mhurhangee/ep-ind-claims huggingface dataset:
A terminal apparatus comprising: a receiver configured to receive multiple random access configuration information configuring multiple Physical Random Access Channel, PRACH, resources for multiple blocks through a higher layer, and to receive a Physical Downlink Control Channel, PDCCH, order including mask index information determining a subset of the multiple PRACH resources available for transmission of a random access preamble, the subset of the multiple PRACH resources being contained within PRACH resources associated with one block from the multiple blocks, among the multiple PRACH resources; and a transmitter configured to transmit the random access preamble on a PRACH resource out of the subset of the PRACH resources, wherein each of the multiple blocks includes four Orthogonal Frequency Division Multiplexing, OFDM, symbols, in which at least a synchronization signal and a physical broadcast channel are included. a receiver configured to receive multiple random access configuration information configuring multiple Physical Random Access Channel, PRACH, resources for multiple blocks through a higher layer, and to receive a Physical Downlink Control Channel, PDCCH, order including mask index information determining a subset of the multiple PRACH resources available for transmission of a random access preamble, the subset of the multiple PRACH resources being contained within PRACH resources associated with one block from the multiple blocks, among the multiple PRACH resources; and a transmitter configured to transmit the random access preamble on a PRACH resource out of the subset of the PRACH resources, wherein each of the multiple blocks includes four Orthogonal Frequency Division Multiplexing, OFDM, symbols, in which at least a synchronization signal and a physical broadcast channel are included.
Drive apparatus for an electric bicycle with - an electric motor, - an energy storage unit for supplying the electric motor with electrical energy, and - a carrier (R, RT) at which the energy storage unit is releasably held, wherein a second plug connector is provided at the energy storage unit and a first plug connector is provided at the carrier (R, RT) which plug connector is connected to the second plug connector to connect the energy storage unit to the electric motor, and wherein the first plug connector is mounted in a pivotable manner at the carrier (R, RT) about a first pivot axis, wherein the first plug connector is constructed at a connecting component that is mounted in a pivotable manner at a holder of the carrier (R, RT) about the first pivot axis, characterized in that the energy storage unit is mounted in a pivotable manner at the holder about a second pivot axis, wherein the first pivot axis runs spaced and parallel to the second pivot axis. - an electric motor, - an energy storage unit for supplying the electric motor with electrical energy, and - a carrier (R, RT) at which the energy storage unit is releasably held,
A mobile device for high dynamic range image capture, the mobile device comprising: at least first and second image sensors fixed in a co-planar arrangement to a substrate; and an optical splitting system comprising a beamsplitter, wherein: said first and second image sensors and said optical splitting system are integrated into a camera of the mobile device; and a HDR processing device configured to process images data from first and second image sensors; and the beamsplitter is configured to transmit a first portion comprising at least 90% of incident light received through an aperture of said device along a first light path to a first reflective member and onto said first image sensor (34) and characterized by the beamsplitter being further configured to reflect a second portion of the incident light along a second light path that is reflected by a second reflective member back through the beamsplitter and onto the second image sensor (34). at least first and second image sensors fixed in a co-planar arrangement to a substrate; and an optical splitting system comprising a beamsplitter, wherein: said first and second image sensors and said optical splitting system are integrated into a camera of the mobile device; and a HDR processing device configured to process images data from first and second image sensors; and the beamsplitter is configured to transmit a first portion comprising at least 90% of incident light received through an aperture of said device along a first light path to a first reflective member and onto said first image sensor (34) and characterized by the beamsplitter being further configured to reflect a second portion of the incident light along a second light path that is reflected by a second reflective member back through the beamsplitter and onto the second image sensor (34). said first and second image sensors and said optical splitting system are integrated into a camera of the mobile device; and a HDR processing device configured to process images data from first and second image sensors; and the beamsplitter is configured to transmit a first portion comprising at least 90% of incident light received through an aperture of said device along a first light path to a first reflective member and onto said first image sensor (34) and characterized by the beamsplitter being further configured to reflect a second portion of the incident light along a second light path that is reflected by a second reflective member back through the beamsplitter and onto the second image sensor (34).
A communication system, comprising: a Base Station Router BSR and a service server, wherein, the BSR is configured to make a Mobile Station MS access a network, obtain information of multiple transmission paths from the service server during a process for the MS to apply to the service server for a service, and provide a communication service for the MS and the service server through multi-path transmission; and the service server, connected with the BSR, is configured to obtain information of Quality of Service QoS required by the service applied by the MS, determine the multiple transmission paths according to the information of the QoS, and communicate with the MS through the multi-path transmission; wherein the BSR is further configured to obtain the information of the QoS required by the service applied by the MS, and provide the communication service for the MS and the service server by using a coordinated multipoint transmission scheme according to the information of the QoS.
Heatable floor panel for an aircraft, having: a supporting level, a heat-generating level, and a heat-conducting level, wherein the heat-generating level comprises a fibre composite layer with fibres and with a matrix surrounding the fibres, wherein the fibres are at least partially in the form of conducting fibres, and wherein the conducting fibres are in the form of carbon fibres, characterized in that the conducting fibres have an electrically insulating coating, and the electrically insulating coating is in the form of a polymer electrolyte coating. a supporting level, a heat-generating level, and a heat-conducting level, wherein the heat-generating level comprises a fibre composite layer with fibres and with a matrix surrounding the fibres, wherein the fibres are at least partially in the form of conducting fibres, and wherein the conducting fibres are in the form of carbon fibres, characterized in that the conducting fibres have an electrically insulating coating, and the electrically insulating coating is in the form of a polymer electrolyte coating.
A photovoltaic module comprising: - a plurality of photovoltaic cells arranged in a grid having logical rows and columns; - a plurality of non-reconfigurable interconnects electrically interconnecting subsets of said plurality of photovoltaic cells to form a plurality of cell strings; and - a plurality of reconfigurable interconnects; wherein each cell string comprises at least four photovoltaic cells connected in an electrical series from a first cell to a last cell, the first cell and the last cell being located on the same edge of said grid, wherein said last cell is adjacent to a first cell of an adjacent cell string and/or said first cell is adjacent to a last cell of an adjacent cell string, wherein said plurality of reconfigurable interconnects is adapted for electrically interconnecting the plurality of cell strings such that a global photovoltaic string consisting of an electrical series connecting said plurality of cell strings can be controllably established, wherein said plurality of reconfigurable interconnects is furthermore adapted for controllably connecting adjacent cell strings electrically in parallel, thereby establishing at least one parallel electrical circuit having parallel circuit legs formed by at least two adjacent cell strings, wherein said photovoltaic module is furthermore adapted for connecting the plurality of cell strings to at least one DC-DC converter for providing an output electrical power over an output line, and wherein said plurality of reconfigurable interconnects are adapted for receiving at least one control signal from at least one controller for forming, when in operation, parallel, serial and/or hybrid connections of said plurality of cell strings to cluster matching photovoltaic cells in response to a non-uniform photonic stimulation, wherein said plurality of reconfigurable interconnects comprises at least one switch (A i) having a first terminal electrically connected to the last cell of a corresponding cell string and a second terminal electrically connected to the first cell of another cell string, wherein said plurality of reconfigurable interconnects comprises at least one further switch (B i) having a first terminal electrically connected to the last cell of the corresponding cell string and a second terminal electrically connected to the last cell of the other cell string, in which the first cell of the other cell string is adjacent to the last cell of the corresponding cell string. - a plurality of photovoltaic cells arranged in a grid having logical rows and columns; - a plurality of non-reconfigurable interconnects electrically interconnecting subsets of said plurality of photovoltaic cells to form a plurality of cell strings; and - a plurality of reconfigurable interconnects;
A suture system configured to place suture in tissue, the suture system comprising: a tool comprising a head having a proximal portion housing a needle and a distal end spaced apart from the proximal portion by a throat, the needle is movable through a needle exit port formed in the proximal portion of the head to a cavity formed in the distal end of the head; and a suture assembly comprising a length of suture connected to a suture cap, the suture cap comprising an annular wall that forms a hollow tubular section, wherein the suture cap is sized to be retained in the cavity formed in the distal end of the head of the tool and the needle is operable to engage with the hollow tubular section of the suture cap and extract the suture cap out of the cavity and deliver the suture cap to the needle exit port and characterized in that the tubular sleeve is inserted in the annular wall with an end of the length of suture inserted into and connected to the tubular sleeve. a tool comprising a head having a proximal portion housing a needle and a distal end spaced apart from the proximal portion by a throat, the needle is movable through a needle exit port formed in the proximal portion of the head to a cavity formed in the distal end of the head; and a suture assembly comprising a length of suture connected to a suture cap, the suture cap comprising an annular wall that forms a hollow tubular section, wherein the suture cap is sized to be retained in the cavity formed in the distal end of the head of the tool and the needle is operable to engage with the hollow tubular section of the suture cap and extract the suture cap out of the cavity and deliver the suture cap to the needle exit port and characterized in that the tubular sleeve is inserted in the annular wall with an end of the length of suture inserted into and connected to the tubular sleeve.
Communication process for high-sensitivity and synchronous demodulation signals in a communication system, which comprises at least one transmitter for transmitting a pseudo-periodic chirp-type signal of period T and at least one receiver to receive the chirp signal, wherein the transmitter comprises a local oscillator of the transmitter to generate a chirp signal to be transmitted and the receiver comprises a local oscillator of the receiver suitable for generating an oscillating signal (So) for the frequency conversion of the received chirp signal by a mixer to supply an intermediate signal, the process being characterised in that it comprises a synchronisation phase followed by a modulation or demodulation phase of a data signal, in that in the synchronisation phase, the transmitter transmits a chirp signal, which in each period T of linear frequency variation is composed of a first cycle portion with a positive slope of linear frequency variation and a second successive cycle portion with a negative slope of linear frequency variation, in that the receiver receives the chirp signal and converts the frequency of this chirp signal in the mixer by means of the oscillating signal (So) generated by the local oscillator of the receiver in order to produce the intermediate signal, wherein the frequency of the oscillating signal is constant so that the frequency variation of the intermediate signal is the image of the frequency variation of the chirp signal, in that a filtered and sampled intermediate signal is supplied to a logic unit of the receiver, which comprises an assembly of m pairs of discrete Fourier transform blocks (chirp DFT1; chirp DFT2) arranged for an operation in parallel and phase-shifted in relation to one another, where m is a whole number higher than or equal to 1, wherein a first block of each pair is intended for the acquisition in relation to the positive slope of frequency variation of the chirp signal, whereas a second block of each pair is intended for the acquisition in relation to the negative slope of frequency variation of the chirp signal, and in that a processing unit of the logic unit receives the result of each discrete Fourier transform of the pairs of the assembly following at least one acquisition of the chirp signal and determines a frequency and/or a phase error between the transmitter and the receiver on the basis of two peaks detected by at least one pair of the assembly above a defined noise threshold to synchronise the receiver before the demodulation phase of the data.
A cable connection system for selectively connecting an electrosurgical return electrode to multiple Electro-Surgical Units (ESUs) simultaneously, the cable connection system comprising: a first return cable that provides at least a portion of an electrical path between the return electrode and a first ESU; a second return cable that provides at least a portion of an electrical path between the return electrode and a second ESU; and a junction where the first and second return cables converge, connect, or are otherwise operatively associated with one another, wherein the junction is configured to divide electrosurgical current communicated from the return electrode such that a first portion of the electrosurgical current is communicated to the first ESU and a second portion of the electrosurgical current is communicated to the second ESU, wherein the second return cable is permanently connected to the junction; wherein the junction is selectively connectable to the first return cable in such a manner as to create a non-conductive, capacitive electrical connection between the first and second return cables; and wherein at least a portion of an insulative outer sheath of the first return cable comprises a different thickness or dielectric constant than other portions of the insulative outer sheath in order to facilitate the non-conductive, capacitive electrical connection between the first and second return cables. a first return cable that provides at least a portion of an electrical path between the return electrode and a first ESU; a second return cable that provides at least a portion of an electrical path between the return electrode and a second ESU; and a junction where the first and second return cables converge, connect, or are otherwise operatively associated with one another, wherein the junction is configured to divide electrosurgical current communicated from the return electrode such that a first portion of the electrosurgical current is communicated to the first ESU and a second portion of the electrosurgical current is communicated to the second ESU, wherein the second return cable is permanently connected to the junction; wherein the junction is selectively connectable to the first return cable in such a manner as to create a non-conductive, capacitive electrical connection between the first and second return cables; and wherein at least a portion of an insulative outer sheath of the first return cable comprises a different thickness or dielectric constant than other portions of the insulative outer sheath in order to facilitate the non-conductive, capacitive electrical connection between the first and second return cables.
A medical fluid bag arrangement comprising a fluid bag with at least a first and a second compartment, which are separated from each other such that different fluids can be arranged in said compartments (11, 12), wherein the first compartment contains a first fluid and the second compartment contains a second fluid, which is different from the first fluid, wherein the fluid bag contains a concentrate for a dialysis fluid for peritoneal dialysis, and wherein at least the second fluid includes an osmotic agent which runs the risk of being degraded if the second fluid receives too much energy during sterilization of the fluid bag, characterized in that the fluid bag arrangement comprises a special cover (31, 37) which is configured to remain in the position that it has during the sterilization process also after the sterilization process has been completed and which is arranged over at least one side of the second compartment, but not around the whole fluid bag.
A sliding component comprising an annular stationary-side seal ring fixed to a stationary side and an annular rotating-side seal ring rotating with a rotating shaft, the stationary-side seal ring and the rotating-side seal ring having respective sliding faces opposite to each other, the sliding faces being relatively rotated, thereby sealing a high-pressure fluid present on one radial side of the sliding faces relatively rotationally sliding, wherein at least one of the stationary-side seal ring and the rotating-side seal ring comprises a substrate, and a glassy carbon sheet member, characterized in that at least one of the stationary-side seal ring and the rotating-side seal ring comprises an adhesion layer on a sliding face side of the substrate, the glassy carbon sheet member is stuck on the substrate via the adhesion layer, and in that the glassy carbon sheet member has the sliding face provided with surface textures formed of dimples, spiral grooves, or at least one Rayleigh step mechanism and a radial groove, wherein the dimples, the spiral grooves, or the radial groove of the at least one Rayleigh step mechanism extend through the sheet member. at least one of the stationary-side seal ring and the rotating-side seal ring comprises a substrate, and a glassy carbon sheet member, characterized in that at least one of the stationary-side seal ring and the rotating-side seal ring comprises an adhesion layer on a sliding face side of the substrate, the glassy carbon sheet member is stuck on the substrate via the adhesion layer, and in that the glassy carbon sheet member has the sliding face provided with surface textures formed of dimples, spiral grooves, or at least one Rayleigh step mechanism and a radial groove, wherein the dimples, the spiral grooves, or the radial groove of the at least one Rayleigh step mechanism extend through the sheet member.
A method for processing network sharing, comprising: receiving, by a mobility management network element, an access request send by a user equipment; determining, by the mobility management network element, whether the user equipment supports network sharing; selecting, by the mobility management network element, a circuit switched domain public land mobile network identifier, CS domain PLMN ID, to provide a service for the user equipment; when the user equipment does not support network sharing, sending, by the mobility management network element, a location update request message to a mobile switching center or visitor location register, MSC/VLR, wherein the location update request message comprises an LAI comprising a common PLMN ID and comprises the CS domain PLMN ID selected by the mobility management network element; and sending, by the mobility management network element, an access accept message to the user equipment, wherein the access accept message includes the LAI carrying the common PLMN ID to be used by the user equipment for accessing the MSC/VLR. receiving, by a mobility management network element, an access request send by a user equipment; determining, by the mobility management network element, whether the user equipment supports network sharing; selecting, by the mobility management network element, a circuit switched domain public land mobile network identifier, CS domain PLMN ID, to provide a service for the user equipment; when the user equipment does not support network sharing, sending, by the mobility management network element, a location update request message to a mobile switching center or visitor location register, MSC/VLR, wherein the location update request message comprises an LAI comprising a common PLMN ID and comprises the CS domain PLMN ID selected by the mobility management network element; and sending, by the mobility management network element, an access accept message to the user equipment, wherein the access accept message includes the LAI carrying the common PLMN ID to be used by the user equipment for accessing the MSC/VLR.