mhurhangee/ep-ind-claims huggingface dataset:
Container designed to store used tyres and to dump them by gravity into a skip, the container comprising a vessel (Cv) with an open bottom, a chassis (Ch) comprising an openable floor for the vessel (Cv), said floor comprising a frame (Cd), under which two flaps (Vt1, Vt2) are mounted in an articulated manner, the two flaps being mounted in an opposed manner between a closed position forming the floor for said vessel and an open position in which they are oriented towards the bottom, each flap (Vt) comprising a support frame (Cs) covered by a plate (Pq), characterized in that the chassis (Ch) is provided with a pair of locks (Vr) designed to block a flap (Vt1 or Vt2) in its closed position, each lock (Vr) comprising a lever (Lv) which is mounted at one of its ends in an articulated manner, by a pin, on a front or dorsal longitudinal member making up the frame (Cd) and which projects by its other end beyond a lateral side of the container, the two levers (Lv) being connected by an operating bar (Bm), each log (Vr) comprising, on the articulation pin side, a cam (Cm) followed by a housing (Lg) configured to receive and block a locking pin (Gt) secured to a front or dorsal longitudinal member (L2') making up said support frame (Cs) of said flap, the two flaps (Vt1, Vt2) being provided with a mechanical connection means active only in their closed position and comprising two end pieces (Bt) which are respectively mounted in the two ends of the two front and dorsal longitudinal members (L2') of the support frame (Cs) of a flap and which are dimensioned so as to fit into the two ends of the two front and dorsal longitudinal members (L2') of the support frame (Cs) of the other flap, during the closure of the two flaps (Vt), and in that the two flaps (Vt1, Vt2) are respectively mounted in an articulated manner under the two lateral longitudinal members making up the frame (Cd) by means of at least one pin, each pin being mounted through a first pair of clevises fastened under the lower face of said lateral longitudinal member of the frame (Cd) and through a second pair of clevises fastened laterally on a lateral longitudinal member making up the support frame (Cs), wherein the second pair of clevises is nested in the first pair of clevises, and in that a torsion spring (Mr) is mounted on the pin between each second pair of clevises.
A method, comprising: in a low power and lossy network, LLN, comprising a plurality of devices, determining, by a sender device, that data for transmission to a receiver device is capable of being transmitted via a low-power channel; determining, by the sender device, if the receiver device is listening on a low- power channel hopping schedule sufficient to transmit the data to the receiver device; in response to determining that the receiver device is not listening on a low- power channel hopping schedule sufficient to transmit the data to the receiver device, transmitting, by the sender device, a control message to the receiver device via a channel-hopping schedule of the receiver device, wherein the control message instructs the receiver device to listen on the low-power channel hopping sequence; and transmitting, by the sender device, the data to the receiver device via the low- power channel hopping schedule. in a low power and lossy network, LLN, comprising a plurality of devices, determining, by a sender device, that data for transmission to a receiver device is capable of being transmitted via a low-power channel; determining, by the sender device, if the receiver device is listening on a low- power channel hopping schedule sufficient to transmit the data to the receiver device; in response to determining that the receiver device is not listening on a low- power channel hopping schedule sufficient to transmit the data to the receiver device, transmitting, by the sender device, a control message to the receiver device via a channel-hopping schedule of the receiver device, wherein the control message instructs the receiver device to listen on the low-power channel hopping sequence; and transmitting, by the sender device, the data to the receiver device via the low- power channel hopping schedule.
An input device comprising: a communication subsystem configured to provide bidirectional communication with a computing device; a force feedback trigger assembly (206; 400), including: a user-actuatable trigger (208; 404) configured to pivot about a trigger axis responsive to an applied external force; and an encoder (210; 424) communicatively coupled to the communication subsystem and configured to send a pull parameter representing a movement of the user-actuatable trigger to the computing device via the communication subsystem; and a trigger vibrator (214; 426; 500; 510) directly coupled to the force feedback trigger assembly and communicatively coupled to the communication subsystem, the trigger vibrator configured to vibrate the user-actuatable trigger responsive to a vibration signal received from the computing device via the communication subsystem; characterized in that the force feedback trigger assembly further includes a trigger actuator (212; 406; 502; 512) directly coupled between the user-actuatable trigger and the encoder, the trigger actuator being configured to pivot about an actuator axis, and the trigger actuator being further configured to translate pivoting of the user-actuatable trigger to the encoder, and wherein the trigger vibrator is directly coupled to the trigger actuator. a communication subsystem configured to provide bidirectional communication with a computing device; a force feedback trigger assembly (206; 400), including: a user-actuatable trigger (208; 404) configured to pivot about a trigger axis responsive to an applied external force; and an encoder (210; 424) communicatively coupled to the communication subsystem and configured to send a pull parameter representing a movement of the user-actuatable trigger to the computing device via the communication subsystem; and a user-actuatable trigger (208; 404) configured to pivot about a trigger axis responsive to an applied external force; and an encoder (210; 424) communicatively coupled to the communication subsystem and configured to send a pull parameter representing a movement of the user-actuatable trigger to the computing device via the communication subsystem; and a trigger vibrator (214; 426; 500; 510) directly coupled to the force feedback trigger assembly and communicatively coupled to the communication subsystem, the trigger vibrator configured to vibrate the user-actuatable trigger responsive to a vibration signal received from the computing device via the communication subsystem; characterized in that the force feedback trigger assembly further includes a trigger actuator (212; 406; 502; 512) directly coupled between the user-actuatable trigger and the encoder, the trigger actuator being configured to pivot about an actuator axis, and the trigger actuator being further configured to translate pivoting of the user-actuatable trigger to the encoder, and wherein the trigger vibrator is directly coupled to the trigger actuator.
A non-aqueous electrolyte secondary battery, comprising: a bottomed cylindrical case body having an opening; a wound-type electrode group that is housed in the case body, and in which a positive electrode plate and a negative electrode plate are wound with a separator interposed therebetween; and at least one tape (40,41,40a,41a) that is attached to an outermost peripheral surface of the electrode group to fix a winding-finish end of the electrode group to the outermost peripheral surface of the electrode group, wherein a current collector of the negative electrode plate is exposed on at least a part of the outermost peripheral surface of the electrode group in a winding direction, and the current collector contacts the case body, the tape (40,41,40a,41a) includes a base material layer, and an adhesive layer that is disposed continuously in the winding direction on a winding inner surface of the base material layer, characterized in that the tape (40,41,40a,41a) is attached to at least one of both end portions of the electrode group in a winding axis direction, and in that a region of the tape (40,41,40a,41a) as viewed from the winding inner surface is divided into a first region (42,42a) formed by the base material layer and a second region (43,43a) formed by the base material layer and the adhesive layer, in the winding axis direction (α) of the electrode group, the first region (42,42a) is disposed at least in an end portion of the tape (40, 41, 40a, 41a) on a center side of the electrode group, and is adjacent to the second region (43,43a). a bottomed cylindrical case body having an opening; a wound-type electrode group that is housed in the case body, and in which a positive electrode plate and a negative electrode plate are wound with a separator interposed therebetween; and at least one tape (40,41,40a,41a) that is attached to an outermost peripheral surface of the electrode group to fix a winding-finish end of the electrode group to the outermost peripheral surface of the electrode group, wherein a current collector of the negative electrode plate is exposed on at least a part of the outermost peripheral surface of the electrode group in a winding direction, and the current collector contacts the case body, the tape (40,41,40a,41a) includes a base material layer, and an adhesive layer that is disposed continuously in the winding direction on a winding inner surface of the base material layer, characterized in that the tape (40,41,40a,41a) is attached to at least one of both end portions of the electrode group in a winding axis direction, and in that a region of the tape (40,41,40a,41a) as viewed from the winding inner surface is divided into a first region (42,42a) formed by the base material layer and a second region (43,43a) formed by the base material layer and the adhesive layer, in the winding axis direction (α) of the electrode group, the first region (42,42a) is disposed at least in an end portion of the tape (40, 41, 40a, 41a) on a center side of the electrode group, and is adjacent to the second region (43,43a).
An anti-EphA4 antibody or an EphA4-binding fragment thereof, comprising (a) CDR-H1 comprising the amino acid sequence represented by SEQ ID NO: 27; (b) CDR-H2 comprising the amino acid sequence represented by SEQ ID NO: 29; (c) CDR-H3 comprising the amino acid sequence represented by SEQ ID NO: 30; (d) CDR-L1 comprising the amino acid sequence represented by SEQ ID NO: 31; (e) CDR-L2 comprising the amino acid sequence represented by SEQ ID NO: 32; and (f) CDR-L3 comprising the amino acid sequence represented by SEQ ID NO: 33. (a) CDR-H1 comprising the amino acid sequence represented by SEQ ID NO: 27; (b) CDR-H2 comprising the amino acid sequence represented by SEQ ID NO: 29; (c) CDR-H3 comprising the amino acid sequence represented by SEQ ID NO: 30; (d) CDR-L1 comprising the amino acid sequence represented by SEQ ID NO: 31; (e) CDR-L2 comprising the amino acid sequence represented by SEQ ID NO: 32; and (f) CDR-L3 comprising the amino acid sequence represented by SEQ ID NO: 33.
A polymer composition comprising an epoxy resin E1, said epoxy E1 is solid at a temperature below 70°C, and a multi stage polymer, wherein the multi stage polymer makes up at least 40%. an epoxy resin E1, said epoxy E1 is solid at a temperature below 70°C, and a multi stage polymer,
An insertion device (100; 200), comprising: an elongate member (110; 210) having a proximal end portion (112; 212), a distal end portion (113; 213), and defining a lumen therethrough, the elongate member (110; 210) including a curved portion (111; 211) between the proximal end portion (112; 212) and the distal end portion (113; 213), the lumen being configured to receive a portion of a tissue anchor (190; 290) to removably couple the tissue anchor (190; 290) to the distal end portion (113; 213); the proximal end portion (112; 212) including a handle (170; 270) defining a longitudinal axis (XX-XX, A-A); and a stylet having a proximal end portion, a distal end portion and being configured to move proximally from a first position to a second position with respect to the elongate member (110; 210), the stylet configured to engage the tissue anchor (190; 290) to remove the tissue anchor (190; 290) from the elongate member (110; 210): when the stylet is moved from its second position to its first position; wherein the stylet is configured such that, when the stylet is in the second position, the distal end portion of the stylet is offset from a longitudinal axis (YY-YY; B-B) defined by the distal end portion (113; 213) of the elongate member (110; 210), which is angled with respect to the longitudinal axis (XX-XX; A-A) defined by the proximal end portion (112; 212) of the elongate member (110; 210). an elongate member (110; 210) having a proximal end portion (112; 212), a distal end portion (113; 213), and defining a lumen therethrough, the elongate member (110; 210) including a curved portion (111; 211) between the proximal end portion (112; 212) and the distal end portion (113; 213), the lumen being configured to receive a portion of a tissue anchor (190; 290) to removably couple the tissue anchor (190; 290) to the distal end portion (113; 213); the proximal end portion (112; 212) including a handle (170; 270) defining a longitudinal axis (XX-XX, A-A); and a stylet having a proximal end portion, a distal end portion and being configured to move proximally from a first position to a second position with respect to the elongate member (110; 210), the stylet configured to engage the tissue anchor (190; 290) to remove the tissue anchor (190; 290) from the elongate member (110; 210): when the stylet is moved from its second position to its first position; wherein the stylet is configured such that, when the stylet is in the second position, the distal end portion of the stylet is offset from a longitudinal axis (YY-YY; B-B) defined by the distal end portion (113; 213) of the elongate member (110; 210), which is angled with respect to the longitudinal axis (XX-XX; A-A) defined by the proximal end portion (112; 212) of the elongate member (110; 210).
A sensor for detection of a level of Radio Frequency radiation comprising a paper based substrate; said paper based substrate includes conductive nanoparticles of gold embedded inside the substrate and a conductive patch of silver paste on the substrate configured to operate as detection element for detection of RF radiation and generation of voltage signal based thereon. a paper based substrate; said paper based substrate includes conductive nanoparticles of gold embedded inside the substrate and a conductive patch of silver paste on the substrate configured to operate as detection element for detection of RF radiation and generation of voltage signal based thereon.
Crop transfer device for transferring crop, in particular root crop, to a receptacle, the device comprising a conveyor for transferring the crop, the conveyor defining a conveyor plane, the conveyor having a conveyor outlet defining an outlet direction which is the direction of the crop falling from the conveyor at the conveyor outlet, the crop transfer device comprising a scanning device adapted to scan the surface of crop situated below the conveyor outlet, the crop transfer device comprising a mounting device by which the scanning device is mounted to the conveyor with a translational mobility of the scanning device with respect to the conveyor along a path, characterized in that the mounting device comprises a mounting arm rotationally linked to the conveyor around a mounting axis of rotation (x - x) and in that the scanning device is attached to the mounting arm at a distance to the mounting axis of rotation so that the path has an arc shape.
A handheld field maintenance tool used for training purposes comprising: a process communication module (121, 138) operably coupleable to a field device; a user interface (120, 122, 156); and a controller coupled to the process communication module and the user interface (120, 122, 156), the controller being configured to interact with a user through the user interface (120, 122, 156), the controller also being configured to provide a simulation function, characterised in that during the simulation function at least one characteristic of the field device, indicated through the user interface (120, 122, 156), is generated by the controller instead of the field device, where these at least one characteristics are responses which are part of one or more scenarios being executed during the simulation and at least one characteristic of the field device, indicated through the user interface (120, 122, 156), is provided by the field device where these at least one characteristics are responses based upon actual live communication with the field device. a process communication module (121, 138) operably coupleable to a field device; a user interface (120, 122, 156); and a controller coupled to the process communication module and the user interface (120, 122, 156), the controller being configured to interact with a user through the user interface (120, 122, 156), the controller also being configured to provide a simulation function, characterised in that during the simulation function at least one characteristic of the field device, indicated through the user interface (120, 122, 156), is generated by the controller instead of the field device, where these at least one characteristics are responses which are part of one or more scenarios being executed during the simulation and at least one characteristic of the field device, indicated through the user interface (120, 122, 156), is provided by the field device where these at least one characteristics are responses based upon actual live communication with the field device.
A method of performing a beamforming by a base station in a wireless communication system, the method comprising: setting a minimum gain α to be obtained through an analog beam; determining an effective range Δ θ which corresponds to an angle of the analog beam where a gain of an analog beamforming in a hybrid beamforming becomes equal to or greater than the minimum gain α; determining a precoding matrix for a digital beamforming in the hybrid beamforming such that the digital beamforming is performed within the effective range of the analog beam; and performing the hybrid beamforming in which the digital beamforming and the analog beamforming are coupled, based on the effective range and the precoding matrix, wherein the effective range Δ θ is determined based on a formula Δ ⁢ θ = α λ N t RF − 1 d, where ' N t RF ' denotes a number of antenna elements per a radio frequency chain performing the analog beamforming, and 'd' denotes a distance between the antenna elements and ' λ ' denotes an antenna wavelength. setting a minimum gain α to be obtained through an analog beam; determining an effective range Δ θ which corresponds to an angle of the analog beam where a gain of an analog beamforming in a hybrid beamforming becomes equal to or greater than the minimum gain α; determining a precoding matrix for a digital beamforming in the hybrid beamforming such that the digital beamforming is performed within the effective range of the analog beam; and performing the hybrid beamforming in which the digital beamforming and the analog beamforming are coupled, based on the effective range and the precoding matrix, wherein the effective range Δ θ is determined based on a formula Δ ⁢ θ = α λ N t RF − 1 d, where ' N t RF ' denotes a number of antenna elements per a radio frequency chain performing the analog beamforming, and 'd' denotes a distance between the antenna elements and ' λ ' denotes an antenna wavelength.
A method for establishing a direct tunnel, comprising the steps of: determining, by a mobility management network element, that a character of a user terminal satisfies a preset condition for establishing a direct tunnel; sending a request message to a gateway to establish a downlink direct tunnel between a radio access network and the gateway; and receiving a response message sent by the gateway to confirm that the downlink direct tunnel between the radio access network and the gateway has been successfully established; characterized in that the determining, by the mobility management network element, that the character of the user terminal satisfies the preset condition for establishing a direct tunnel comprises: counting, by the mobility management network element, a frequency of switch between a connected state and a idle state of the user terminal; and determining that the frequency falls in a preset frequency range. determining, by a mobility management network element, that a character of a user terminal satisfies a preset condition for establishing a direct tunnel; sending a request message to a gateway to establish a downlink direct tunnel between a radio access network and the gateway; and receiving a response message sent by the gateway to confirm that the downlink direct tunnel between the radio access network and the gateway has been successfully established; characterized in that the determining, by the mobility management network element, that the character of the user terminal satisfies the preset condition for establishing a direct tunnel comprises: counting, by the mobility management network element, a frequency of switch between a connected state and a idle state of the user terminal; and determining that the frequency falls in a preset frequency range. counting, by the mobility management network element, a frequency of switch between a connected state and a idle state of the user terminal; and determining that the frequency falls in a preset frequency range.
A sliding member comprising a base layer and a coating layer provided on the base layer and having a sliding surface on which a counter material slides, wherein the coating layer is formed of Bi and is softer than the base layer; and in the sliding surface, Bi crystal grains of the soft material having an average grain diameter of 0.1 μm or more and 1 μm or less are aggregated into lumps, thereby forming aggregates having an average diameter of 3 μm or more and 30 μm or less.
An electric system with switched cells comprising: a power supply bus; an assembly of electric cells (Acc 1) and of first switches (S 1, B 1) coupling the cells together; second switches (HG, HD, BG, BD) forming an H bridge and coupling said assembly to nodes (V+, V-); a first circuit for supplying first control signals (CmdHG, CmdHD, CmdBG, CmdBD, CmdS 1, CmdB 1) to the first switches and to the second switches; a second circuit for delivering a first power supply voltage (ALIM1) to the first circuit based on the voltage (V 1) across one of the cells; a third circuit (38, SW) for supplying second control signals (ALIM2) to at least two of the second switches (BG, BD) and connected to the power supply bus; and first diodes (D BD1, D BG1) coupling the first circuit to said at least two of the second switches and second diodes (D BD2, D BG2) coupling the third circuit to said at least two of the second switches. a power supply bus; an assembly of electric cells (Acc 1) and of first switches (S 1, B 1) coupling the cells together; second switches (HG, HD, BG, BD) forming an H bridge and coupling said assembly to nodes (V+, V-); a first circuit for supplying first control signals (CmdHG, CmdHD, CmdBG, CmdBD, CmdS 1, CmdB 1) to the first switches and to the second switches; a second circuit for delivering a first power supply voltage (ALIM1) to the first circuit based on the voltage (V 1) across one of the cells; a third circuit (38, SW) for supplying second control signals (ALIM2) to at least two of the second switches (BG, BD) and connected to the power supply bus; and first diodes (D BD1, D BG1) coupling the first circuit to said at least two of the second switches and second diodes (D BD2, D BG2) coupling the third circuit to said at least two of the second switches.