mhurhangee/patent-ind-claim-en huggingface dataset:
A method of wireless communication to account for varying latency requirements, comprising: configuring a carrier with a first region having a first symbol duration and a second region having a second symbol duration different from the first symbol duration, wherein the first and second regions are time-division multiplexed, TDM, or frequency-division multiplexed, FDM; and communicating with a user equipment, UE, using the first or second region based at least in part on a latency requirement of the UE , wherein the region of shorter symbol duration of the first or second regions is used for low latency traffic of the UE , and wherein a symbol comprises an orthogonal frequency-division multiplexing, OFDM, or a single carrier frequency division multiplex, SC-FDM, symbol. configuring a carrier with a first region having a first symbol duration and a second region having a second symbol duration different from the first symbol duration, wherein the first and second regions are time-division multiplexed, TDM, or frequency-division multiplexed, FDM; and communicating with a user equipment, UE, using the first or second region based at least in part on a latency requirement of the UE , wherein the region of shorter symbol duration of the first or second regions is used for low latency traffic of the UE , and wherein a symbol comprises an orthogonal frequency-division multiplexing, OFDM, or a single carrier frequency division multiplex, SC-FDM, symbol.
A method comprising: initiating an authorization process by, receiving (S101), by a resource provider system , a portable device identifier and a cryptogram from a portable device ; verifying (S102), by the resource provider system, the cryptogram, wherein verifying the cryptogram comprises: generating a second cryptogram based at least in part on the portable device identifier and an intermediate access identifier, the intermediate access identifier comprising a virtual primary account number not operable for being used to directly conduct a transaction; and comparing the second cryptogram with the cryptogram to determine if they match; obtaining, by the resource provider system, an authentication response indicator after verification of the cryptogram; generating (S108), by the resource provider system and based at least in part on the authentication response indicator, an authorization request message comprising an access identifier, the access identifier comprising a primary account number; transmitting, by the resource provider system, the authorization request message to a processing computer; and receiving (S112), by the resource provider system from the processing computer, an authorization response message comprising an authorization response indicator, wherein the authorization process is performed in real-time and is completed by receipt of the authorization response message. initiating an authorization process by, receiving (S101), by a resource provider system , a portable device identifier and a cryptogram from a portable device ; verifying (S102), by the resource provider system, the cryptogram, wherein verifying the cryptogram comprises: generating a second cryptogram based at least in part on the portable device identifier and an intermediate access identifier, the intermediate access identifier comprising a virtual primary account number not operable for being used to directly conduct a transaction; and comparing the second cryptogram with the cryptogram to determine if they match; generating a second cryptogram based at least in part on the portable device identifier and an intermediate access identifier, the intermediate access identifier comprising a virtual primary account number not operable for being used to directly conduct a transaction; and comparing the second cryptogram with the cryptogram to determine if they match; obtaining, by the resource provider system, an authentication response indicator after verification of the cryptogram; generating (S108), by the resource provider system and based at least in part on the authentication response indicator, an authorization request message comprising an access identifier, the access identifier comprising a primary account number; transmitting, by the resource provider system, the authorization request message to a processing computer; and receiving (S112), by the resource provider system from the processing computer, an authorization response message comprising an authorization response indicator, wherein the authorization process is performed in real-time and is completed by receipt of the authorization response message.
A clothes treatment apparatus comprising: a cabinet comprising an accommodation space to accommodate clothes therein; a heated air generating device configured to generate heated air; a steam generating device configured to generate steam; a moving nozzle device configured to supply at least one of the steam and heated air to the accommodation space selectively, when moving within the accommodation space , in communication with the heated air generating device and the steam generating device; wherein the moving nozzle device comprises: a guide part and a nozzle moving part configured to linearly reciprocate along the guide part on an inner circumferential surface of the accommodation space ; characterised in that the moving nozzle device further comprises: an arm supporting part rotatably provided in the nozzle moving part ; a pair of nozzle arms rotatably coupled to opposite ends of the arm supporting part , to spray at least one of the heated air and steam to the accommodation space , in communication with the heated air generating device and the steam generating device. a cabinet comprising an accommodation space to accommodate clothes therein; a heated air generating device configured to generate heated air; a steam generating device configured to generate steam; a moving nozzle device configured to supply at least one of the steam and heated air to the accommodation space selectively, when moving within the accommodation space , in communication with the heated air generating device and the steam generating device; wherein the moving nozzle device comprises: a guide part and a nozzle moving part configured to linearly reciprocate along the guide part on an inner circumferential surface of the accommodation space ; characterised in that the moving nozzle device further comprises: an arm supporting part rotatably provided in the nozzle moving part ; a pair of nozzle arms rotatably coupled to opposite ends of the arm supporting part , to spray at least one of the heated air and steam to the accommodation space , in communication with the heated air generating device and the steam generating device. an arm supporting part rotatably provided in the nozzle moving part ; a pair of nozzle arms rotatably coupled to opposite ends of the arm supporting part , to spray at least one of the heated air and steam to the accommodation space , in communication with the heated air generating device and the steam generating device.
A method comprising: receiving, by a telecommunication device , a network packet from an application of the telecommunication device; selecting, by the telecommunication device, a network connectivity from a plurality of network connectivities based at least in part on user routing criteria , connectivity metrics and network packet attributes associated with the network packet, the plurality of network connectivities being respectively associated with a plurality of network operators; and transmitting, by the telecommunication device, the network packet using the selected network connectivity. receiving, by a telecommunication device , a network packet from an application of the telecommunication device; selecting, by the telecommunication device, a network connectivity from a plurality of network connectivities based at least in part on user routing criteria , connectivity metrics and network packet attributes associated with the network packet, the plurality of network connectivities being respectively associated with a plurality of network operators; and transmitting, by the telecommunication device, the network packet using the selected network connectivity.
An escapement mechanism arranged to transmit mechanical energy impulses from a driving source to a timepiece oscillating regulator by way of a leaf spring working in buckling mode around an inflexion point (I), said leaf spring being likely, by way of a winding lever and a detent lever , to accumulate the energy originating from the driving source during a winding phase, to then remain in a wound state during a locking phase, and to then restore the accumulated energy to said oscillating regulator during a detent phase, the winding lever being arranged to cooperate with at least one winding wheel so as to wind the leaf spring during winding phases, the winding wheel or each winding wheel having on a periphery a plurality of winding cams , each defining a cam surface and the winding lever having at least one winding pin forming a cam follower in such a way that each winding pin slides on the cam surface of one of the winding cams during winding phases of the leaf spring, the mechanism additionally having a locking lever for the winding lever during locking phases at least, a mechanism in which the locking lever has two locking pallets arranged to cooperate with additional locking members , in particular catches, on said winding lever , and characterized in that the at least one said winding wheel and said winding lever are arranged respectively in such a way that the winding wheel or each winding wheel is stopped by being wedged between a winding pin and a cam surface of a said winding cam and between a said locking pallet and a said additional locking member at the end of each winding phase and during the locking phases.
Aqueous alkaline binder composition for curing with carbon dioxide gas, comprising - a negatively charged or uncharged phenol-aldehyde resin, comprising phenol groups, which is selected from the group consisting of resoles and mixtures comprising one or more resoles and also one or more novolacs, - an oxyanion, selected from the group consisting of borate ions, aluminate ions, stannate ions, zirconate ions, titanate ions, and mixtures thereof, for forming a stable complex with the resole-phenol-aldehyde resin and - one or more silanes in a total amount in the range from 2.5 to 10 wt%, based on the total mass of the binder composition, where the total molar amount of the phenol groups of the phenol-aldehyde resin in the aqueous alkaline binder composition is in the range from 1 to 3 mol/kg, based on the total mass of the aqueous alkaline binder composition. - a negatively charged or uncharged phenol-aldehyde resin, comprising phenol groups, which is selected from the group consisting of resoles and mixtures comprising one or more resoles and also one or more novolacs, - an oxyanion, selected from the group consisting of borate ions, aluminate ions, stannate ions, zirconate ions, titanate ions, and mixtures thereof, for forming a stable complex with the resole-phenol-aldehyde resin and - one or more silanes in a total amount in the range from 2.5 to 10 wt%, based on the total mass of the binder composition,
A method of rapidly manufacturing an orthopaedic prosthesis having a porous substrate , the porous substrate including an outer surface and a plurality of ligaments that define pores beneath the outer surface, the method comprising the steps of: depositing a plurality of metal powder particles onto the outer surface of the porous substrate ; allowing at least a first portion of the plurality of metal powder particles to enter the pores beneath the outer surface of the porous substrate into a first layer (L 1 ) of the porous substrate, wherein a second layer (L 3 ) of the porous substrate beneath the first layer is unoccupied by metal powder particles, the first portion of the plurality of metal powder particles being sized to fit within the pores of the porous substrate; and applying an energy source to the first portion of the plurality of metal powder particles to form solid metal , the solid metal interdigitating into, and substantially filling, the pores of the first layer (L 1 ) of the porous substrate, to form the first layer into an interdigitating layer (L 1 ), wherein the pores of the second layer (L 3 ) of the porous substrate are unoccupied by the solid metal , the second layer forming a porous bone-ingrowth layer (L 3 ). depositing a plurality of metal powder particles onto the outer surface of the porous substrate ; allowing at least a first portion of the plurality of metal powder particles to enter the pores beneath the outer surface of the porous substrate into a first layer (L 1 ) of the porous substrate, wherein a second layer (L 3 ) of the porous substrate beneath the first layer is unoccupied by metal powder particles, the first portion of the plurality of metal powder particles being sized to fit within the pores of the porous substrate; and applying an energy source to the first portion of the plurality of metal powder particles to form solid metal , the solid metal interdigitating into, and substantially filling, the pores of the first layer (L 1 ) of the porous substrate, to form the first layer into an interdigitating layer (L 1 ), wherein the pores of the second layer (L 3 ) of the porous substrate are unoccupied by the solid metal , the second layer forming a porous bone-ingrowth layer (L 3 ).
A seal ring , which is to be used in a hydraulic sealing device including a housing having a shaft hole and a shaft to be inserted into the shaft hole, the seal ring to be mounted to a shaft annular groove formed in the shaft, to be brought into contact with an inner peripheral surface of the housing, and to be brought into slidably contact with a side wall surface of the shaft annular groove, which is opposed to a side to which a sealed fluid flows, so as to seal an annular groove between them, wherein, when an axial width of a seal ring outer peripheral surface is a first width, a longitudinal sectional shape of the sealing ring as viewed in a circumferential direction has the first width as a maximum axial width of the seal ring and has a level difference portion that forms a second width (a21, a211) smaller than the first width at a position of the shaft outer peripheral surface closer to a shaft center in a direction from the seal ring outer peripheral surface to a seal ring inner peripheral surface, wherein the level difference portion is present over an entire periphery in the circumferential direction on, at least, a seal ring contact surface among the seal ring contact surface and a seal ring pressure-receiving surface, the seal ring contact surface being slidably contact with the side wall surface of the shaft annular groove that forms the first width, the seal ring pressure-receiving surface being opposing to the seal ring contact surface, wherein the level difference portion is formed so that, at seal ring abutment joint portions of the seal ring which are opposed to each other, a center line (M2) of the second width on an abutment joint end surface on an inner periphery side of a seal ring abutment joint portion at one end at which the abutment joint end surface of the seal ring is positioned on the side to which the sealed fluid flows is positioned on a side closer to the seal ring pressure-receiving surface with respect to a center line of the first width on the same longitudinal cross section of the seal ring as viewed in the circumferential direction, characterized in that the level difference portion is formed so that the center line of the second width on an abutment joint end surface at another end on the inner periphery side of the seal ring abutment joint portion is positioned on a side closer to the seal ring contact surface with respect to the center line of the second width on the abutment joint end surface at the one end on the inner periphery side of the seal ring, wherein the level difference portion is formed so that the center line of the second width in the circumferential direction of the seal ring in which the sealed fluid flows draws a trajectory of extending along the circumferential direction and shifting from the abutment joint end surface on the inner periphery side of the seal ring abutment joint portion at the one end toward the abutment joint end surface on the inner periphery side of the seal ring abutment joint portion at the another end so as to be closer to the seal ring contact surface.
A backrest comprising: a peripheral frame defining a central opening and comprising a pair of laterally spaced upright members connected with longitudinally spaced upper and lower members; and a flexible shell comprising opposite sides coupled to the upright members and upper and lower portions coupled to the upper and lower members, wherein the shell comprises: first and second slots extending longitudinally along opposite sides of the shell inboard of locations where the shell is connected to the upright members; and one or more third slots extending laterally along the lower portion of the shell above a location where the shell is connected to the lower member, wherein terminal ends of the one or more third slots are spaced apart from lower terminal ends of the first and second slots, wherein the shell comprises first and second bridge portions defined between the terminal ends of the one or more third slot and the lower terminal ends of the first and second slots; a plurality of openings arranged between the first and second slots and above the one or more third slots; and a ring-like peripheral edge portion surrounding the plurality of openings. a peripheral frame defining a central opening and comprising a pair of laterally spaced upright members connected with longitudinally spaced upper and lower members; and a flexible shell comprising opposite sides coupled to the upright members and upper and lower portions coupled to the upper and lower members, wherein the shell comprises: first and second slots extending longitudinally along opposite sides of the shell inboard of locations where the shell is connected to the upright members; and one or more third slots extending laterally along the lower portion of the shell above a location where the shell is connected to the lower member, wherein terminal ends of the one or more third slots are spaced apart from lower terminal ends of the first and second slots, wherein the shell comprises first and second bridge portions defined between the terminal ends of the one or more third slot and the lower terminal ends of the first and second slots; a plurality of openings arranged between the first and second slots and above the one or more third slots; and a ring-like peripheral edge portion surrounding the plurality of openings. first and second slots extending longitudinally along opposite sides of the shell inboard of locations where the shell is connected to the upright members; and one or more third slots extending laterally along the lower portion of the shell above a location where the shell is connected to the lower member, wherein terminal ends of the one or more third slots are spaced apart from lower terminal ends of the first and second slots, wherein the shell comprises first and second bridge portions defined between the terminal ends of the one or more third slot and the lower terminal ends of the first and second slots; a plurality of openings arranged between the first and second slots and above the one or more third slots; and a ring-like peripheral edge portion surrounding the plurality of openings.
A method by a user equipment, UE, for an inter public land mobile network, PLMN, device to device, D2D, discovery, the method comprising: sending , to a device to device, D2D, function in a home PLMN, HPLMN, a discovery request for monitoring discovery information; receiving , from the D2D function, a discovery response message comprising a list of PLMNs to be monitored; determining, as a PLMN for monitoring a D2D discovery signal, a PLMN which is on the list of PLMNs to be monitored and on PLMNs that the UE is authorized to monitor, identifying a frequency corresponding to the determined PLMN from a list of frequencies of neighboring cells and a list of PLMNs corresponding to the frequencies received on system information broadcasted by a serving cell; tuning to the frequency of the PLMN, identifying a neighboring cell in the PLMN, and reading system information from the neighboring cell; determining discovery resources configured in the neighboring cell based on the system information; and monitoring the discovery resources for the D2D discovery signal. sending , to a device to device, D2D, function in a home PLMN, HPLMN, a discovery request for monitoring discovery information; receiving , from the D2D function, a discovery response message comprising a list of PLMNs to be monitored; determining, as a PLMN for monitoring a D2D discovery signal, a PLMN which is on the list of PLMNs to be monitored and on PLMNs that the UE is authorized to monitor, identifying a frequency corresponding to the determined PLMN from a list of frequencies of neighboring cells and a list of PLMNs corresponding to the frequencies received on system information broadcasted by a serving cell; tuning to the frequency of the PLMN, identifying a neighboring cell in the PLMN, and reading system information from the neighboring cell; determining discovery resources configured in the neighboring cell based on the system information; and monitoring the discovery resources for the D2D discovery signal.
Striking tool for treatment of bones in hip operations, consisting of a housing with a cylinder/piston arrangement with a pneumatically or electrically driven piston and a tool holder , characterized in that two or more handles are arranged at regular intervals around the cylinder/piston assembly. consisting of a housing with a cylinder/piston arrangement with a pneumatically or electrically driven piston and a tool holder , characterized in that two or more handles are arranged at regular intervals around the cylinder/piston assembly.
Method for securely starting device software, in particular an operating system, of an electronic device, in which a plurality of successive software modules containing software code are executed by the device, comprising the steps of: a) executing (S1) the first software module which comprises trusted software code and forms a root of trust, b) loading (S2) the subsequent software module by way of the preceding software module , c) checking (S3) the software code of the subsequent software module and identifying security features on the basis of an identification scheme (M1), d) assessing (S4) the identified security features on the basis of a security guideline (P1), e) executing (S5) the subsequent software module if the assessment reveals a trustworthiness value which is above a predefined threshold value, and f) carrying out (S6) steps b) to e) for all further subsequent software modules , wherein security features are functions which are performed by the software code and are undesirable within the software module. a) executing (S1) the first software module which comprises trusted software code and forms a root of trust, b) loading (S2) the subsequent software module by way of the preceding software module , c) checking (S3) the software code of the subsequent software module and identifying security features on the basis of an identification scheme (M1), d) assessing (S4) the identified security features on the basis of a security guideline (P1), e) executing (S5) the subsequent software module if the assessment reveals a trustworthiness value which is above a predefined threshold value, and f) carrying out (S6) steps b) to e) for all further subsequent software modules ,