mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to a first base station, BS, supporting an evolved packet system, EPS, a packet data network, PDN, connection request message; receiving, from the first BS, information on home public land mobile network single-network slice selection assistance information, HPLMN S-NSSAI, in a home routed roaming case, the HPLMN S-NSSAI being selected by a network entity including a packet data network gateway control plane, PGW-C, and a session management function, SMF, from among the UE's subscribed S-NSSAIs; transmitting, to a second BS supporting a 5th generation system, 5GS, a registration request message comprising the HPLMN S-NSSAI and an empty value for a single-network slice selection assistance information, S-NSSAI,to be used in a visited public land mobile network, VPLMN; and receiving, from the second BS, a registration accept message as a response to the registration request message, wherein the registration accept message comprises an allowed NSSAI mapped to the HPLMN S-NSSAI, and the allowed NSSAI includes the S-NSSAI to be used in the VPLMN, VPLMN S-NSSAI. transmitting, to a first base station, BS, supporting an evolved packet system, EPS, a packet data network, PDN, connection request message; receiving, from the first BS, information on home public land mobile network single-network slice selection assistance information, HPLMN S-NSSAI, in a home routed roaming case, the HPLMN S-NSSAI being selected by a network entity including a packet data network gateway control plane, PGW-C, and a session management function, SMF, from among the UE's subscribed S-NSSAIs; transmitting, to a second BS supporting a 5th generation system, 5GS, a registration request message comprising the HPLMN S-NSSAI and an empty value for a single-network slice selection assistance information, S-NSSAI,to be used in a visited public land mobile network, VPLMN; and receiving, from the second BS, a registration accept message as a response to the registration request message, wherein the registration accept message comprises an allowed NSSAI mapped to the HPLMN S-NSSAI, and the allowed NSSAI includes the S-NSSAI to be used in the VPLMN, VPLMN S-NSSAI.
A wireless communication method, comprising: receiving, by at least two forwarding nodes (A, B), a first data packet from a source node, wherein the first data packet comprises service data, forwarding node set information of the first data packet, and destination node information; and a forwarding node set of the first data packet comprises the at least two forwarding nodes (A,B), and the destination node information identifies a destination node set and/or a destination node; and sending, by at least two forwarding nodes in the at least two forwarding nodes (A,B), a second data packet, wherein the second data packet comprises the service data, forwarding node set information of the second data packet, and the destination node information; wherein the forwarding node set information of the second data packet identifies a non-destination node set and/or a non-destination node, and the non-destination node set includes at least one non-destination node; wherein the forwarding node set information of the second data packet identifies the destination node set and the non-destination node set receiving, by at least two forwarding nodes (A, B), a first data packet from a source node, wherein the first data packet comprises service data, forwarding node set information of the first data packet, and destination node information; and a forwarding node set of the first data packet comprises the at least two forwarding nodes (A,B), and the destination node information identifies a destination node set and/or a destination node; and sending, by at least two forwarding nodes in the at least two forwarding nodes (A,B), a second data packet, wherein the second data packet comprises the service data, forwarding node set information of the second data packet, and the destination node information; wherein the forwarding node set information of the second data packet identifies a non-destination node set and/or a non-destination node, and the non-destination node set includes at least one non-destination node; wherein the forwarding node set information of the second data packet identifies the destination node set and the non-destination node set
A calibration system, comprising: a waveform generator configured to generate a periodic waveform; and a control circuit in signal communication with the waveform generator , wherein the control circuit and comprises: an analog-to-digital converter configured to convert the periodic waveform to digital values; and an electronic device in signal communication with the analog-to-digital converter , characterized in that the control circuit is configured to output a control signal to an actuator associated with a nuclear power plant, and the electronic device is configured to execute a calibration routine to verify calibration of the following based on the periodic waveform: timing of the control circuit ; and different voltage levels of the control circuit . a waveform generator configured to generate a periodic waveform; and a control circuit in signal communication with the waveform generator , wherein the control circuit and comprises: an analog-to-digital converter configured to convert the periodic waveform to digital values; and an electronic device in signal communication with the analog-to-digital converter , an analog-to-digital converter configured to convert the periodic waveform to digital values; and an electronic device in signal communication with the analog-to-digital converter , characterized in that the control circuit is configured to output a control signal to an actuator associated with a nuclear power plant, and the electronic device is configured to execute a calibration routine to verify calibration of the following based on the periodic waveform: timing of the control circuit ; and different voltage levels of the control circuit . timing of the control circuit ; and different voltage levels of the control circuit .
A connection box for a data or communications network, comprising a housing having a lower housing part with a bottom surface and an upper housing part , wherein a clamping device for at least one cable is provided on the lower housing part , and wherein a printed circuit board is arranged in the housing , on which circuit board at least one socket for receiving a plug is arranged, wherein the upper housing part can be placed onto the lower housing part and can be fixed to the lower housing part in a plurality of positions rotated relative to one another about an imaginary housing center axis (A), wherein a first support surface for the at least one cable and a second support surface for the at least one cable are arranged on the lower housing part , wherein the at least one cable can be clamped selectively to the first support surface or the second support surface by the clamping device , wherein the first support surface and the second support surface are arranged at an angle (α) to one another, characterized in that the second support surface is arranged relative to the bottom surface of the lower housing part at an angle (β) between 20° and 70°.
An articulation assembly for use with a surgical device , the articulation assembly comprising: a dual threaded rod including a body , a first thread encircling at least a portion of the body in a first direction, and a second thread encircling at least a portion of the body in a second direction, wherein the first direction is opposite the second direction; a proximal nut at least partially encircling the body of the dual threaded rod and engaged with the first thread of the dual threaded rod; a distal nut at least partially encircling the body of the dual threaded rod and engaged with the second thread of the dual threaded rod; a first articulation rod coupled to the proximal nut and disposed on a first lateral side of the dual threaded rod ; and a second articulation rod coupled to the distal nut and disposed on a second lateral side of the dual threaded rod , wherein rotation of the dual threaded rod in a first direction relative to the proximal nut causes the proximal nut and the first articulation rod to move distally relative to the dual threaded rod, and causes the distal nut and the second articulation rod to move proximally relative to the dual threaded rod; characterised in the surgical device is a surgical stapling device; and in that at least a portion of the first thread is overlapping at least a portion of the second thread. a dual threaded rod including a body , a first thread encircling at least a portion of the body in a first direction, and a second thread encircling at least a portion of the body in a second direction, wherein the first direction is opposite the second direction; a proximal nut at least partially encircling the body of the dual threaded rod and engaged with the first thread of the dual threaded rod; a distal nut at least partially encircling the body of the dual threaded rod and engaged with the second thread of the dual threaded rod; a first articulation rod coupled to the proximal nut and disposed on a first lateral side of the dual threaded rod ; and a second articulation rod coupled to the distal nut and disposed on a second lateral side of the dual threaded rod , wherein rotation of the dual threaded rod in a first direction relative to the proximal nut causes the proximal nut and the first articulation rod to move distally relative to the dual threaded rod, and causes the distal nut and the second articulation rod to move proximally relative to the dual threaded rod; characterised in the surgical device is a surgical stapling device; and in that at least a portion of the first thread is overlapping at least a portion of the second thread.
A polyester resin represented by the following chemical structure of formula (I) and having an acid value of 250 to 2,500 eq/10 6 g and a number-average molecular weight of 2,000 to 50,000: (X-O) r -W-(O-(CO-Z-CO-O-Y-O) p -X) q ...... (I) wherein W is a (q + r)-valent organic group; (CO-Z-CO-O-Y-O) is a skeleton of polyester resin prepared by polymerization using a polyvalent carboxylic acid ingredient Z and a polyhydric alcohol ingredient Y as polymerizing ingredients; X is a residue of polybasic acid having two or more carboxyl groups or is hydrogen (except the case wherein all of X in numbers of (q + r) are hydrogen); X, Y and Z each may be the same as or different from each other and, even in the same repetitive unit, X, Y and Z each may be the same as or different from each other; average value of p is 3 or more, average value of q is more than 0 and is 15 or less, average value of r is 0 or more and is less than 15, and (q + r) is 3 or more and 15 or less and wherein the acid value and the number-average molecular weight are determined in accordance with the description. (CO-Z-CO-O-Y-O) is a skeleton of polyester resin prepared by polymerization using a polyvalent carboxylic acid ingredient Z and a polyhydric alcohol ingredient Y as polymerizing ingredients; X is a residue of polybasic acid having two or more carboxyl groups or is hydrogen (except the case wherein all of X in numbers of (q + r) are hydrogen); X, Y and Z each may be the same as or different from each other and, even in the same repetitive unit, X, Y and Z each may be the same as or different from each other; average value of p is 3 or more, average value of q is more than 0 and is 15 or less, average value of r is 0 or more and is less than 15, and (q + r) is 3 or more and 15 or less and wherein the acid value and the number-average molecular weight are determined in accordance with the description.
A projection-type image display device comprising an optical system including at least a projection lens and for emitting image light to be enlarging-projected, accommodated inside a frame configured with a lower case and an upper case , the lower case forming a bottom surface and four side surfaces of the frame , and the upper case forming a top surface of the frame , and an enlarging projection means which enlarging-projects the image light emitted from the optical system toward a display plane , openably attached to a portion of the upper case of the frame , wherein the device can be installed by the bottom surface or one of the side surfaces of the frame , wherein a stand leg is accommodated integrally with the lower case and extractably in the one side surface of the frame , and wherein the stand leg has a form satisfying an installation condition for vertically erected arrangement where the one side surface of the device becomes a bottom surface in the extracted state.
Fringe projection method for determining the topography of a body , comprising the steps of: (a) projecting a sequence of sets (m) of patterns (T i ) onto the surface of the body , wherein each set (m) has at least two patterns (T i ) and wherein each pattern (T i ) has S fringes; (b) for each pattern (T i ), capturing an image (24.i) of the surface having the projected pattern, resulting in a sequence of captured images, and (c) calculating the topography from the images (24.i), (d) wherein such patterns (T i ) are projected in which each fringe has an intensity distribution that is perpendicular to the fringe longitudinal direction (L) and each intensity distribution can be described by a periodic function (Q) that has a spatial phase position (β), wherein all intensity distributions have the same spatial frequency, and (e) the phase position (β) changes depending on a code (g (s) ) of the ordinal number (s) of the fringe, wherein the phase positions (β) of the fringes of the patterns (T i ) of each set (m) depend in each case on only a single codeword location of the code (g (s) ) of the ordinal number (s). (a) projecting a sequence of sets (m) of patterns (T i ) onto the surface of the body , wherein each set (m) has at least two patterns (T i ) and wherein each pattern (T i ) has S fringes; (b) for each pattern (T i ), capturing an image (24.i) of the surface having the projected pattern, resulting in a sequence of captured images, and (c) calculating the topography from the images (24.i), (d) wherein such patterns (T i ) are projected in which each fringe has an intensity distribution that is perpendicular to the fringe longitudinal direction (L) and each intensity distribution can be described by a periodic function (Q) that has a spatial phase position (β), wherein all intensity distributions have the same spatial frequency, and (e) the phase position (β) changes depending on a code (g (s) ) of the ordinal number (s) of the fringe, wherein the phase positions (β) of the fringes of the patterns (T i ) of each set (m) depend in each case on only a single codeword location of the code (g (s) ) of the ordinal number (s).
A zoom lens comprising, in order from an object side to an image side: a first lens group (G1); a second lens group (G2); a third lens group (G3); a fourth lens group (G4); and a fifth lens group (G5); wherein the zoom lens satisfies the following conditions: − 2.28 ≤ f 2 / f w ′ ≤ − 1.08 0.15 / mm ≤ TTL / BFL ∗ f w ′ ≤ 0.45 / mm and TTL ≤ 160 mm wherein f 2 denotes a focal length of the second lens group (G2), f w' denotes a focal length of the zoom lens at a wide angle end, TTL denotes a total track length of the zoom lens, and BFL denotes a back focal length of the zoom lens. a first lens group (G1); a second lens group (G2); a third lens group (G3); a fourth lens group (G4); and a fifth lens group (G5); wherein the zoom lens satisfies the following conditions: − 2.28 ≤ f 2 / f w ′ ≤ − 1.08 0.15 / mm ≤ TTL / BFL ∗ f w ′ ≤ 0.45 / mm and TTL ≤ 160 mm wherein f 2 denotes a focal length of the second lens group (G2), f w' denotes a focal length of the zoom lens at a wide angle end, TTL denotes a total track length of the zoom lens, and BFL denotes a back focal length of the zoom lens. wherein the zoom lens satisfies the following conditions: − 2.28 ≤ f 2 / f w ′ ≤ − 1.08 0.15 / mm ≤ TTL / BFL ∗ f w ′ ≤ 0.45 / mm and TTL ≤ 160 mm wherein f 2 denotes a focal length of the second lens group (G2), f w' denotes a focal length of the zoom lens at a wide angle end, TTL denotes a total track length of the zoom lens, and BFL denotes a back focal length of the zoom lens.
An apparatus for physical exercise comprising; a resistance arrangement having at least one resistance means adapted for providing resistance forces in at least a first and a second direction; the apparatus comprising a force transmission assembly through which the resistance forces are operable, at least one actuation means being in operable engagement with the force transmission assembly and being adapted to transfer forces generatable by a user in at least two directions of motion to the at least one resistance means via the force transmission assembly, the resistance forces opposing the user generatable forces, the apparatus comprising a means for operably engaging the resistance means locatable between the resistance means and the force transmission assembly, the force transmission assembly having linkage means for linking to the means for operably engaging the resistance means , characterized in that the apparatus comprises a ballast means locatable on the linkage means .
A terminal configured to be operable in a mobile communication system, according to a 3GPP standard, the terminal comprising: a control section configured to determine control resource element, CCE, indexes for a plurality of physical downlink control channel, PDCCH, candidates, wherein the plurality of PDCCH candidates are configured for an aggregation level L of a search space for a serving cell corresponding to a carrier indicator field, CIF, value n of CIF values configured for the aggregation level L; and a receiving section configured to monitor the plurality of PDCCH candidates within a control resource set, CORESET; wherein an index of a starting CCE of a PDCCH candidate m of the plurality of PDCCH candidates is given by the following formula: L ⋅ Y + m ⋅ N L ⋅ M + n mod N L + i , wherein M is the maximum number of PDCCH candidates of all CIF values configured for aggregation level L, N is the number of CCEs in the CORESET, Y is a parameter based on radio network temporary ID, RNTI, value, and i = 0 , ... , L − 1 . a control section configured to determine control resource element, CCE, indexes for a plurality of physical downlink control channel, PDCCH, candidates, wherein the plurality of PDCCH candidates are configured for an aggregation level L of a search space for a serving cell corresponding to a carrier indicator field, CIF, value n of CIF values configured for the aggregation level L; and a receiving section configured to monitor the plurality of PDCCH candidates within a control resource set, CORESET; wherein an index of a starting CCE of a PDCCH candidate m of the plurality of PDCCH candidates is given by the following formula: L ⋅ Y + m ⋅ N L ⋅ M + n mod N L + i , wherein M is the maximum number of PDCCH candidates of all CIF values configured for aggregation level L, N is the number of CCEs in the CORESET, Y is a parameter based on radio network temporary ID, RNTI, value, and i = 0 , ... , L − 1 .
An assembly, comprising an optical voltage sensor and a gas-tight compartment , the optical voltage sensor comprising a module , • with the module comprising first and second electrodes , for applying a potential difference defining the voltage to be measured, and an electro-optic crystal having a first facet electrically connected to the first electrode and a second facet electrically connected to the second electrode , • with the gas-tight compartment and the module designed so that the module can be mounted in the gas-tight compartment , wherein the electro-optic crystal is the only element of the module that mechanically connects the two electrodes and bridges the potentials of the two electrodes , with the first and second facet of the electro-optic crystal being coated, partially or completely, with electrically conductive layers that are transparent at both facets , or are transparent at one facet and reflective at the other facet , characterized by surface parts of the electro-optic crystal , that are exposed to a potential drop, being coated partially or completely with a layer having a moderate electrical conductivity, which is larger than the conductivity of the electro-optic crystal and is smaller than the conductivity of the electrically conductive layers at the first and second facets . • with the module comprising first and second electrodes , for applying a potential difference defining the voltage to be measured, and an electro-optic crystal having a first facet electrically connected to the first electrode and a second facet electrically connected to the second electrode , • with the gas-tight compartment and the module designed so that the module can be mounted in the gas-tight compartment ,
Battery housing comprising a cover section and a base section , which delimit a receiving space for one or more energy stores , and an underride guard , which is arranged underneath the base section , wherein the cover section , the base section and the underride guard are connected to one another by one or more fastening devices , wherein the or each fastening device comprises a sleeve arranged between a cover section and base section with a longitudinal bore and a fastening element guided through the longitudinal bore with a shaft and an abutment head formed on one side, characterised in that a sealing ring through which the shaft passes or is to pass is arranged in the longitudinal bore , and in that a sealing device through which the shaft passes and which seals the transitional region of the base section towards the sleeve is arranged between the underride guard and the base section .
A sorting method, comprising: flowing a species contained in a fluid within a microfluidic channel having a first outlet and a second outlet ; and applying acoustic waves to deflect the species to enter the second outlet , wherein in the absence of the acoustic waves , the species enters the first outlet , the acoustic waves being applied using an acoustic wave generator to deflect the species within the microfluidic channel in a direction having an axial component defined by propagation of the acoustic waves from the acoustic wave generator and a lateral component defined substantially orthogonally thereto, wherein the lateral component is greater than the axial component , wherein applying acoustic waves comprises directing fluid to the second outlet by means of a slanted groove of said microfluidic channel , wherein a vertical flow-focusing nozzle is paired with the slanted groove, wherein the slanted groove is above a sorting channel, and wherein the slanted groove allows a cell of interest to be deflected upon application of a surface acoustic wave, SAW, pulse. applying acoustic waves to deflect the species to enter the second outlet , wherein in the absence of the acoustic waves , the species enters the first outlet , the acoustic waves being applied using an acoustic wave generator to deflect the species within the microfluidic channel in a direction having an axial component defined by propagation of the acoustic waves from the acoustic wave generator and a lateral component defined substantially orthogonally thereto, wherein the lateral component is greater than the axial component , wherein applying acoustic waves comprises directing fluid to the second outlet by means of a slanted groove of said microfluidic channel , wherein a vertical flow-focusing nozzle is paired with the slanted groove, wherein the slanted groove is above a sorting channel, and wherein the slanted groove allows a cell of interest to be deflected upon application of a surface acoustic wave, SAW, pulse.