mhurhangee/ep-ind-claims huggingface dataset:
The heel for a women's shoe with a high heel; the heel comprises: a main structure with an oblong shape, which, in correspondence to a lower base, is suited to rest on the ground and, in correspondence to an upper base that is opposite to the lower base, is suited to be fitted to a sole of the shoe and is divided into a lower portion and an upper portion, which vertically slide with respect to one another; and a reinforcement pin that is inserted inside a seat centrally obtained in the main structure, wherein the reinforcement pin comprises: an upper portion, which is mechanically connected to the upper portion of the main structure; a lower portion, which is integral to the lower portion of the main structure; and elastic means which present a vertical elasticity and are coupled to the reinforcement pin to connect with a vertical elasticity the upper portion of the main structure to the lower portion of the main structure, wherein the upper portion of the main structure is vertically slidable with respect to the upper portion of the reinforcement pin, and wherein the elastic means are constituted by at least one disk spring which is interposed between the reinforcement pin and an abutment wall of the upper portion of the main structure. a main structure with an oblong shape, which, in correspondence to a lower base, is suited to rest on the ground and, in correspondence to an upper base that is opposite to the lower base, is suited to be fitted to a sole of the shoe and is divided into a lower portion and an upper portion, which vertically slide with respect to one another; and a reinforcement pin that is inserted inside a seat centrally obtained in the main structure, wherein the reinforcement pin comprises: an upper portion, which is mechanically connected to the upper portion of the main structure; a lower portion, which is integral to the lower portion of the main structure; and elastic means which present a vertical elasticity and are coupled to the reinforcement pin to connect with a vertical elasticity the upper portion of the main structure to the lower portion of the main structure, wherein the upper portion of the main structure is vertically slidable with respect to the upper portion of the reinforcement pin, and wherein the elastic means are constituted by at least one disk spring which is interposed between the reinforcement pin and an abutment wall of the upper portion of the main structure.
A system for automatically generating a planned acquisition path (22, 24) for a vehicle to follow to reach a final guidance line from a current vehicle location, the system comprising: a location-determining receiver configured to determine location data representing the current vehicle location from the location-determining receiver, a guidance module configured to determine a first line acquisition path of the vehicle based on a determined angle of approach and guidance criteria stored in a guidance criteria module of a guidance database, a data storage device configured to store the guidance module and the guidance database; and a data processor in communication with the data storage device configured to execute the guidance module, characterized in that the guidance module is configured to determine a second acquisition path of the vehicle for an implement of the vehicle to be on the first line acquisition path. a location-determining receiver configured to determine location data representing the current vehicle location from the location-determining receiver, a guidance module configured to determine a first line acquisition path of the vehicle based on a determined angle of approach and guidance criteria stored in a guidance criteria module of a guidance database, a data storage device configured to store the guidance module and the guidance database; and a data processor in communication with the data storage device configured to execute the guidance module, characterized in that the guidance module is configured to determine a second acquisition path of the vehicle for an implement of the vehicle to be on the first line acquisition path.
A method comprising: executing a single instruction to identify a location of an element within a table that is configured to store multiple data lengths, the table stored in a memory, the single instruction executable by a processor to: extract bit field data from a first register; determine a bit offset, wherein the bit offset is based on a data length of the element within the table and the bit offset is different for each data length; and insert the bit field data into a second register having a table address portion and index portion, at an insertion point in the index portion of the second register based on the bit offset, the second register including a table address, wherein the table address and the bit field data form an indexed address to the element within the table. executing a single instruction to identify a location of an element within a table that is configured to store multiple data lengths, the table stored in a memory, the single instruction executable by a processor to: extract bit field data from a first register; determine a bit offset, wherein the bit offset is based on a data length of the element within the table and the bit offset is different for each data length; and insert the bit field data into a second register having a table address portion and index portion, at an insertion point in the index portion of the second register based on the bit offset, the second register including a table address, extract bit field data from a first register; determine a bit offset, wherein the bit offset is based on a data length of the element within the table and the bit offset is different for each data length; and insert the bit field data into a second register having a table address portion and index portion, at an insertion point in the index portion of the second register based on the bit offset, the second register including a table address, wherein the table address and the bit field data form an indexed address to the element within the table.
A wireless physiology monitoring system, comprising: a plurality of sensors, a wireless sensor device (110, 200, 300) electrically connected to the plurality of sensors and comprising a first wireless transceiver, the wireless sensor device (110, 200, 300) mechanically and electrically connected to one of the plurality of sensors, the wireless sensor device (110, 200, 300) configured to receive sensing signals from the plurality of sensors and wirelessly transmit a sensor signal indicative to the sensing signals via the first wireless transceiver, wherein the wireless sensor device further comprises a first NFC transceiver, and a wireless adaptor device (435, 500, 635) comprising a second wireless transceiver and configured to wirelessly receive the sensor signal via the second wireless transceiver, wherein the wireless adaptor device (435, 500, 635) further comprises a second NFC transceiver, wherein the wireless sensor device (110, 200, 300) is configured to communicate to the wireless adaptor device via NFC, wherein the wireless sensor device (110, 200, 300) is configured to communicate wireless identification with the wireless adaptor (435, 500, 635) device via NFC for establishing a wireless communication with the wireless adaptor device (435, 500, 635) using said wireless identification, and wherein said established wireless communication is used for said sensor signal transmission. a plurality of sensors, a wireless sensor device (110, 200, 300) electrically connected to the plurality of sensors and comprising a first wireless transceiver, the wireless sensor device (110, 200, 300) mechanically and electrically connected to one of the plurality of sensors, the wireless sensor device (110, 200, 300) configured to receive sensing signals from the plurality of sensors and wirelessly transmit a sensor signal indicative to the sensing signals via the first wireless transceiver, wherein the wireless sensor device further comprises a first NFC transceiver, and a wireless adaptor device (435, 500, 635) comprising a second wireless transceiver and configured to wirelessly receive the sensor signal via the second wireless transceiver, wherein the wireless adaptor device (435, 500, 635) further comprises a second NFC transceiver, wherein the wireless sensor device (110, 200, 300) is configured to communicate to the wireless adaptor device via NFC, wherein the wireless sensor device (110, 200, 300) is configured to communicate wireless identification with the wireless adaptor (435, 500, 635) device via NFC for establishing a wireless communication with the wireless adaptor device (435, 500, 635) using said wireless identification, and wherein said established wireless communication is used for said sensor signal transmission.
A method of producing a wind turbine rotor blade which has at least one inner blade portion and at least one outer blade portion and a connecting element for connecting the at least one inner blade portion and the at least one outer blade portion, comprising the steps: winding the inner blade portion on a winding form having a first and a second winding portion (310, 320), wherein the first and second winding portions (310, 320) are fixed to each other, wherein the second winding portion is of a conical configuration so that after winding of the inner blade portion a sleeve is produced at an end of the inner blade portion, winding the connecting element for connecting the inner blade portion and the outer blade portion on a winding form, wherein the connecting element has a first and a second portion (610, 620), wherein a form having a conical shape is pushed on to the first portion of the connecting element before the winding laminate is hardened in order to provide a first portion of a conical configuration and having a smooth surface. winding the inner blade portion on a winding form having a first and a second winding portion (310, 320), wherein the first and second winding portions (310, 320) are fixed to each other, wherein the second winding portion is of a conical configuration so that after winding of the inner blade portion a sleeve is produced at an end of the inner blade portion, winding the connecting element for connecting the inner blade portion and the outer blade portion on a winding form, wherein the connecting element has a first and a second portion (610, 620), wherein a form having a conical shape is pushed on to the first portion of the connecting element before the winding laminate is hardened in order to provide a first portion of a conical configuration and having a smooth surface.
A packaging film comprising: at least a product-contact layer comprising: i) an ethylene vinyl acetate copolymer having melt flow index of greater than 6 dg/min at 190°C/2.16 kg; ii) an antimicrobial agent; and iii) a wetting agent. i) an ethylene vinyl acetate copolymer having melt flow index of greater than 6 dg/min at 190°C/2.16 kg; ii) an antimicrobial agent; and iii) a wetting agent.
Fuel injection valve for internal combustion engines having a housing, in which a pressure space is configured which can be filled with highly pressurized fuel and has a nozzle needle which can be moved longitudinally therein, interacts with a nozzle seat and, by way of its longitudinal movement, opens and closes the connection of the pressure space to at least one injection opening, and having a control space which can be filled with highly pressurized fuel via an inlet throttle, a closing force being exerted on the nozzle needle at least indirectly by way of the pressure in the control space, the nozzle needle being guided in a sleeve at its end which faces away from the nozzle seat, the sleeve delimiting the control space radially, and the sleeve bearing against a valve body, in which a control piston is arranged movably, the valve body delimiting, together with the control piston, a valve space which can be connected to the control space via an outlet throttle and via a control valve to a low pressure space, the control piston having a sealing face, with which the control piston interacts with a sealing seat in order to open and close the inlet throttle, a shoulder being configured on the inner side of the sleeve, which shoulder delimits the movement of the control piston during its opening movement, characterized in that an adjustment disc is arranged on the shoulder in such a way that the adjustment disc is clamped in between the shoulder and the control piston when the control piston is in its open position.
A method of energy storage comprising: receiving input energy; using the input energy to compress air or other process gas to produce a compressed process gas; storing the compressed process gas; expanding the compressed process gas to generate output energy; and further comprising: performing a hydrogen production process; transferring heat from the process gas, before the process gas is stored as a compressed process gas, to the hydrogen production process; and using the transferred heat in the hydrogen production process. receiving input energy; using the input energy to compress air or other process gas to produce a compressed process gas; storing the compressed process gas; expanding the compressed process gas to generate output energy; performing a hydrogen production process; transferring heat from the process gas, before the process gas is stored as a compressed process gas, to the hydrogen production process; and using the transferred heat in the hydrogen production process.
An information transmission method applied to a receiving User Equipment, UE, comprising: determining indication information for indicating whether the receiving UE successfully receives a Vehicle to Everything, V2X, message and a sending mode of the indication information; determining a Physical Sidelink Feedback Channel, PSFCH, resource for sending the indication information according to an instruction of a transmitting UE; sending the indication information on the PSFCH resource in the sending mode; and determining a retransmission resource according to the instruction of the transmitting UE, wherein sending the indication information on the PSFCH resource in the sending mode comprises: determining a time interval between sending the V2X message by the transmitting UE and sending the indication information by the receiving UE; and sending the indication information on the PSFCH resource according to the time interval in the sending mode. determining indication information for indicating whether the receiving UE successfully receives a Vehicle to Everything, V2X, message and a sending mode of the indication information; determining a Physical Sidelink Feedback Channel, PSFCH, resource for sending the indication information according to an instruction of a transmitting UE; sending the indication information on the PSFCH resource in the sending mode; and determining a retransmission resource according to the instruction of the transmitting UE, wherein sending the indication information on the PSFCH resource in the sending mode comprises: determining a time interval between sending the V2X message by the transmitting UE and sending the indication information by the receiving UE; and sending the indication information on the PSFCH resource according to the time interval in the sending mode. determining a time interval between sending the V2X message by the transmitting UE and sending the indication information by the receiving UE; and sending the indication information on the PSFCH resource according to the time interval in the sending mode.
A method for forming hybrid license plates, namely and specifically, for forming plates made up of several superimposed layers, which consist of at least: a rigid lower layer, formed by a support base made of metal, for example aluminum, or of a synthetic material, in the form of a rectangular plate; an intermediate layer, made up of a reflective sheet with symbols and characters printed thereon, which may or may not be smaller in dimension than the lower layer, such that the latter projects along around the perimeter; and an upper layer, having the same dimension as the intermediate layer, consisting of a protective transparent film, and said method comprising at least a prior phase in which the symbols and characters are digitally printed on at least the reflective sheet of the intermediate layer, and two subsequent lamination phases in which all the layers (2, 3 and 7) are respectively bonded togeher by means of an adhesive placed between them, the method being characterized in that in the same digital printing phase for digitally printing the symbols and characters making up the intermediate layer on said reflective sheet with one and the same digital printing machine, the protective transparent film of the upper layer is automatically incorporated on said sheet once printed, laminating both layers (3, 7) together, the lamination of said two bonded layers (3, 7) with the lower layer constituting the support base made of metal or of synthetic material being performed in a later phase.
A network topology determining method for use in a network, the network comprising a trunk cable, a cable modem termination system, CMTS, at least two splitters/taps, and at least two cable modems, CM, wherein each CM is connected to a corresponding splitter/tap, the method comprising: determining a length of the trunk cable based on a first time domain characteristic of an echo channel of the CMTS; determining, based on a second time domain characteristic of an echo channel of each CM a length of a drop cable connected to the trunk cable, wherein the length of the drop cable comprises a length of a cable between each CM and the trunk cable; determining a correspondence between the at least two CMs and the at least two splitters/taps based on a signal to interference plus noise ratio SINR between any two of the CMs; and determining a topology of a network based on the length of the trunk cable, the length of the drop cable, and the correspondence between the at least two CMs and the at least two splitters/taps. determining a length of the trunk cable based on a first time domain characteristic of an echo channel of the CMTS; determining, based on a second time domain characteristic of an echo channel of each CM a length of a drop cable connected to the trunk cable, wherein the length of the drop cable comprises a length of a cable between each CM and the trunk cable; determining a correspondence between the at least two CMs and the at least two splitters/taps based on a signal to interference plus noise ratio SINR between any two of the CMs; and determining a topology of a network based on the length of the trunk cable, the length of the drop cable, and the correspondence between the at least two CMs and the at least two splitters/taps.
Armored vehicle comprising additional armor attached to the vehicle by means of at least one bolt, the bolt comprising - a bolt head formed by a support flange, - a sleeve extending from the bolt head, - a counter bearing arranged opposite the bolt head on the sleeve, - a member that is mounted in the sleeve so as to be able to move between the bolt head and the counter bearing against the force of a spring that is supported on the bolt head, - at least one locking member, one portion of which, in a first position assumed by the member, passes out beyond the outer circumference of the sleeve into an opening provided in the wall of the sleeve so as to lock the additional armor on the vehicle and which, in a second position assumed by the member, is completely accommodated by the sleeve so as to release the additional armor of the vehicle and characterized in that the bolt comprises - an opening for access that allows the member to move toward the bolt head. - a bolt head formed by a support flange, - a sleeve extending from the bolt head, - a counter bearing arranged opposite the bolt head on the sleeve, - a member that is mounted in the sleeve so as to be able to move between the bolt head and the counter bearing against the force of a spring that is supported on the bolt head, - at least one locking member, one portion of which, in a first position assumed by the member, passes out beyond the outer circumference of the sleeve into an opening provided in the wall of the sleeve so as to lock the additional armor on the vehicle and which, in a second position assumed by the member, is completely accommodated by the sleeve so as to release the additional armor of the vehicle and characterized in that the bolt comprises - an opening for access that allows the member to move toward the bolt head.
A method implemented by a wireless transmit receive unit, WTRU, the method comprising: receiving, by the WTRU from an enhanced Node B, eNB, a circuit switched, CS, service notification; transmitting, towards the eNB, an extended service request, ESR, message for a CS fallback, in response to the CS service notification; starting a T3117ext timer in response to transmitting the ESR; and stopping the T3117ext timer in response to reception of a handover command or a cell change command sent by the eNB after the transmission of the ESR. receiving, by the WTRU from an enhanced Node B, eNB, a circuit switched, CS, service notification; transmitting, towards the eNB, an extended service request, ESR, message for a CS fallback, in response to the CS service notification; starting a T3117ext timer in response to transmitting the ESR; and stopping the T3117ext timer in response to reception of a handover command or a cell change command sent by the eNB after the transmission of the ESR.
A computer device comprising: a processor configured to execute instructions that include: a compiler configured to receive a source code for a program including at least two code files, and process the source code for the program to generate a machine-level code file for each of the at least two code files of the source code; a control flow graph generator configured to generate control flow graph data for each machine-level code file generated for the at least two code files of the source code; a machine-level intermediate representation generator configured to generate a machine-level intermediate representation for each machine-level code file using a respective machine-level code file and the generated control flow graph data for that machine-level code file; a machine-level intermediate representation merger tool configured to merge the machine-level intermediate representations into a merged machine-level intermediate representation; a machine-level optimization tool configured to perform machine-level optimizations on the merged machine-level intermediate representation and output an optimized merged machine-level intermediate representation; and an executable tool configured to generate an executable file from the optimized merged machine-level intermediate representation. a compiler configured to receive a source code for a program including at least two code files, and process the source code for the program to generate a machine-level code file for each of the at least two code files of the source code; a control flow graph generator configured to generate control flow graph data for each machine-level code file generated for the at least two code files of the source code; a machine-level intermediate representation generator configured to generate a machine-level intermediate representation for each machine-level code file using a respective machine-level code file and the generated control flow graph data for that machine-level code file; a machine-level intermediate representation merger tool configured to merge the machine-level intermediate representations into a merged machine-level intermediate representation; a machine-level optimization tool configured to perform machine-level optimizations on the merged machine-level intermediate representation and output an optimized merged machine-level intermediate representation; and an executable tool configured to generate an executable file from the optimized merged machine-level intermediate representation.