mhurhangee/ep-ind-claims huggingface dataset:
A radio frequency identification (RFID) automatic vehicle identification system configured to mitigate signal interference, the system comprising: a plurality of RFID readers (11, 15; 21, 24, 27), wherein a first RFID reader (11; 21) is connected to a second adjacent RFID reader (15; 24) through an input/output (I/O) line connected to an I/O port (12a,; 22a) of the first RFID reader (11; 21) and to an I/O port (16a; 25a) of the second adjacent RFID reader (16a; 25a); and a plurality of antennas (13a-d, 17a-d; 23a-d, 26a-d, 29a-d), wherein a first antenna (13d; 23d) is connected to the first RFID reader (11; 21) and a second antenna (17a; 26a) is connected to the second adjacent RFID reader (15; 24); wherein prior to the first RFID reader (11; 21) transmitting a signal through the first antenna (13d; 23d), the first RFID reader (11; 21) reads the I/O port (16a; 25a) of the second adjacent RFID reader (15; 24), and if the signal on the I/O port (16a; 25a) indicates the second antenna (17a; 26a) is active, the first RFID reader (11; 21) inhibits transmission of the signal through the first antenna (13d; 23d), wherein the I/O port (16a; 25a) of the second adjacent RFID reader (15; 24) is set to an active state while the second adjacent RFID reader (15; 24) is transmitting a signal over the second antenna (17a; 26a). a plurality of RFID readers (11, 15; 21, 24, 27), wherein a first RFID reader (11; 21) is connected to a second adjacent RFID reader (15; 24) through an input/output (I/O) line connected to an I/O port (12a,; 22a) of the first RFID reader (11; 21) and to an I/O port (16a; 25a) of the second adjacent RFID reader (16a; 25a); and a plurality of antennas (13a-d, 17a-d; 23a-d, 26a-d, 29a-d), wherein a first antenna (13d; 23d) is connected to the first RFID reader (11; 21) and a second antenna (17a; 26a) is connected to the second adjacent RFID reader (15; 24); wherein prior to the first RFID reader (11; 21) transmitting a signal through the first antenna (13d; 23d), the first RFID reader (11; 21) reads the I/O port (16a; 25a) of the second adjacent RFID reader (15; 24), and if the signal on the I/O port (16a; 25a) indicates the second antenna (17a; 26a) is active, the first RFID reader (11; 21) inhibits transmission of the signal through the first antenna (13d; 23d), wherein the I/O port (16a; 25a) of the second adjacent RFID reader (15; 24) is set to an active state while the second adjacent RFID reader (15; 24) is transmitting a signal over the second antenna (17a; 26a).
A combine harvester, comprising: a threshing assembly comprising one or more threshing rotors mounted in the harvester; a grain pan configured to: receive a mixture of grains and chaff from the threshing assembly; and undergo a reciprocating motion in a longitudinal direction of the harvester; one or more sieves configured to: receive a layer of grains and chaff from the grain pan; and undergo a reciprocating motion in the longitudinal direction of the harvester; and a drive mechanism configured to drive the longitudinal reciprocating motion of the grain pan, and further capable of superimposing on said longitudinal reciprocating motion a lateral reciprocating motion component; said combine harvester further comprising a control unit configured to receive input signals representative of one or more parameters related to the operation of the combine harvester, said control unit being further configured to: calculate a lateral reciprocating motion component of the grain pan, as a function of said input signals; and send a control signal to said drive mechanism, commanding the drive mechanism to superimpose the calculated lateral reciprocating motion component on said longitudinal reciprocating motion of the grain pan, characterized in that the combine harvester further comprises a plurality of sensors electrically coupled to said control unit and configured to measure a thickness of a grain portion of a stratified grain/chaff layer advancing on the grain pan towards an exit edge of the grain pan, said plurality of sensors being located in the vicinity of the exit edge and distributed at locations across the width of the grain pan, and wherein the control unit comprises an algorithm configured to calculate a lateral reciprocating motion component of the grain pan that minimizes the difference between the thickness of said grain portion of the grain/chaff layer measured by said plurality of sensors. a threshing assembly comprising one or more threshing rotors mounted in the harvester; a grain pan configured to: receive a mixture of grains and chaff from the threshing assembly; and undergo a reciprocating motion in a longitudinal direction of the harvester; receive a mixture of grains and chaff from the threshing assembly; and undergo a reciprocating motion in a longitudinal direction of the harvester; one or more sieves configured to: receive a layer of grains and chaff from the grain pan; and undergo a reciprocating motion in the longitudinal direction of the harvester; and receive a layer of grains and chaff from the grain pan; and undergo a reciprocating motion in the longitudinal direction of the harvester; a drive mechanism configured to drive the longitudinal reciprocating motion of the grain pan, and further capable of superimposing on said longitudinal reciprocating motion a lateral reciprocating motion component; calculate a lateral reciprocating motion component of the grain pan, as a function of said input signals; and send a control signal to said drive mechanism, commanding the drive mechanism to superimpose the calculated lateral reciprocating motion component on said longitudinal reciprocating motion of the grain pan,
A copolymer derived from an acyclic conjugated diene monomer and a 1-vinylcycloalkene monomer of formula I where n is an integer ranging from 0 to 4, R is hydrogen or a linear or branched alkyl group having one to four carbon atoms, with the proviso that R is or may be appended at the 3 to (n+5) positions on the carbon ring.
A method of monitoring communication links in a wireless network comprising a source computing device and a sink computing device, the method performed by the sink computing device and comprising: receiving a multicast data stream carrying multimedia content for playback from the source computing device over the wireless network; monitoring data elements within the received multicast data stream in real-time, the data elements including time or sequence information corresponding to the multimedia content; estimating a channel state based on the time or sequence information of the monitored data elements within the received multicast data stream; determining whether the estimated channel state satisfies an error threshold; generating an error log including the estimated channel state in response to determining that the estimated channel state satisfies the error threshold; transmitting the error log to the source computing device over an uplink channel of the wireless network; and discontinuing playback of the multimedia content of the received multicast data stream in response to determining that the estimated channel state satisfies an error threshold. receiving a multicast data stream carrying multimedia content for playback from the source computing device over the wireless network; monitoring data elements within the received multicast data stream in real-time, the data elements including time or sequence information corresponding to the multimedia content; estimating a channel state based on the time or sequence information of the monitored data elements within the received multicast data stream; determining whether the estimated channel state satisfies an error threshold; generating an error log including the estimated channel state in response to determining that the estimated channel state satisfies the error threshold; transmitting the error log to the source computing device over an uplink channel of the wireless network; and discontinuing playback of the multimedia content of the received multicast data stream in response to determining that the estimated channel state satisfies an error threshold.
A mask, comprising: a frame, which includes a hollow portion and a border surrounding the hollow portion; an opening plate, which is provided on the frame and includes an opening and a body surrounding the opening, the opening corresponding to the hollow portion, and the body being connected with the border; and a pattern plate, which is provided on the opening plate and includes a pattern portion and a non-pattern portion positioned in a periphery of the pattern portion, the pattern portion corresponding to the opening, the non-pattern portion being connected with the body of the opening plate, and the non-pattern portion and the border being separated from each other by the body, characterized in that the opening plate includes a plurality of opening strips, the opening is provided in each opening strip, each opening strip extends along a first direction, the plurality of opening strips are sequentially arranged along a second direction, and the second direction intersects with the first direction, and each opening strip includes a first thinned portion and a second thinned portion which are respectively positioned on two opposite sides of the opening strip, the first thinned portion and the second thinned portion are arranged along the second direction, the first thinned portion and the second thinned portion extend along the first direction, and adjacent thinned portions of adjacent opening strips overlap each other. a frame, which includes a hollow portion and a border surrounding the hollow portion; an opening plate, which is provided on the frame and includes an opening and a body surrounding the opening, the opening corresponding to the hollow portion, and the body being connected with the border; and a pattern plate, which is provided on the opening plate and includes a pattern portion and a non-pattern portion positioned in a periphery of the pattern portion, the pattern portion corresponding to the opening, the non-pattern portion being connected with the body of the opening plate, and the non-pattern portion and the border being separated from each other by the body, characterized in that the opening plate includes a plurality of opening strips, the opening is provided in each opening strip, each opening strip extends along a first direction, the plurality of opening strips are sequentially arranged along a second direction, and the second direction intersects with the first direction, and each opening strip includes a first thinned portion and a second thinned portion which are respectively positioned on two opposite sides of the opening strip, the first thinned portion and the second thinned portion are arranged along the second direction, the first thinned portion and the second thinned portion extend along the first direction, and adjacent thinned portions of adjacent opening strips overlap each other.
A catalytic process for preparing an α, β -ethylenically unsaturated carboxylic acid salt, comprising reacting an alkene and carbon dioxide in the presence of a carboxylation catalyst and releasing the α, β -ethylenically unsaturated carboxylic acid salt with a base, the carboxylation catalyst being a transition metal complex, which comprises a structurally constrained bidentate P,P ligand, wherein the P atoms are separated by 2 to 4 bridging atoms, and wherein the bridging atoms are part of at least one 5- to 7-membered cyclic substructure, with each bridging atom directly linked to a P atom, together with the P atom to which it is linked, being part of a 5- to 7-membered cyclic substructure; or with two neighboring bridging atoms being part of a 5- to 7-membered cyclic substructure.
A shoe upper comprising: an elongated hollow knit structure, comprising: a first zone (110, 112, 652, 4904, 4910, 4912) comprising a first predetermined property, wherein the first zone (110, 112, 652, 4904, 4910, 4912) further comprises a first blended yarn comprising melt material, a second zone (114, 116, 118, 120, 4908, 4914) comprising a second predetermined property different from the first predetermined property, wherein the second zone (114, 116, 118, 120, 4908, 4914) comprises a second yarn; wherein the first blended yarn and the second yarn comprise melt material in differing amounts; wherein the elongated hollow knit structure comprises less than ten distinct ply types of yarn comprising less than five distinct materials; and wherein the less than ten distinct ply types of yarn comprise a polyester yarn, a blended yarn, low-melt temperature yarn, characterised in that the less than ten distinct ply types of yarn comprise also an elastic yarn, and the first blended yarn is manufactured by mixing fibers of different materials followed by twisting the mixed fibers to form the blended yarn. a first zone (110, 112, 652, 4904, 4910, 4912) comprising a first predetermined property, wherein the first zone (110, 112, 652, 4904, 4910, 4912) further comprises a first blended yarn comprising melt material, a second zone (114, 116, 118, 120, 4908, 4914) comprising a second predetermined property different from the first predetermined property, wherein the second zone (114, 116, 118, 120, 4908, 4914) comprises a second yarn; wherein the first blended yarn and the second yarn comprise melt material in differing amounts; wherein the elongated hollow knit structure comprises less than ten distinct ply types of yarn comprising less than five distinct materials; and wherein the less than ten distinct ply types of yarn comprise a polyester yarn, a blended yarn, low-melt temperature yarn, characterised in that the less than ten distinct ply types of yarn comprise also an elastic yarn, and the first blended yarn is manufactured by mixing fibers of different materials followed by twisting the mixed fibers to form the blended yarn.
Impregnated fibrous material comprising at least one continuous-fibre fibrous material and: - at least one matrix of nonreactive thermoplastic polymer, or - at least one reactive thermoplastic prepolymer, precursor of said nonreactive thermoplastic polymer, optionally mixed with a chain extender, characterized in that said at least nonreactive thermoplastic polymer or said reactive prepolymer is an amorphous polymer or prepolymer having a glass transition temperature such that Tg ≥ 80°C, especially Tg ≥ 100°C, in particular ≥ 120°C, especially ≥ 140°C, or is a semicrystalline polymer or prepolymer having a melting temperature Tm of ≥ 150°C, where Tg and Tm are measured as indicated in the description, the fibre content in said preimpregnated fibrous material being from 45% to 65% by volume, preferably from 50% to 60% by volume, especially from 54% to 60%, the average thickness of said impregnated fibrous material being less than or equal to 100 μm, independently of the number of fibres present in said fibrous material before impregnation, said fibrous material comprising a single layer. - at least one matrix of nonreactive thermoplastic polymer, or - at least one reactive thermoplastic prepolymer, precursor of said nonreactive thermoplastic polymer, optionally mixed with a chain extender, characterized in that said at least nonreactive thermoplastic polymer or said reactive prepolymer is an amorphous polymer or prepolymer having a glass transition temperature such that Tg ≥ 80°C, especially Tg ≥ 100°C, in particular ≥ 120°C, especially ≥ 140°C, or is a semicrystalline polymer or prepolymer having a melting temperature Tm of ≥ 150°C, where Tg and Tm are measured as indicated in the description, the fibre content in said preimpregnated fibrous material being from 45% to 65% by volume, preferably from 50% to 60% by volume, especially from 54% to 60%, the average thickness of said impregnated fibrous material being less than or equal to 100 μm, independently of the number of fibres present in said fibrous material before impregnation, said fibrous material comprising a single layer.
Espagnolette fitting for a window or a door, with at least one bolt bar, at least one chamber gear connected to the bolt bar, and at least one locking element fastened to the bolt bar with locking rollers or locking pieces, characterized in that the locking element is latched to the bolt bar, the bolt bar having a flange, on the opposite longitudinal sides of which are integrally formed clamping legs which are parallel to and spaced apart from one another and are V-shaped in cross section, each having an inner leg and an outer leg which is resiliently movable relative to the inner leg.
An implantable device (100, 200, 300, 400) that uses potential energy to facilitate the movement of fluid to an inflatable portion of a gastric band (105, 205), the implantable device comprising: a filling reservoir (120, 220, 320, 420) for holding the fluid; a first device (110, 210, 310, 410) operatively coupled to the filling reservoir (120, 220, 320, 420), wherein the first device comprises stored potential energy that facilitates moving an amount of the fluid to the inflatable portion of the gastric band; characterized by further comprising a filling valve (230, 330, 430) coupled between the filling reservoir (120, 220, 320, 420) and the gastric band (105, 205), the filling valve being open or closed based on a first telemetric signal received from a remote transmitter, and when the filling valve is open, a portion of the stored potential energy is released causing the amount of the fluid to move from the filling reservoir (120, 220, 320, 420) into the inflatable portion of the gastric band (105, 205), and when the filling valve is closed, a remaining amount of the stored potential energy remains stored in the first device (110, 210, 310, 410). a filling reservoir (120, 220, 320, 420) for holding the fluid; a first device (110, 210, 310, 410) operatively coupled to the filling reservoir (120, 220, 320, 420), wherein the first device comprises stored potential energy that facilitates moving an amount of the fluid to the inflatable portion of the gastric band; characterized by further comprising a filling valve (230, 330, 430) coupled between the filling reservoir (120, 220, 320, 420) and the gastric band (105, 205), the filling valve being open or closed based on a first telemetric signal received from a remote transmitter, and when the filling valve is open, a portion of the stored potential energy is released causing the amount of the fluid to move from the filling reservoir (120, 220, 320, 420) into the inflatable portion of the gastric band (105, 205), and when the filling valve is closed, a remaining amount of the stored potential energy remains stored in the first device (110, 210, 310, 410).
A production method for a coil, the production method comprising: edgewise winding a single flat wire from an initiation point thereof, spaced apart from a first end thereof in one direction, to form a first coil part having the flat wire stacked in an angular tube shape in a stacking direction; forming a bent connection portion in the stacking direction by bending the flat wire of the first coil part from its original orientation by 90° for forming a second coil part which is separate from the first coil part; edgewise winding the flat wire which is subsequent to the bent connection portion to form the second coil part having the flat wire stacked in an angular tube shape; and rebending the bent connection portion to its original orientation such that the first coil part and the second coil part are disposed in parallel in the same direction on the same plane. edgewise winding a single flat wire from an initiation point thereof, spaced apart from a first end thereof in one direction, to form a first coil part having the flat wire stacked in an angular tube shape in a stacking direction; forming a bent connection portion in the stacking direction by bending the flat wire of the first coil part from its original orientation by 90° for forming a second coil part which is separate from the first coil part; edgewise winding the flat wire which is subsequent to the bent connection portion to form the second coil part having the flat wire stacked in an angular tube shape; and rebending the bent connection portion to its original orientation such that the first coil part and the second coil part are disposed in parallel in the same direction on the same plane.
A method of providing security of a relay station, which is provided to a mobile communication system to relay a signal transfer between a first base station, Serving BS, and a mobile subscriber station, the method comprising the steps of: performing, by the relay station, a relay station authentication from an authentication server using an authentication protocol; receiving a master key from the authentication server; deriving an authentication key from the received master key; deriving a message authentication code, MAC, key using the induced authentication key; and relaying a signal exchanged between the mobile subscriber station and the first base station using the induced message authentication code key (S609, S610); requesting a handover into a second base station, Target BS, from the first base station, on behalf of the relayed mobile subscriber stations, to the first base station; and executing a ranging procedure for transmission parameter adjustment and management connection identifier, CID, and security associated parameter updates of the relay station with respect to the second base station, wherein the relay station comprises a mobile relay station. performing, by the relay station, a relay station authentication from an authentication server using an authentication protocol; receiving a master key from the authentication server; deriving an authentication key from the received master key; deriving a message authentication code, MAC, key using the induced authentication key; and relaying a signal exchanged between the mobile subscriber station and the first base station using the induced message authentication code key (S609, S610); requesting a handover into a second base station, Target BS, from the first base station, on behalf of the relayed mobile subscriber stations, to the first base station; and executing a ranging procedure for transmission parameter adjustment and management connection identifier, CID, and security associated parameter updates of the relay station with respect to the second base station, wherein the relay station comprises a mobile relay station.