mhurhangee/ep-ind-claims huggingface dataset:
A storage apparatus that is mounted on an electric automobile and stores power transferred from a feeding facility located outside the automobile via wireless power transfer system having a transmission antenna including a primary self-resonant coil, comprising: a plurality of storage cells disposed in the electric automobile to form a row in a front-rear direction of the electric automobile and connected in series or in parallel, wherein each storage cell comprises: a storage element that stores a charge; a container that houses the storage element; a reception antenna that comprises a secondary self-resonant coil and receives power transmitted by the wireless power transfer system in a position where the secondary self-resonant coil moves above or below the primary self-resonant coil; and a charging control circuit that charges the storage element using the power received by the reception antenna. a plurality of storage cells disposed in the electric automobile to form a row in a front-rear direction of the electric automobile and connected in series or in parallel, wherein each storage cell comprises: a storage element that stores a charge; a container that houses the storage element; a reception antenna that comprises a secondary self-resonant coil and receives power transmitted by the wireless power transfer system in a position where the secondary self-resonant coil moves above or below the primary self-resonant coil; and a charging control circuit that charges the storage element using the power received by the reception antenna. a storage element that stores a charge; a container that houses the storage element; a reception antenna that comprises a secondary self-resonant coil and receives power transmitted by the wireless power transfer system in a position where the secondary self-resonant coil moves above or below the primary self-resonant coil; and a charging control circuit that charges the storage element using the power received by the reception antenna.
A filter device for filtering complex fluid samples, comprising: a first filter funnel having an inlet and an outlet and an internal space dimensioned to receive a volume of sample fluid to be filtered; a second filter funnel having an inlet and an outlet and an internal space dimensioned to receive the volume of sample fluid, wherein said first and second filter funnels (2,3) are sequentially arranged with a first filter medium located therebetween such that the volume of sample fluid placed in the internal space of the first filter funnel can pass through the first filter medium and be collected in the internal space of the second filter funnel; and a valve arrangement, an intermediate connector provided downstream of the first filter medium and upstream of the internal space of the second filter funnel and having a port and/or a vent for communicating the internal space of the second filter funnel with an external gas source/atmosphere via the valve arrangement, wherein the first filter medium is a pre-filter and a second filter medium is provided downstream of the outlet of the second filter funnel wherein the valve arrangement comprises a calibrated leak adapted to communicate the internal space of the second filter funnel via the port or the vent of the intermediate connector with the external gas source/atmosphere. a first filter funnel having an inlet and an outlet and an internal space dimensioned to receive a volume of sample fluid to be filtered; a second filter funnel having an inlet and an outlet and an internal space dimensioned to receive the volume of sample fluid, wherein said first and second filter funnels (2,3) are sequentially arranged with a first filter medium located therebetween such that the volume of sample fluid placed in the internal space of the first filter funnel can pass through the first filter medium and be collected in the internal space of the second filter funnel; and a valve arrangement, an intermediate connector provided downstream of the first filter medium and upstream of the internal space of the second filter funnel and having a port and/or a vent for communicating the internal space of the second filter funnel with an external gas source/atmosphere via the valve arrangement, wherein the first filter medium is a pre-filter and a second filter medium is provided downstream of the outlet of the second filter funnel
A method of determining whether a frame of a work machine is approaching a tip over point, the frame comprising first and second support arrangements each supporting a portion of the load of the frame on a surface, the method comprising the steps of: detecting a first load upon the first support arrangement using first sensing means and detecting a second load upon the second support arrangement using second sensing means; generating signals indicative of the first and second loads; communicating the signals to a controller; and wherein the controller is configured to generate an alert based upon the first and second loads when the first and/or second load signals indicate that the orientation of the work machine is approaching a tip over point; characterised in that the controller is further configured to: receive a plurality of signals over a time period from the first and second load sensing means; determine from the plurality of signals a change in at least one of the first and second loads over the time period; calculate the velocity of the movement of the load between the first and second support arrangements; and generate the alert if the velocity has reached a threshold value. detecting a first load upon the first support arrangement using first sensing means and detecting a second load upon the second support arrangement using second sensing means; generating signals indicative of the first and second loads; communicating the signals to a controller; and wherein the controller is configured to generate an alert based upon the first and second loads when the first and/or second load signals indicate that the orientation of the work machine is approaching a tip over point; characterised in that the controller is further configured to: receive a plurality of signals over a time period from the first and second load sensing means; determine from the plurality of signals a change in at least one of the first and second loads over the time period; calculate the velocity of the movement of the load between the first and second support arrangements; and generate the alert if the velocity has reached a threshold value. receive a plurality of signals over a time period from the first and second load sensing means; determine from the plurality of signals a change in at least one of the first and second loads over the time period; calculate the velocity of the movement of the load between the first and second support arrangements; and generate the alert if the velocity has reached a threshold value.
Material for a battery or an accumulator, comprising: a) carbon; b) an alloy and/or a mixture of silicon with at least one of the elements sodium or potassium and optionally at least one further metallic element and production-related impurities, wherein in the case of a mixture the elements are distributed within a silicon phase; c) a binder which binds carbon and the alloy and/or the mixture to give a solid material. a) carbon; b) an alloy and/or a mixture of silicon with at least one of the elements sodium or potassium and optionally at least one further metallic element and production-related impurities, wherein in the case of a mixture the elements are distributed within a silicon phase; c) a binder which binds carbon and the alloy and/or the mixture to give a solid material.
A fibre mat layup system for laying up and cutting fibre mats in a mould for the manufacture of a fibre-reinforced composite part, in particular a part for a wind turbine blade, such as an aerodynamic shell part, wherein the system is adapted to laying up the fibre mat as it is moved in a longitudinal direction along the mould, and wherein the system comprises: - a first drive roller for advancing the fibre mat, - a cutting device for cutting the fibre mat, - a clamping device for clamping the fibre mat, while the fibre mat is being cut by the cutting device, characterized in that the system further comprises: - a buffer roller providing a buffer length for the fibre mat and being arranged downstream of the first drive roller, the first clamping device and the cutting device, the buffer roller being movable so as to vary the buffer length of the fibre mat, and - a second drive roller for advancing the fibre mat and being arranged downstream of the buffer roller. - a first drive roller for advancing the fibre mat, - a cutting device for cutting the fibre mat, - a clamping device for clamping the fibre mat, while the fibre mat is being cut by the cutting device, characterized in that the system further comprises: - a buffer roller providing a buffer length for the fibre mat and being arranged downstream of the first drive roller, the first clamping device and the cutting device, the buffer roller being movable so as to vary the buffer length of the fibre mat, and - a second drive roller for advancing the fibre mat and being arranged downstream of the buffer roller. - a buffer roller providing a buffer length for the fibre mat and being arranged downstream of the first drive roller, the first clamping device and the cutting device, the buffer roller being movable so as to vary the buffer length of the fibre mat, and - a second drive roller for advancing the fibre mat and being arranged downstream of the buffer roller.
A method for reworking an article, comprising: forming a patch over an area of a composite structure requiring rework, the forming comprising: placing a first film-adhesive over the area of the composite structure requiring rework, wherein the first film-adhesive extends over a first surface area of the composite structure including beyond an entirety of the area requiring rework, placing a first pre-cured ply stack over the first film-adhesive, wherein the first pre-cured ply stack extends over a second surface area of the composite structure, wherein the first surface area is larger than the second surface area; placing a second film-adhesive over the first pre-cured ply stack, wherein the second film-adhesive extends over a third surface area of the composite structure, wherein the second surface area is smaller than the third surface area; and placing a second pre-cured ply stack over the second film-adhesive, wherein the second pre-cured ply stack extends over a fourth surface area of the composite structure, wherein the third surface area is smaller than the fourth surface area. placing a first film-adhesive over the area of the composite structure requiring rework, wherein the first film-adhesive extends over a first surface area of the composite structure including beyond an entirety of the area requiring rework, placing a first pre-cured ply stack over the first film-adhesive, wherein the first pre-cured ply stack extends over a second surface area of the composite structure, wherein the first surface area is larger than the second surface area; placing a second film-adhesive over the first pre-cured ply stack, wherein the second film-adhesive extends over a third surface area of the composite structure, wherein the second surface area is smaller than the third surface area; and placing a second pre-cured ply stack over the second film-adhesive, wherein the second pre-cured ply stack extends over a fourth surface area of the composite structure, wherein the third surface area is smaller than the fourth surface area.
A three-dimensional memory device, comprising: a substrate (202, 402); a memory stack (210, 434) comprising interleaved conductive layers (206, 432) and dielectric layers (208, 408) above the substrate (202, 402); a channel structure (204, 410) extending vertically through the memory stack (210, 434); a channel local contact (224, 446) above and in contact with the channel structure (204, 410); and a slit structure (226, 448) extending vertically through the memory stack (210, 434), wherein the slit structure (226, 448) comprises a sidewall, a spacer (230, 438) and a contact (228, 442), the spacer (230, 438) disposed along the sidewall of a slit opening and in etchback recesses formed in the conductive layers (206, 432), the contact (228, 442) comprising a first contact (228-1, 442-1) portion in the bottom portion of the slit structure (226, 448) and on the spacer (230, 438) and a second contact portion (228-2, 442-2) above the first contact portion (228-1, 442-1) and having a different material from the first contact portion (228-1, 442-1), wherein a width of an upper end of the second contact portion (228-2, 442-2) is greater than a width of an upper end of the first contact portion (228-1, 442-1), wherein the upper end of the second contact portion (228-2, 442-2) of the slit structure (226, 448) is flush with an upper end of the channel local contact (224, 446), characterised in that the second contact portion (228-2, 442-2) of the slit structure (108, 226, 448) and the channel local contact (224, 446) comprise a same conductive material. a substrate (202, 402); a memory stack (210, 434) comprising interleaved conductive layers (206, 432) and dielectric layers (208, 408) above the substrate (202, 402); a channel structure (204, 410) extending vertically through the memory stack (210, 434); a channel local contact (224, 446) above and in contact with the channel structure (204, 410); and a slit structure (226, 448) extending vertically through the memory stack (210, 434), wherein the slit structure (226, 448) comprises a sidewall, a spacer (230, 438) and a contact (228, 442), the spacer (230, 438) disposed along the sidewall of a slit opening and in etchback recesses formed in the conductive layers (206, 432), the contact (228, 442) comprising a first contact (228-1, 442-1) portion in the bottom portion of the slit structure (226, 448) and on the spacer (230, 438) and a second contact portion (228-2, 442-2) above the first contact portion (228-1, 442-1) and having a different material from the first contact portion (228-1, 442-1), wherein a width of an upper end of the second contact portion (228-2, 442-2) is greater than a width of an upper end of the first contact portion (228-1, 442-1), wherein the upper end of the second contact portion (228-2, 442-2) of the slit structure (226, 448) is flush with an upper end of the channel local contact (224, 446), characterised in that the second contact portion (228-2, 442-2) of the slit structure (108, 226, 448) and the channel local contact (224, 446) comprise a same conductive material.
Ship comprising at least one modular storage room for storing and handling weapons in particular, characterized in that said storage room includes individual racks (10, 11) arranged to stack on one another and lock together to form stacks of racks (6, 7, 8 and 9), a floor on which fastening means are provided for the stacks (6, 7, 8 and 9) of elongate racks for receiving weapons and means in the form of gantry cranes for said racks (10, 11), in that the racks (10, 11) are collapsible while remaining stackable, to reduce their bulk when they are empty or to make them easier to place on board a ship, including when they contain weapons, and in that one of the walls of the premise containing the storage room includes at least one weapon launching tube, the gantry crane of the racks (10, 11) being suitable for bringing a rack opposite a loading opening of a weapon into said tube and includes means for pushing and recovering the weapon in the tube. in that the racks (10, 11) are collapsible while remaining stackable, to reduce their bulk when they are empty or to make them easier to place on board a ship, including when they contain weapons, and in that one of the walls of the premise containing the storage room includes at least one weapon launching tube, the gantry crane of the racks (10, 11) being suitable for bringing a rack opposite a loading opening of a weapon into said tube and includes means for pushing and recovering the weapon in the tube.
Counter lock for an inactive leaf of a double leaf door, comprising an actuating cam coupled to a follower, an upper slider configured for being coupled to an upper rod through which the blocking of the inactive leaf at an upper blocking point is maintained when the counter lock is in a neutral position, a lower slider configured for being coupled to a lower rod through which the blocking of the inactive leaf at a lower blocking point is maintained when the counter lock is in the neutral position, both sliders (12, 15) being movable with respect to one another, the actuating cam being configured for moving at least one of the sliders (12, 15) when the follower is rotated in an opening direction causing the release of the upper and lower blocking points (A, B) of the inactive leaf, and a pusher configured for actuating a latch of a lock, with the latch being housed at least partially in the counter lock when the counter lock is in the neutral position, blocking an active leaf of the double leaf door in a central blocking point, the actuating cam being configured for actuating, in a first step, the pusher when the follower is rotated in the opening direction causing the release of the central blocking point, and to then, in a second step, moving at least one of the sliders (12, 15) unblocking the upper and lower blocking points (A, B) of the inactive leaf, the actuating cam is configured for rotating when the follower is rotated in an opening direction, the actuating cam comprising a support surface which, in the neutral position, contacts the pusher, said support surface being configured for acting on the pusher rotating it in the direction opposite the opening direction in the first step when the follower is rotated in the opening direction, characterized in that the support surface, in the neutral position, blocks the rotation of the pusher, and that the actuating cam comprises an actuating surface configured for contacting the lower slider in the second step when the actuating cam has rotated a specific angle in the opening direction from the neutral position.
A method of creating a custom, non-implantable implant sizer, the method comprising: (a) performing a computer simulation of a breast implant procedure by: (i) receiving an input comprising at least one image of at least part of the patient's body, the at least part of the patient's body comprising at least the patient's breasts; (ii) automatically generating a 3D representation of the at least part of the patient's body based on the input; (iii) visualising the 3D representation (30.1) and planning the breast implant procedure on the patient (30.2) by selecting a breast implant from a database of implants; and (iv) automatically generating a 3D simulation of the outcome of the breast implant procedure based on the 3D representation and the selected breast implant (30.3); (b) automatically determining a shape of the custom implant sizer such that the patient wearing the custom implant sizer inside a bra enables testing of the visual outcome of the simulated breast implant procedure, the shape being determined by calculating a shape to be added to the patient's existing breasts (40.1); and (c) creating the custom implant sizer in the determined shape (40.2). (a) performing a computer simulation of a breast implant procedure by: (i) receiving an input comprising at least one image of at least part of the patient's body, the at least part of the patient's body comprising at least the patient's breasts; (ii) automatically generating a 3D representation of the at least part of the patient's body based on the input; (iii) visualising the 3D representation (30.1) and planning the breast implant procedure on the patient (30.2) by selecting a breast implant from a database of implants; and (iv) automatically generating a 3D simulation of the outcome of the breast implant procedure based on the 3D representation and the selected breast implant (30.3); (i) receiving an input comprising at least one image of at least part of the patient's body, the at least part of the patient's body comprising at least the patient's breasts; (ii) automatically generating a 3D representation of the at least part of the patient's body based on the input; (iii) visualising the 3D representation (30.1) and planning the breast implant procedure on the patient (30.2) by selecting a breast implant from a database of implants; and (iv) automatically generating a 3D simulation of the outcome of the breast implant procedure based on the 3D representation and the selected breast implant (30.3); (b) automatically determining a shape of the custom implant sizer such that the patient wearing the custom implant sizer inside a bra enables testing of the visual outcome of the simulated breast implant procedure, the shape being determined by calculating a shape to be added to the patient's existing breasts (40.1); and (c) creating the custom implant sizer in the determined shape (40.2).
A grenade launcher (10, 80) comprising a support for releasably mounting the grenade launcher (10, 80) to a carrier, at least one cock that is spring biased to a lower grenade impacting position, wherein the at least one cock is configured to be rotated manually to an upper armed position, maintained manually in the upper armed position with a finger of a person handling the grenade launcher (10; 80), and manually released from the upper armed position to the lower grenade impacting position.
A composition, comprising: a gRNA molecule that targets a nucleic acid encoding a Cas9 molecule or a nucleic acid encoding a gRNA molecule that targets the nucleic acid encoding the Cas9 molecule. a gRNA molecule that targets a nucleic acid encoding a Cas9 molecule or a nucleic acid encoding a gRNA molecule that targets the nucleic acid encoding the Cas9 molecule.
A display panel comprising: a plurality of light emitting diodes, LEDs; a thin film transistor, TFT, substrate comprising a first connection pad, wherein the plurality of LEDs are disposed in a first region of an upper surface of the TFT substrate, the first connection pad is disposed in a second region of the upper surface of the TFT substrate, the first region is different from the second region, and the first connection pad is electrically connected to each of the plurality of LEDs; a transparent plate disposed on the TFT substrate, wherein the transparent plate comprises a second connection pad, the second connection pad is disposed on a lower surface of the transparent plate and is electrically connected to the first connection pad, and the lower surface of the transparent plate faces the upper surface of the TFT substrate; and characterised in that the display panel further comprises: a driver electrically connected to the second connection pad and disposed in an outer edge region of the transparent plate. a plurality of light emitting diodes, LEDs; a thin film transistor, TFT, substrate comprising a first connection pad, wherein the plurality of LEDs are disposed in a first region of an upper surface of the TFT substrate, the first connection pad is disposed in a second region of the upper surface of the TFT substrate, the first region is different from the second region, and the first connection pad is electrically connected to each of the plurality of LEDs; a transparent plate disposed on the TFT substrate, wherein the transparent plate comprises a second connection pad, the second connection pad is disposed on a lower surface of the transparent plate and is electrically connected to the first connection pad, and the lower surface of the transparent plate faces the upper surface of the TFT substrate; and characterised in that the display panel further comprises: a driver electrically connected to the second connection pad and disposed in an outer edge region of the transparent plate.