mhurhangee/ep-ind-claims huggingface dataset:
A web winding apparatus comprising: support bodies (31, 41); two rotational center members (32, 42) rotatably supported respectively by the support bodies (31, 41); two bobbins (33, 43) supported respectively by the two rotational center members (32, 42); a cutter provided movably between the bobbin on one side and the bobbin on the other side for cutting a web being transferred; characterized by a web pressing member provided movably together with the cutter and operable for pressing an end portion of the web cut with the cutter, on the bobbin (33/43) being empty to wind the end of the web on the empty bobbin (33/43); a roller provided movably together with the cutter and operable for transferring the web being transferred to come, toward the bobbins (33, 43); and two peripheral covers (34, 44) provided on the support bodies (31, 41) to be independently turnable around the rotational center members (32, 42) and respectively covering parts of outer peripheral surfaces of the webs wound on the two bobbins (33, 43), each of the peripheral covers (34, 44) having a circumferential opening (34c, 44c); wherein each of the peripheral covers (34, 44) respectively covering the bobbins (33, 43) is turnable selectively to a first position to direct the circumferential opening (34c/44c) toward the roller in winding the web on one of the bobbins (33, 43) and a second position to partition the one side of the bobbins (33, 43) and the roller side in dismounting the one of the bobbins (33, 43) from one of the rotational center members (32, 42). support bodies (31, 41); two rotational center members (32, 42) rotatably supported respectively by the support bodies (31, 41); two bobbins (33, 43) supported respectively by the two rotational center members (32, 42); a cutter provided movably between the bobbin on one side and the bobbin on the other side for cutting a web being transferred; characterized by a web pressing member provided movably together with the cutter and operable for pressing an end portion of the web cut with the cutter, on the bobbin (33/43) being empty to wind the end of the web on the empty bobbin (33/43); a roller provided movably together with the cutter and operable for transferring the web being transferred to come, toward the bobbins (33, 43); and two peripheral covers (34, 44) provided on the support bodies (31, 41) to be independently turnable around the rotational center members (32, 42) and respectively covering parts of outer peripheral surfaces of the webs wound on the two bobbins (33, 43), each of the peripheral covers (34, 44) having a circumferential opening (34c, 44c); wherein each of the peripheral covers (34, 44) respectively covering the bobbins (33, 43) is turnable selectively to a first position to direct the circumferential opening (34c/44c) toward the roller in winding the web on one of the bobbins (33, 43) and a second position to partition the one side of the bobbins (33, 43) and the roller side in dismounting the one of the bobbins (33, 43) from one of the rotational center members (32, 42).
A disposable endoscope comprising: a tubular part including a plurality of joints; linear transmission parts inserted into the tubular part, wherein one end of the linear transmission part is fixed with respect to one of the joints, the other end is provided with first connectors, a movement of the linear transmission part along its length direction is able to cause the tubular part to bend, and the first connector is used to detachably engage with corresponding connector of an external control seat; a camera unit mounted on a front end of the tubular part; a wire harness, wherein one end of the wire harness is connected with the camera unit, the other end is used to be connected with an external power supply and a data processing device, and the wire harness is used to provide the camera unit with power and transmit image data collected; a cladding layer cladding the tubular part, the extending linear transmission parts and the wire harness; a connection head arranged at one end of the linear transmission parts away from the tubular part, wherein the connection head is provided with through holes through which the first connectors pass; and a disposable fastener which is used to fix the first connectors with respect to the connection head, wherein after the disposable fastener is removed, the first connectors are able to be moved in the through hole of the connection head along their length direction. a tubular part including a plurality of joints; linear transmission parts inserted into the tubular part, wherein one end of the linear transmission part is fixed with respect to one of the joints, the other end is provided with first connectors, a movement of the linear transmission part along its length direction is able to cause the tubular part to bend, and the first connector is used to detachably engage with corresponding connector of an external control seat; a camera unit mounted on a front end of the tubular part; a wire harness, wherein one end of the wire harness is connected with the camera unit, the other end is used to be connected with an external power supply and a data processing device, and the wire harness is used to provide the camera unit with power and transmit image data collected; a cladding layer cladding the tubular part, the extending linear transmission parts and the wire harness; a connection head arranged at one end of the linear transmission parts away from the tubular part, wherein the connection head is provided with through holes through which the first connectors pass; and a disposable fastener which is used to fix the first connectors with respect to the connection head, wherein after the disposable fastener is removed, the first connectors are able to be moved in the through hole of the connection head along their length direction.
Method of manufacturing an object having an integrated contactless microcircuit (IC1, IC2, IC3), the method comprising the steps of: forming an antenna coil (AT1, AT2, AT7) in the shape of a spiral on a first side of a substrate (TG3-TG6, TG12, TG13), the antenna coil comprising an end inside the spiral and an end outside the spiral, providing a contactless microcircuit (IC1, IC2, IC3) comprising connection terminals, forming, on the first side of the substrate, first (E2, E5, E22) and second (E4, E6, E9, E11, E24) conductive pads connected to the inner and outer ends of the antenna coil, respectively, and fixing the microcircuit on the substrate by connecting the connection terminals of the microcircuit to third (E2', E5', E22') and fourth (E4', E25) conductive pads, the second and fourth conductive pads being arranged opposite one another so as to form a capacitor connected in series with the antenna coil, the method further comprising a step of forming the third conductive pad (E2', E5', E22') on a second side of the substrate (TG3-TG6, TG12, TG13) opposite the first conductive pad (E2, E5, E22) so as to form, together with the first conductive pad, a capacitor connected in series with the antenna coil, characterized in that the second conductive pad comprises a non-conductive window opposite which the microcircuit is placed. forming an antenna coil (AT1, AT2, AT7) in the shape of a spiral on a first side of a substrate (TG3-TG6, TG12, TG13), the antenna coil comprising an end inside the spiral and an end outside the spiral, providing a contactless microcircuit (IC1, IC2, IC3) comprising connection terminals, forming, on the first side of the substrate, first (E2, E5, E22) and second (E4, E6, E9, E11, E24) conductive pads connected to the inner and outer ends of the antenna coil, respectively, and fixing the microcircuit on the substrate by connecting the connection terminals of the microcircuit to third (E2', E5', E22') and fourth (E4', E25) conductive pads, the second and fourth conductive pads being arranged opposite one another so as to form a capacitor connected in series with the antenna coil, the method further comprising a step of forming the third conductive pad (E2', E5', E22') on a second side of the substrate (TG3-TG6, TG12, TG13) opposite the first conductive pad (E2, E5, E22) so as to form, together with the first conductive pad, a capacitor connected in series with the antenna coil, characterized in that the second conductive pad comprises a non-conductive window opposite which the microcircuit is placed.
An apparatus for performing a medical procedure in the vasculature, comprising: an inflatable perfusion balloon including a passage for transmitting fluid flowing through the vasculature in an inflated condition of the balloon; and a wire mesh having an open texture with spaced holes the wire mesh positioned over at least a portion of the inflatable perfusion balloon and allowing fluid to flow through the wire mesh. into the passage when the balloon is inflated, the wire mesh provided as a wire sock or a sleeve comprising a shape memory material or a compressive mesh. an inflatable perfusion balloon including a passage for transmitting fluid flowing through the vasculature in an inflated condition of the balloon; and a wire mesh having an open texture with spaced holes the wire mesh positioned over at least a portion of the inflatable perfusion balloon and allowing fluid to flow through the wire mesh. into the passage when the balloon is inflated, the wire mesh provided as a wire sock or a sleeve comprising a shape memory material or a compressive mesh.
A PSA comprising: an acrylic-hydrocarbon graft copolymer wherein the acrylic-hydrocarbon graft copolymer comprises an acrylic monomer copolymerized with a hydrocarbon macromonomer; a hydrocarbon oligomer; and a hydrocarbon polymer, wherein the hydrocarbon macromonomer is selected from ethylene-butylene macromers, ethylene-propylene macromers, ethylene-butylene-propylene macromers, and isobutylene macromers, and wherein the hydrocarbon macromonomer contains a reactive acrylic or methacrylic end group, wherein the hydrocarbon oligomer and the hydrocarbon polymer are selected from oligomers and polymers of ethylene, propylene, butadiene, isoprene, isobutylene, hexene, octene, and mixtures thereof, and wherein either one or both of the hydrocarbon oligomer and the hydrocarbon polymer contain reactive sites selected from anhydride, aldehyde, ketone, acetate, amine, amide, aziridine, epoxide, mercapto, and mixtures thereof. an acrylic-hydrocarbon graft copolymer wherein the acrylic-hydrocarbon graft copolymer comprises an acrylic monomer copolymerized with a hydrocarbon macromonomer; a hydrocarbon oligomer; and a hydrocarbon polymer, wherein the hydrocarbon macromonomer is selected from ethylene-butylene macromers, ethylene-propylene macromers, ethylene-butylene-propylene macromers, and isobutylene macromers, and wherein the hydrocarbon macromonomer contains a reactive acrylic or methacrylic end group, wherein the hydrocarbon oligomer and the hydrocarbon polymer are selected from oligomers and polymers of ethylene, propylene, butadiene, isoprene, isobutylene, hexene, octene, and mixtures thereof, and wherein either one or both of the hydrocarbon oligomer and the hydrocarbon polymer contain reactive sites selected from anhydride, aldehyde, ketone, acetate, amine, amide, aziridine, epoxide, mercapto, and mixtures thereof.
Rotation angle sensor containing at least one coil which is provided with turns, as well as an element which interacts with it, is magnetically permeable, can rotate with a shaft for transmission of the rotary movement to be sensed, and has a different coverage degree with at least one magnetically permeable body depending on its rotation position, with the magnetically permeable element always being arranged outside an area that is surrounded by the coil in every rotation position, and with the magnetically permeable body being U-shaped, with two limbs (10, 12) which form an intermediate space between them, and with a lateral web connecting them, characterized in that the magnetically permeable body has bearing points for the shaft in the area of the ends of its limbs (10, 12).
A contact that is configured to be inserted into a housing, the contact comprising: a pair of side walls (12A, 12B) provided on each of right and left sides of the contact; a front end upper wall and a rear end upper wall, each comprising a pair of upper walls (13A, 13B; 13A', 13B'), positioned on top of each other, that are joined to, and extend continuously from the right-side and left-side side walls (12A, 12B), respectively; a lance that extends continuously rearwardly from a rear end of the upper wall of the pair of front end upper walls (13A, 13B) that is located uppermost of these two walls (13A, 13B), the lance having at a rear end portion thereof, a catch portion configured to be engaged by a housing when the contact is inserted into the housing to prevent the contact from being pulled out of the housing; and an extension piece that is folded downwardly from a side of the rear end portion of the lance, and is further folded so that a part thereof is located under the rear end portion, the extension piece extending continuously further rearwardly from the rear end portion, characterized in that a part of the extension piece is positioned under the pair of the rear end upper walls (13A', 13B') of the rear end upper wall. a pair of side walls (12A, 12B) provided on each of right and left sides of the contact; a front end upper wall and a rear end upper wall, each comprising a pair of upper walls (13A, 13B; 13A', 13B'), positioned on top of each other, that are joined to, and extend continuously from the right-side and left-side side walls (12A, 12B), respectively; a lance that extends continuously rearwardly from a rear end of the upper wall of the pair of front end upper walls (13A, 13B) that is located uppermost of these two walls (13A, 13B), the lance having at a rear end portion thereof, a catch portion configured to be engaged by a housing when the contact is inserted into the housing to prevent the contact from being pulled out of the housing; and an extension piece that is folded downwardly from a side of the rear end portion of the lance, and is further folded so that a part thereof is located under the rear end portion, the extension piece extending continuously further rearwardly from the rear end portion, characterized in that a part of the extension piece is positioned under the pair of the rear end upper walls (13A', 13B') of the rear end upper wall.
A computer implemented method of orthodontic treatment planning with a comparative orthodontic treatment planning tool, the method comprising: receiving at the treatment planning tool a plurality of treatment plans, each of the plurality of treatment plans configured to, in use, move teeth from an initial to a final arrangement, the difference between final arrangements of respective plans differing from one another based on one or more treatment factors; providing for a user to select one or more initial treatment factors; displaying a first treatment plan from the plurality of received treatment plans that is associated with the initial treatment factors selected by the user; providing for the user to select one or more intermediate treatment factors; displaying a second treatment plan from the plurality of received treatment plans that is associated with the intermediate treatment factors selected by the user; providing for the user to compare tooth positioning of a treatment stage from the first treatment plan and tooth positioning of a treatment stage from the second treatment plan by displaying the two treatment stages on a screen simultaneously; and providing for the user to select one of the first treatment plans and the second treatment plan based on said comparison. receiving at the treatment planning tool a plurality of treatment plans, each of the plurality of treatment plans configured to, in use, move teeth from an initial to a final arrangement, the difference between final arrangements of respective plans differing from one another based on one or more treatment factors; providing for a user to select one or more initial treatment factors; displaying a first treatment plan from the plurality of received treatment plans that is associated with the initial treatment factors selected by the user; providing for the user to select one or more intermediate treatment factors; displaying a second treatment plan from the plurality of received treatment plans that is associated with the intermediate treatment factors selected by the user; providing for the user to compare tooth positioning of a treatment stage from the first treatment plan and tooth positioning of a treatment stage from the second treatment plan by displaying the two treatment stages on a screen simultaneously; and providing for the user to select one of the first treatment plans and the second treatment plan based on said comparison.
A system comprising: power down hardware (109, 309) coupled to internal wiring of a premises to selectively power down a portion of the internal wiring on request; and at least one hardware device (101, 201) to transmit a request to the power down hardware (109, 309) to selectively power down a portion of the internal wiring on request and to transmit data using power line communication hardware of the at least one hardware device (101, 201) while the portion of the internal wiring is powered down, wherein the at least one hardware device (101, 201) and/or the power down hardware (109, 309) includes a sensor (209, 311) to sense noise on the internal wiring, wherein the power down hardware (109, 309) includes shutoff hardware coupled to a circuit breaker panel to selectively turn off one or more circuits at the circuit breaker panel, and wherein the request to the power down hardware (109, 309) includes a desired noise floor and the power down hardware selectively turns off circuits at the circuit breaker panel to achieve the desired noise floor. power down hardware (109, 309) coupled to internal wiring of a premises to selectively power down a portion of the internal wiring on request; and at least one hardware device (101, 201) to transmit a request to the power down hardware (109, 309) to selectively power down a portion of the internal wiring on request and to transmit data using power line communication hardware of the at least one hardware device (101, 201) while the portion of the internal wiring is powered down, wherein the at least one hardware device (101, 201) and/or the power down hardware (109, 309) includes a sensor (209, 311) to sense noise on the internal wiring, wherein the power down hardware (109, 309) includes shutoff hardware coupled to a circuit breaker panel to selectively turn off one or more circuits at the circuit breaker panel, and wherein the request to the power down hardware (109, 309) includes a desired noise floor and the power down hardware selectively turns off circuits at the circuit breaker panel to achieve the desired noise floor.
An electrosurgical instrument for ablating biological tissue, the electrosurgical instrument comprising: a tissue treatment portion for contacting the biological tissue to be treated, and a handle connected to the tissue treatment portion via a flexible cable, wherein the tissue treatment portion forms a distal end assembly suitable for insertion through an instrument channel of a surgical scoping device; wherein the tissue treatment portion comprises: a microwave power source comprising a power amplifier arranged to generate microwave energy suitable for ablating biological tissue; and a radiating structure connected to the microwave power source and configured to deliver the microwave energy into the biological tissue, wherein the power amplifier is connected to the radiating structure by a tunable transmission line. a tissue treatment portion for contacting the biological tissue to be treated, and a handle connected to the tissue treatment portion via a flexible cable, wherein the tissue treatment portion forms a distal end assembly suitable for insertion through an instrument channel of a surgical scoping device; wherein the tissue treatment portion comprises: a microwave power source comprising a power amplifier arranged to generate microwave energy suitable for ablating biological tissue; and a radiating structure connected to the microwave power source and configured to deliver the microwave energy into the biological tissue, wherein the power amplifier is connected to the radiating structure by a tunable transmission line. a microwave power source comprising a power amplifier arranged to generate microwave energy suitable for ablating biological tissue; and a radiating structure connected to the microwave power source and configured to deliver the microwave energy into the biological tissue, wherein the power amplifier is connected to the radiating structure by a tunable transmission line.
An isolated monoclonal antibody or antigen binding fragment thereof, that binds to human LOX-1 comprising (i) a heavy chain variable region CDR1 of SEQ ID NO: 303; CDR2 of SEQ ID NO: 304; CDR3 of SEQ ID NO: 305; a light chain variable region CDR1 of SEQ ID NO: 313; CDR2 of SEQ ID NO: 314; and CDR3 of SEQ ID NO: 315, or (ii) a heavy chain variable region CDR1 of SEQ ID NO: 306; CDR2 of SEQ ID NO: 307; CDR3 of SEQ ID NO: 308; a light chain variable region CDR1 of SEQ ID NO: 316; CDR2 of SEQ ID NO: 317; and CDR3 of SEQ ID NO: 318, wherein the antibody or fragment comprises a VH chain comprising the amino acid sequence of SEQ ID NO: 309 or an amino acid sequence with at least 95% identity thereto; and a VL chain comprising the amino acid sequence of SEQ ID NO: 319 or an amino acid sequence with at least 95% identity thereto, and wherein the isolated monoclonal antibody or antigen binding fragment thereof binds human LOX-1 with a KD of less than or equal to 34 pM as measured by surface plasmon resonance or less than or equal to 4 pM, as measured by solution equilibrium titration assay. (i) a heavy chain variable region CDR1 of SEQ ID NO: 303; CDR2 of SEQ ID NO: 304; CDR3 of SEQ ID NO: 305; a light chain variable region CDR1 of SEQ ID NO: 313; CDR2 of SEQ ID NO: 314; and CDR3 of SEQ ID NO: 315, or (ii) a heavy chain variable region CDR1 of SEQ ID NO: 306; CDR2 of SEQ ID NO: 307; CDR3 of SEQ ID NO: 308; a light chain variable region CDR1 of SEQ ID NO: 316; CDR2 of SEQ ID NO: 317; and CDR3 of SEQ ID NO: 318, wherein the antibody or fragment comprises a VH chain comprising the amino acid sequence of SEQ ID NO: 309 or an amino acid sequence with at least 95% identity thereto; and a VL chain comprising the amino acid sequence of SEQ ID NO: 319 or an amino acid sequence with at least 95% identity thereto, and wherein the isolated monoclonal antibody or antigen binding fragment thereof binds human LOX-1 with a KD of less than or equal to 34 pM as measured by surface plasmon resonance or less than or equal to 4 pM, as measured by solution equilibrium titration assay.
A multi-function core for treating a tissue site, comprising: a contact layer comprising collagen and configured to be positioned adjacent to the tissue site; a wicking layer adjacent to the contact layer; an ion exchange layer adjacent to the wicking layer; an absorbing layer adjacent to the ion exchange layer; and a blocking layer arranged to prevent liquid flow through the blocking layer by creating a pressure barrier for liquid movement, the blocking layer positioned adjacent to the absorbing layer; wherein each of the contact layer, the wicking layer, the ion exchange layer, the absorbing layer, and the blocking layer are formed from a plurality of fibers. a contact layer comprising collagen and configured to be positioned adjacent to the tissue site; a wicking layer adjacent to the contact layer; an ion exchange layer adjacent to the wicking layer; an absorbing layer adjacent to the ion exchange layer; and a blocking layer arranged to prevent liquid flow through the blocking layer by creating a pressure barrier for liquid movement, the blocking layer positioned adjacent to the absorbing layer; wherein each of the contact layer, the wicking layer, the ion exchange layer, the absorbing layer, and the blocking layer are formed from a plurality of fibers.