arranged to allow passage of liquid from one side of the member to the opposing side.
A moving robot comprising: a main body for traveling an area formed by a boundary line; a traveler for moving the main body; an obstacle detector for detecting an obstacle; and a controller configured to control the traveler so that the main body avoids the detected obstacle and is prevented from invading the boundary line and deviating outside the area, set at least transit point between a target point and a starting point to avoid the boundary line or the obstacle when the main body moves, and set a movement path which linearly connects the starting point, the transit point, and the target point to each other; wherein the controller is configured to extract a feature point based on the shape of the area, and the position and shape of the obstacle, and set the at least one transit point based on the feature point; wherein the controller is configured to set a plurality of transit candidates based on the feature point, and set any one of the plurality of transit candidates including the feature point to the transit point; characterized in that: the controller is configured to set a plurality of points spaced by a predetermined distance from the feature point to the plurality of transit candidates. a main body for traveling an area formed by a boundary line; a traveler for moving the main body; an obstacle detector for detecting an obstacle; and a controller configured to control the traveler so that the main body avoids the detected obstacle and is prevented from invading the boundary line and deviating outside the area, set at least transit point between a target point and a starting point to avoid the boundary line or the obstacle when the main body moves, and set a movement path which linearly connects the starting point, the transit point, and the target point to each other; wherein the controller is configured to extract a feature point based on the shape of the area, and the position and shape of the obstacle, and set the at least one transit point based on the feature point; wherein the controller is configured to set a plurality of transit candidates based on the feature point, and set any one of the plurality of transit candidates including the feature point to the transit point; characterized in that: the controller is configured to set a plurality of points spaced by a predetermined distance from the feature point to the plurality of transit candidates.
A motorized driving device for a home automation closing installation comprising an electromechanical actuator, an electronic control unit, a wireless transmitter functionally connected to the electronic control unit, the wireless transmitter being configured to cooperate with a peripheral device for wireless communication, characterized in that the electronic control unit comprises a power jack, in that the wireless transmitter is electrically connected to the power jack of the electronic control unit, so as to control the peripheral device by wireless communication, in that the wireless transmitter is a module for sending external orders to the electronic control unit of the motorized driving device and in that the wireless transmitter comprises means for converting a first signal, the first signal being a power supply signal coming from the power jack of the electronic control unit of the motorized driving device, into a second signal (S12_ON, S12_OFF), the second signal (S12_ON, S12_OFF) being a control signal of the peripheral device.
An apparatus comprising: means for receiving, at a voltage regulator, an activity adjustment signal transmitted by a digital circuit that receives power from the voltage regulator, wherein the activity adjustment signal is indicative of a processing activity level of the digital circuit during a future time period; and means for controlling one or more variable impedance elements (204, 206) of the voltage regulator to modify an output voltage provided from the voltage regulator to the digital circuit, wherein the output voltage is based at least in part on sampling the activity adjustment signal. means for receiving, at a voltage regulator, an activity adjustment signal transmitted by a digital circuit that receives power from the voltage regulator, wherein the activity adjustment signal is indicative of a processing activity level of the digital circuit during a future time period; and means for controlling one or more variable impedance elements (204, 206) of the voltage regulator to modify an output voltage provided from the voltage regulator to the digital circuit, wherein the output voltage is based at least in part on sampling the activity adjustment signal.
A power tool comprising: a spindle assembly supported for rotation about an axis, the spindle assembly including a plurality of engagement members; a spindle lock assembly that selectively engages at least one of the plurality of engagement members to lock the spindle assembly against rotation about the axis; and a housing that substantially houses the spindle assembly, wherein the spindle lock assembly includes a button member and a mount, wherein the button member includes an outer surface that is surrounded by an outer surface of the mount, the mount is coupled to the housing, and wherein the button member moves relative to the mount to selectively engage the at least one of the plurality of engagement members to lock the spindle assembly against rotation about the axis; characterized in that at least two said engagement members are disposed in spaced relationship less than one hundred eighty degrees from each other with respect to the axis of the spindle assembly, and the outer surface of the mount is disposed at least at a first minimum radial distance from the axis, and at a maximum displacement of the button member relative to the mount toward the axis, a radial distance from the axis to the outer surface of the button member is at least approximately equal to the first minimum radial distance. a spindle assembly supported for rotation about an axis, the spindle assembly including a plurality of engagement members; a spindle lock assembly that selectively engages at least one of the plurality of engagement members to lock the spindle assembly against rotation about the axis; and a housing that substantially houses the spindle assembly, wherein the spindle lock assembly includes a button member and a mount, wherein the button member includes an outer surface that is surrounded by an outer surface of the mount, the mount is coupled to the housing, and wherein the button member moves relative to the mount to selectively engage the at least one of the plurality of engagement members to lock the spindle assembly against rotation about the axis; characterized in that at least two said engagement members are disposed in spaced relationship less than one hundred eighty degrees from each other with respect to the axis of the spindle assembly, and the outer surface of the mount is disposed at least at a first minimum radial distance from the axis, and at a maximum displacement of the button member relative to the mount toward the axis, a radial distance from the axis to the outer surface of the button member is at least approximately equal to the first minimum radial distance.
Device for making contact with at least one conductor track of a filling level sensor having at least one bow which can be pivoted over the conductor track and having a contact spring which is arranged on the bow, having a contact which is prestressed against the conductor track by a spring element (16, 17) of the contact spring, wherein the movement of the contact during the pivoting of the bow corresponds to an arc, and the contact is fabricated in one piece with the spring element (16, 17) of the contact spring, characterized in that the contact spring has a rotary bearing on the bow, and in that the axis of the rotary bearing is arranged parallel to the direction of movement of the contact over the conductor tracks and in that the axis of the rotary bearing forms an equilateral triangle with two contacts which are prestressed against a conductor track.
A zipper for garments, comprising a zipper head base for engaging or disengaging zipper teeth; wherein, the zipper head base is provided with a through hole allowing a puller to pass through, and the puller passes through the through hole and is rotatable clockwise or counterclockwise by taking the zipper head base as an axis; and the puller is provided with a position-limiting portion for preventing the puller from swaying left and right, wherein the through hole is arranged on an elastic member located on the zipper head base, wherein two of the position-limiting portions are symmetrically arranged at two sides of the through hole, wherein the position-limiting portions are integrally formed with the puller, characterized in that the elastic member is provided with a friction surface configured to be in sliding frictional contact with the position-limiting portion.
A surgical instrument, comprising: a housing comprising a rotatable input; a shaft extending from said housing, wherein said shaft comprises a frame; an end effector, comprising: a first jaw; and a second jaw, wherein said first jaw is rotatable relative to said second jaw; a closure system comprising a closure tube surrounding said frame, wherein said closure system is configured to close said first jaw during a closure stroke; an articulation joint rotatably connecting said end effector to said shaft; an articulation system configured to articulate said end effector relative to said shaft; a firing system operably engaged with said rotatable input, wherein said firing system is configured to move through said end effector during a firing stroke; a first rotatable member configured to selectively synchronize the motion of said firing system with the motion of said articulation system; and a second rotatable member operably engageable with said articulation system; characterised in that said closure tube comprises a wedge configured to engage said second rotatable member and lock said second rotatable member in position during said closure stroke to lock said articulation system in place and prevent the articulation of said end effector. a housing comprising a rotatable input; a shaft extending from said housing, wherein said shaft comprises a frame; an end effector, comprising: a first jaw; and a second jaw, wherein said first jaw is rotatable relative to said second jaw; a first jaw; and a second jaw, wherein said first jaw is rotatable relative to said second jaw; a closure system comprising a closure tube surrounding said frame, wherein said closure system is configured to close said first jaw during a closure stroke; an articulation joint rotatably connecting said end effector to said shaft; an articulation system configured to articulate said end effector relative to said shaft; a firing system operably engaged with said rotatable input, wherein said firing system is configured to move through said end effector during a firing stroke; a first rotatable member configured to selectively synchronize the motion of said firing system with the motion of said articulation system; and a second rotatable member operably engageable with said articulation system; characterised in that said closure tube comprises a wedge configured to engage said second rotatable member and lock said second rotatable member in position during said closure stroke to lock said articulation system in place and prevent the articulation of said end effector.
An impact copolymer propylene composition comprising: a polypropylene-based matrix of from 75% to 90% by weight of the composition; and an ethylene propylene copolymer rubber phase of from 8% to 25% by weight of the composition, wherein the EPR phase comprises from 35% to 45% by weight of ethylene, a xylenes solubles content of greater than 8 wt% as determined by acetone precipitation, and an intrinsic viscosity (I.V.) of greater than 6.5 dL/g, wherein the ICP composition has a MFR of greater than 10 g/10min and a tanδ of less than 5.0 at 0.1 rad/s (180°C), wherein the polypropylene-based matrix has a MFR of greater than 125 g/10min. a polypropylene-based matrix of from 75% to 90% by weight of the composition; and an ethylene propylene copolymer rubber phase of from 8% to 25% by weight of the composition, wherein the EPR phase comprises from 35% to 45% by weight of ethylene, a xylenes solubles content of greater than 8 wt% as determined by acetone precipitation, and an intrinsic viscosity (I.V.) of greater than 6.5 dL/g, wherein the ICP composition has a MFR of greater than 10 g/10min and a tanδ of less than 5.0 at 0.1 rad/s (180°C),