mhurhangee/patent-ind-claim-en huggingface dataset:
A busbar comprising: - a plurality of busbar conductors ; - an outer enclosure containing said plurality of busbar conductors , - clamping means extending through said enclosure for holding said plurality of busbar conductors within said enclosure , - a U-shaped heat dissipation element , comprising a base and two side wings projecting from said base , wherein said clamping means comprise a through element , extending through said heat dissipation element and said enclosure , and an end element attached at one end of said through element to fix said heat dissipation element to said enclosure , characterized in that it comprises: - a spacer element located inside said enclosure to define an upper cavity and a lower cavity of said enclosure , and in that - said heat dissipation element is fixed outside said enclosure by said clamping means such that said base contacts said enclosure and said two side wings extend away from said enclosure , - said base of said heat dissipation element is located between said end element and said enclosure , - said plurality of busbar connectors comprises a plurality of first conductors housed in said upper cavity and a plurality of second conductors housed in said lower cavity , - said through element extends through said spacer element . - a plurality of busbar conductors ; - an outer enclosure containing said plurality of busbar conductors , - clamping means extending through said enclosure for holding said plurality of busbar conductors within said enclosure , - a U-shaped heat dissipation element , comprising a base and two side wings projecting from said base , - a spacer element located inside said enclosure to define an upper cavity and a lower cavity of said enclosure , and in that - said heat dissipation element is fixed outside said enclosure by said clamping means such that said base contacts said enclosure and said two side wings extend away from said enclosure , - said base of said heat dissipation element is located between said end element and said enclosure , - said plurality of busbar connectors comprises a plurality of first conductors housed in said upper cavity and a plurality of second conductors housed in said lower cavity , - said through element extends through said spacer element .
A rechargeable battery comprising: an electrode assembly comprising a first electrode , a separator , and a second electrode ; a case accommodating the electrode assembly , and having an opening at a side thereof for receiving the electrode assembly ; a cap assembly coupled to the case at the opening, wherein the cap assembly comprises a cap plate , wherein the cap plate comprises a vent member ; wherein the rechargeable battery further comprises a first insulation member surrounding the case , an extending portion of the first insulation member extending by a height (A) above the cap assembly ; and a second insulation member on the cap assembly and contacting the extending portion of the first insulation member , the second insulation member being a coated layer, wherein the vent member being exposed through the second insulation member , wherein the cap plate further comprises an embankment around a periphery of the vent member having a height which is enough to prevent insulation material of the second insulation member from flowing into or on the vent member . an electrode assembly comprising a first electrode , a separator , and a second electrode ; a case accommodating the electrode assembly , and having an opening at a side thereof for receiving the electrode assembly ; a cap assembly coupled to the case at the opening, wherein the cap assembly comprises a cap plate , wherein the cap plate comprises a vent member ; wherein the rechargeable battery further comprises a first insulation member surrounding the case , an extending portion of the first insulation member extending by a height (A) above the cap assembly ; and a second insulation member on the cap assembly and contacting the extending portion of the first insulation member , the second insulation member being a coated layer, wherein the vent member being exposed through the second insulation member , wherein the cap plate further comprises an embankment around a periphery of the vent member having a height which is enough to prevent insulation material of the second insulation member from flowing into or on the vent member .
Apparatus for providing settings of a control system for implementing a spatial distribution of perceptible output in a physical space (1-4; 17), which control system is configured to control at least one output device (6-8,45-48) positioned in that physical space (1,2,3,4;17) and to maintain in memory data (56-60) representative of locations of the output devices (6-8,45-48) in the physical space (1-4;17), characterized in that the apparatus includes an input device for obtaining user input specifying at least one location of one of the output devices (6-8,45-48), the settings being based on the user input, and wherein the input device comprises a touch screen device which includes at least one component defining a surface for manipulation by a user by indicating at least a first point on the surface wherein the first point is a point of interaction of the user with the surface, and a sensor arrangement arranged to detect an angular co-ordinate of the first point about at least one axis through a second point of the input device .
A device to improve iron loss properties of a grain-oriented electrical steel sheet, which scans a laser beam (R) in a direction traversing a feed path of a grain-oriented electrical steel sheet having subjected to final annealing so as to irradiate a surface of the steel sheet being passed through with the laser beam (R) to thereby perform magnetic domain refinement, the device comprising: an irradiation mechanism for scanning the laser beam (R) in a direction orthogonal to the feed direction of the steel sheet (S), wherein the irradiation mechanism includes a scanning mirror for scanning the laser beam (R) in a direction orthogonal to the feed direction of the steel sheet (S), characterized in that : the irradiation mechanism includes a vibrating mirror or a rotating polygon mirror disposed in the proximity to the scanning mirror , wherein the irradiation mechanism has a function of having the scanning direction of the laser beam (R) oriented diagonally, relative to the orthogonal direction, toward the feed direction at an angle determined based on a sheet passing speed of the steel sheet (S) on the feed path. an irradiation mechanism for scanning the laser beam (R) in a direction orthogonal to the feed direction of the steel sheet (S), wherein the irradiation mechanism includes a scanning mirror for scanning the laser beam (R) in a direction orthogonal to the feed direction of the steel sheet (S), characterized in that : the irradiation mechanism includes a vibrating mirror or a rotating polygon mirror disposed in the proximity to the scanning mirror , wherein the irradiation mechanism has a function of having the scanning direction of the laser beam (R) oriented diagonally, relative to the orthogonal direction, toward the feed direction at an angle determined based on a sheet passing speed of the steel sheet (S) on the feed path. the irradiation mechanism includes a vibrating mirror or a rotating polygon mirror disposed in the proximity to the scanning mirror , wherein the irradiation mechanism has a function of having the scanning direction of the laser beam (R) oriented diagonally, relative to the orthogonal direction, toward the feed direction at an angle determined based on a sheet passing speed of the steel sheet (S) on the feed path.
A polymer powder (P) being a polymer powder (P2), the polymer powder (P2) has an acetone-soluble component of 2 mass% or more and less than 30 mass%, the acetone-soluble component has a mass average molecular weight of 100,000 or more, and the polymer powder (P2) has a volume average primary particle size (Dv) of 200 nm or more.
A method of wireless communication, comprising: configuring a plurality of dynamic channel state information -CSI-reference signal -CSI-RS- resource configurations for each of one or more user equipments -UEs- within a coverage area; determining a communication activity level related to the one or more UEs; selecting one or more CSI-RS resource configurations of the plurality of dynamic CSI-RS resource configurations based on the determined communication activity level; signaling a CSI-RS trigger to each of the one or more UEs via layer 1 signaling, wherein the CSI-RS trigger identifies the selected one or more CSI-RS resource configurations; and transmitting CSI-RS according to the selected one or more CSI-RS resource configurations, identifying one or more deactivated dynamic CSI-RS resources of the plurality of dynamic CSI-RS resource configurations to reuse for data transmission; identifying one or more rate matching states corresponding to each of the identified one or more deactivated dynamic CSI-RS resources; generating a dynamic indication for one or more served UEs, wherein the dynamic indication identifies which of the identified one or more rate matching states are activated for rate matching; transmitting the dynamic indication to the one or more served UEs; and transmitting the data on the identified one or more deactivated dynamic CSI-RS resources using the identified one or more rate matching states. configuring a plurality of dynamic channel state information -CSI-reference signal -CSI-RS- resource configurations for each of one or more user equipments -UEs- within a coverage area; determining a communication activity level related to the one or more UEs; selecting one or more CSI-RS resource configurations of the plurality of dynamic CSI-RS resource configurations based on the determined communication activity level; signaling a CSI-RS trigger to each of the one or more UEs via layer 1 signaling, wherein the CSI-RS trigger identifies the selected one or more CSI-RS resource configurations; and transmitting CSI-RS according to the selected one or more CSI-RS resource configurations, identifying one or more deactivated dynamic CSI-RS resources of the plurality of dynamic CSI-RS resource configurations to reuse for data transmission; identifying one or more rate matching states corresponding to each of the identified one or more deactivated dynamic CSI-RS resources; generating a dynamic indication for one or more served UEs, wherein the dynamic indication identifies which of the identified one or more rate matching states are activated for rate matching; transmitting the dynamic indication to the one or more served UEs; and transmitting the data on the identified one or more deactivated dynamic CSI-RS resources using the identified one or more rate matching states.
A catheter assembly comprising: a catheter ; a catheter hub fixed to a proximal end portion of the catheter ; a hollow inner needle including a needlepoint and detachably inserted into the catheter ; a guide wire slidably inserted into the inner needle , having a length longer than the inner needle and the catheter , and having a distal end that can project from the needlepoint ; and a wire operating member which extends in the longitudinal direction, can be displaced in the longitudinal direction relative to the inner needle and the catheter , and is connected to the guide wire , wherein the wire operating member includes an uneven shape portion formed on a distal end upper surface of an extending portion, characterized in that the catheter assembly further comprises a pressing member which is configured to be pressable with one hand and which includes a main body connected to the catheter hub, and wherein the main body includes a finger hook projection . a catheter ; a catheter hub fixed to a proximal end portion of the catheter ; a hollow inner needle including a needlepoint and detachably inserted into the catheter ; a guide wire slidably inserted into the inner needle , having a length longer than the inner needle and the catheter , and having a distal end that can project from the needlepoint ; and a wire operating member which extends in the longitudinal direction, can be displaced in the longitudinal direction relative to the inner needle and the catheter , and is connected to the guide wire , wherein the wire operating member includes an uneven shape portion formed on a distal end upper surface of an extending portion,
An absorbent article comprising an absorbent core sandwiched between a liquid permeable topsheet and a liquid impermeable backsheet , and an acquisition distribution layer positioned between said topsheet and said absorbent core , wherein the absorbent core comprises absorbent material selected from the group consisting of cellulose fibers, superabsorbent polymers and combinations thereof, wherein said absorbent core comprises at least one core wrap substrate enclosing said absorbent material, and wherein a top layer of said core wrap is adhered to a bottom layer of said core wrap to form one or more channels substantially free of said absorbent material, wherein said channels have a length extending along a longitudinal axis and the absorbent core has a length extending along said longitudinal axis and wherein the length of said channels is from 10% to 95% of the length of said absorbent core and wherein said channels each follow a substantially continuous path such as from a first end of a channel to a second end of the same channel characterized in that the acquisition distribution layer comprises a spunbond and/or carded nonwoven layer comprising synthetic fibers, wherein said synthetic fibers are comprised at a level of greater than 80%wt by weight of said acquisition distribution layer , and wherein said acquisition distribution layer has a basis weight of from 10 to 50 g/m 2 and in that the acquisition distribution layer is positioned at a body-facing side of the absorbent core , and in contact with the body-facing side of the absorbent core .
A power transmitting device comprising: a power transmitting unit configured to contactlessly transmit alternating-current power to be transmitted to a power receiving unit of a vehicle ; a detection device that is configured to detect a positional relationship between the power transmitting unit and the power receiving unit ; and is characterized by a controller configured to perform an alignment process performing a process using the positional relationship detected by the detection device for aligning the power receiving unit with the power transmitting unit , and a power transmission function check process performing power transmission by the power transmitting unit to check whether a power transmission function of the power transmitting unit functions properly, the controller being configured to: before starting power transmission by the power transmitting unit , perform the alignment process; and after the alignment process has completed alignment of the power receiving unit with the power transmitting unit , start power transmission by the power transmitting unit to perform the power transmission function check process. a power transmitting unit configured to contactlessly transmit alternating-current power to be transmitted to a power receiving unit of a vehicle ; a detection device that is configured to detect a positional relationship between the power transmitting unit and the power receiving unit ; and is characterized by a controller configured to perform an alignment process performing a process using the positional relationship detected by the detection device for aligning the power receiving unit with the power transmitting unit , and a power transmission function check process performing power transmission by the power transmitting unit to check whether a power transmission function of the power transmitting unit functions properly, the controller being configured to: before starting power transmission by the power transmitting unit , perform the alignment process; and after the alignment process has completed alignment of the power receiving unit with the power transmitting unit , start power transmission by the power transmitting unit to perform the power transmission function check process. before starting power transmission by the power transmitting unit , perform the alignment process; and after the alignment process has completed alignment of the power receiving unit with the power transmitting unit , start power transmission by the power transmitting unit to perform the power transmission function check process.
A fairing device for the reduction of vortex-induced vibrations or motions and reduction of drag about a substantially cylindrical element immersed in a fluid medium, comprising: a fairing for rotatably mounting about the substantially cylindrical element, the fairing comprising a shell with a mainly cylindrical cross-sectional shape with an outer diameter (D) following the outer diameter of said cylindrical element from an upward stagnation point of 0 degrees to at least +/- 90 degrees, and which at +/- 90 degrees continues in an aft direction as first and second fin-like portions, wherein the first and second fin-like portions are convexly curved aft of +/- 90 degrees thus tapering towards each other and defining a tail end opening less than a standoff height of the fairing; wherein the first and second fin-like portions each define a chord length (C); wherein the chord length (C) of the first fin-like portion is dimensionally different than the chord length (C) of the second fin-like portion,thus forming an asymmetric cross-section; and wherein the chord lengths of the first and second fin-like portions change at one location or plurality of locations along the span length of the fairing. a fairing for rotatably mounting about the substantially cylindrical element, the fairing comprising a shell with a mainly cylindrical cross-sectional shape with an outer diameter (D) following the outer diameter of said cylindrical element from an upward stagnation point of 0 degrees to at least +/- 90 degrees, and which at +/- 90 degrees continues in an aft direction as first and second fin-like portions, wherein the first and second fin-like portions are convexly curved aft of +/- 90 degrees thus tapering towards each other and defining a tail end opening less than a standoff height of the fairing; wherein the first and second fin-like portions each define a chord length (C); wherein the chord length (C) of the first fin-like portion is dimensionally different than the chord length (C) of the second fin-like portion,thus forming an asymmetric cross-section; and wherein the chord lengths of the first and second fin-like portions change at one location or plurality of locations along the span length of the fairing.
A wearable device , comprising: an outer housing including a first surface facing a first direction, a second surface facing a second direction opposite to the first direction, and a side surface surrounding a space between the first surface and the second surface, wherein a metal frame is formed on at least a portion of the side surface; a display wherein at least a portion of which is exposed through the first surface of the outer housing ; a printed circuit board, PCB, interposed between the second surface and the display in an interior of the outer housing ; a communication circuit disposed on the PCB; and a ground area provided in the PCB, wherein the metal frame is electrically connected to the communication circuit at a first point of the metal frame and is selectively connected to the ground area at a second point of the metal frame , and wherein the communication circuit is configured to: transmit and/or receive a signal in a first frequency band by a first electrical path formed if the second point is not connected to the ground area ; and transmit and/or receive a signal in a second frequency band by a second electrical path formed if the second point is connected to the ground area , characterized in that the metal frame has a closed loop shape in which the side surface is not partitioned. an outer housing including a first surface facing a first direction, a second surface facing a second direction opposite to the first direction, and a side surface surrounding a space between the first surface and the second surface, wherein a metal frame is formed on at least a portion of the side surface; a display wherein at least a portion of which is exposed through the first surface of the outer housing ; a printed circuit board, PCB, interposed between the second surface and the display in an interior of the outer housing ; a communication circuit disposed on the PCB; and a ground area provided in the PCB, wherein the metal frame is electrically connected to the communication circuit at a first point of the metal frame and is selectively connected to the ground area at a second point of the metal frame , and wherein the communication circuit is configured to: transmit and/or receive a signal in a first frequency band by a first electrical path formed if the second point is not connected to the ground area ; and transmit and/or receive a signal in a second frequency band by a second electrical path formed if the second point is connected to the ground area , transmit and/or receive a signal in a first frequency band by a first electrical path formed if the second point is not connected to the ground area ; and transmit and/or receive a signal in a second frequency band by a second electrical path formed if the second point is connected to the ground area , characterized in that the metal frame has a closed loop shape in which the side surface is not partitioned.
A method of coating a component comprising: attaching the component to a support that is configured to hold a plurality of components attached lengthwise along the support ; placing a base of the support in a holder that is attached to a rotatable member of a fixture , wherein an axis of the holder is parallel to an axis of rotation of the rotatable member ; transporting the fixture with the component into a coating chamber wherein a direction of an exit stream of a coater is oriented perpendicularly to the axis of rotation of the rotatable member ; exposing the fixture and the component to a reverse transfer arc cleaning procedure while the rotatable member is rotating at a first rotational angular velocity for a first time period during which the component is heated to a first temperature; exposing the fixture and the component to a coating procedure during which a coating is directed at the component in a direction perpendicular to the axis of the rotatable member while the rotatable member is rotating at a second angular velocity and is maintained at a second temperature for a second time period; transporting the fixture with the component to a cooling chamber; and removing the component from the support . attaching the component to a support that is configured to hold a plurality of components attached lengthwise along the support ; placing a base of the support in a holder that is attached to a rotatable member of a fixture , wherein an axis of the holder is parallel to an axis of rotation of the rotatable member ; transporting the fixture with the component into a coating chamber wherein a direction of an exit stream of a coater is oriented perpendicularly to the axis of rotation of the rotatable member ; exposing the fixture and the component to a reverse transfer arc cleaning procedure while the rotatable member is rotating at a first rotational angular velocity for a first time period during which the component is heated to a first temperature; exposing the fixture and the component to a coating procedure during which a coating is directed at the component in a direction perpendicular to the axis of the rotatable member while the rotatable member is rotating at a second angular velocity and is maintained at a second temperature for a second time period; transporting the fixture with the component to a cooling chamber; and removing the component from the support .