mhurhangee/ep-ind-claims huggingface dataset:
A method for intersystem single sign-on, SSO, the method comprising: in a first system, obtaining a user's ID information associated with the first system; in the first system, obtaining the user's ID information associated with a second system from the user's ID information associated with the first system according to a user ID mapping relationship between the first system and the second system; in the first system, creating a signature that includes a timestamp and the user ID information associated with the second system upon receiving an indication that the user intends to sign on the second system and redirecting the logon request back to the second system upon creating the signature; sending the signature along with the user's ID information associated with the second system to the second system; and in the second system, validating the user's ID information by examining the signature received and by comparing the timestamp of said received signature with a timestamp of a previous ID signature of the same user sent from the first system, the signature being valid when: a first time indicated by the timestamp of the received signature is after a second time indicated by the timestamp of the previous signature of the user, or the first time indicated by the received timestamp of the signature is within a predetermined threshold duration of a present time. in a first system, obtaining a user's ID information associated with the first system; in the first system, obtaining the user's ID information associated with a second system from the user's ID information associated with the first system according to a user ID mapping relationship between the first system and the second system; in the first system, creating a signature that includes a timestamp and the user ID information associated with the second system upon receiving an indication that the user intends to sign on the second system and redirecting the logon request back to the second system upon creating the signature; sending the signature along with the user's ID information associated with the second system to the second system; and in the second system, validating the user's ID information by examining the signature received and by comparing the timestamp of said received signature with a timestamp of a previous ID signature of the same user sent from the first system, the signature being valid when: a first time indicated by the timestamp of the received signature is after a second time indicated by the timestamp of the previous signature of the user, or the first time indicated by the received timestamp of the signature is within a predetermined threshold duration of a present time. a first time indicated by the timestamp of the received signature is after a second time indicated by the timestamp of the previous signature of the user, or the first time indicated by the received timestamp of the signature is within a predetermined threshold duration of a present time.
A wireless communication method performed by a wireless terminal, the wireless communication method comprising: receiving, from a wireless network node, a configuration indicating resources of at least one reference signal, and transmitting, to the wireless network node, at least one report based on the configuration, wherein the at least one report comprises measurement results of at least one measurement performed based on the resources of the at least one reference signal, wherein the configuration indicates a resource reuse mode per reference signal, per group of reference signals or per groups of reference signals, wherein the resource reuse mode indicates the resources where reference signals associated with the resource reuse mode are transmitted, wherein the resources are a frequency region and/or a polarization mode, wherein the resource reuse mode is indicated by a Quasi Co-Location, QCL, relationship between each of the one ore more reference signals and an associated reference signal for QCL indication. receiving, from a wireless network node, a configuration indicating resources of at least one reference signal, and transmitting, to the wireless network node, at least one report based on the configuration, wherein the at least one report comprises measurement results of at least one measurement performed based on the resources of the at least one reference signal, wherein the configuration indicates a resource reuse mode per reference signal, per group of reference signals or per groups of reference signals, wherein the resource reuse mode indicates the resources where reference signals associated with the resource reuse mode are transmitted, wherein the resources are a frequency region and/or a polarization mode, wherein the resource reuse mode is indicated by a Quasi Co-Location, QCL, relationship between each of the one ore more reference signals and an associated reference signal for QCL indication.
A device for generating steam, said device comprising: - a plate forming a surface, - a heating element to heat the plate to a predetermined temperature being at least above water evaporation temperature, the plate being inclined at an angle compared to the horizontal direction to define an upper end and a lower end, - a water inlet arrangement for dispensing water onto the plate proximate said upper end, - a control unit to control the flow of water dispensed onto the plate and the temperature of the plate, - a scale collection container disposed adjacent to said lower end of the plate, the control unit being configured to control the flow of water dispensed onto the plate and the temperature of the plate so that substantially all the water dispensed onto the plate evaporates before it reaches the lower end of the plate, characterised in that the plate is partially bordered by a wall, a boundary formed by the wall being open at the lower end so that the plate communicates with the scale collection container. - a plate forming a surface, - a heating element to heat the plate to a predetermined temperature being at least above water evaporation temperature, the plate being inclined at an angle compared to the horizontal direction to define an upper end and a lower end, - a water inlet arrangement for dispensing water onto the plate proximate said upper end, - a control unit to control the flow of water dispensed onto the plate and the temperature of the plate, - a scale collection container disposed adjacent to said lower end of the plate, the control unit being configured to control the flow of water dispensed onto the plate and the temperature of the plate so that substantially all the water dispensed onto the plate evaporates before it reaches the lower end of the plate, characterised in that the plate is partially bordered by a wall, a boundary formed by the wall being open at the lower end so that the plate communicates with the scale collection container.
A process for setting-up a control module, equipped with a user interface, of a two-part wall control device comprising a wall box and the control module, whereby the control module can be inserted into the wall box and removed from it, whereby the control module's rear side has several mounting tabs that are for fastening the control module into the seat of the wall box, and whereby an electrical plug is provided on the rear side of the control module, which fits into a current or data socket of the seat, whereby the control module is intended to control an actuator of a building automation system, both manually by a human user through the wall control device and automatically, whereby the control module is connected to a parameterization device for electrical supply and data exchange, whereby user interface of the control module comprises a module display, characterized in that the parameterization device comprises a module interface for connecting a control module to the parameterization device for the purpose of electrical supply to the control module and exchange of parameterization data sets between the control module and the parameterization device, whereby the module interface is designed in the form of a receptacle with fixing devices to mechanically fix a control module (108, 108') and with an electrical plug connection for electrical supply to a connected control module and for data exchange with the same, whereby the current clock time and/or the current date are exchanged between the parameterization device and the control module, whereby the current clock time and/or the current date are copied from the parameterization device to the control module or from the control module to the parameterization device, whereby during the exchange of the current clock time and/or the current date, they are displayed to the user through the user interface, whereby the user interface functions as the user interface of the parameterization device, whereby for functional testing of the control module at least one of its control functions is triggered, whereby the control signals triggered by the control function sent from the control module are received by the parameterization device, and whereby the parameterization device shows the received control signals for monitoring by the user, whereby the parameterization device shows the received control signals through the module display.
A method of coating an optical fiber comprising the steps of: (a) drawing a glass optical fiber through a draw tower; (b) applying a primary coating composition onto the surface of the glass optical fiber; (c) optionally, exposing the primary coating composition to a first light emitting diode capable of emitting ultraviolet radiation to affect curing of said primary coating composition; (d) applying a secondary coating composition to the primary coating composition; (e) exposing the primary coating composition and the secondary coating composition to at least one of the group consisting of the first light emitting diode and a second light emitting diode capable of emitting ultraviolet radiation to affect curing of said primary coating composition and said secondary coating composition, to form a cured primary coating on the surface of the optical fiber, and a cured secondary coating on the surface of the cured primary coating; wherein the secondary coating composition comprises: i. from 5 wt.% to 20 wt.%, relative to the total weight of the secondary coating composition, preferably from 5 wt.% to 10 wt.%, of a vinyl ether monomer, wherein the vinyl ether monomer contains a backbone selected from the group consisting of an ethylene oxide, propylene oxide or butylene oxide; ii. a urethane (meth)acrylate oligomer; and iii. one or more free-radical photoinitiators, preferably selected from the group consisting of mono acyl phosphine oxide and bis acyl phosphine oxide. (a) drawing a glass optical fiber through a draw tower; (b) applying a primary coating composition onto the surface of the glass optical fiber; (c) optionally, exposing the primary coating composition to a first light emitting diode capable of emitting ultraviolet radiation to affect curing of said primary coating composition; (d) applying a secondary coating composition to the primary coating composition; (e) exposing the primary coating composition and the secondary coating composition to at least one of the group consisting of the first light emitting diode and a second light emitting diode capable of emitting ultraviolet radiation to affect curing of said primary coating composition and said secondary coating composition, to form a cured primary coating on the surface of the optical fiber, and a cured secondary coating on the surface of the cured primary coating; i. from 5 wt.% to 20 wt.%, relative to the total weight of the secondary coating composition, preferably from 5 wt.% to 10 wt.%, of a vinyl ether monomer, wherein the vinyl ether monomer contains a backbone selected from the group consisting of an ethylene oxide, propylene oxide or butylene oxide; ii. a urethane (meth)acrylate oligomer; and iii. one or more free-radical photoinitiators, preferably selected from the group consisting of mono acyl phosphine oxide and bis acyl phosphine oxide.
A method for controlling an electric vehicle, wherein: - the electric vehicle is driven by a plurality of electric motors (33, 43) including a first electric motor, in which a lubricant, which is used for lubricating the electric motors (33, 43) and power transmission systems therefor, is used for cooling the electric motors (33, 43), - the electric vehicle includes a plurality of pumps (34, 44) that cool the electric motors (33, 43) by circulating the lubricant and that are provided for each of the plurality of electric motors (33, 43), and - the method comprises: - setting torque distributions for the plurality of electric motors (33, 43) on the basis of a driving force required by the electric vehicle; - controlling the drive of the plurality of electric motors (33, 43) on the basis of the set torque distributions; and - circulating intermittently the lubricant used for cooling the first electric motor when the torque distribution set for the first electric motor is smaller than a predetermined value which is regarded as a reference value. - the electric vehicle is driven by a plurality of electric motors (33, 43) including a first electric motor, in which a lubricant, which is used for lubricating the electric motors (33, 43) and power transmission systems therefor, is used for cooling the electric motors (33, 43), - the electric vehicle includes a plurality of pumps (34, 44) that cool the electric motors (33, 43) by circulating the lubricant and that are provided for each of the plurality of electric motors (33, 43), and - the method comprises: - setting torque distributions for the plurality of electric motors (33, 43) on the basis of a driving force required by the electric vehicle; - controlling the drive of the plurality of electric motors (33, 43) on the basis of the set torque distributions; and - circulating intermittently the lubricant used for cooling the first electric motor when the torque distribution set for the first electric motor is smaller than a predetermined value which is regarded as a reference value. - setting torque distributions for the plurality of electric motors (33, 43) on the basis of a driving force required by the electric vehicle; - controlling the drive of the plurality of electric motors (33, 43) on the basis of the set torque distributions; and - circulating intermittently the lubricant used for cooling the first electric motor when the torque distribution set for the first electric motor is smaller than a predetermined value which is regarded as a reference value.
A transit fare system for sensing exposure to items of interest, the transit fare system comprising: a vending machine for delivering a purchased transit card; a unique identifier associated with the purchased transit card; at least one machine for sensing the unique identifier, such as a fare gate, a ticket booth, the vending machine, a card validator or a turnstile, the at least one machine comprising a processor and an exposure detector configured to detect exposure to items of interest by the purchased transit card or a person being the holder of the purchased transit card; wherein the processor is coupled to the exposure detector and the processor is configured to: flag the unique identifier when exposure to items of interest is detected, encode the purchased transit card with an alert condition, and communicate a message away from the processor to a remote location when the unique identifier is flagged; and further comprising a fare gate configured to read the unique identifier, automatically analyze any alert condition and control access of the person according to the outcome of the analysis. a vending machine for delivering a purchased transit card; a unique identifier associated with the purchased transit card; at least one machine for sensing the unique identifier, such as a fare gate, a ticket booth, the vending machine, a card validator or a turnstile, the at least one machine comprising a processor and an exposure detector configured to detect exposure to items of interest by the purchased transit card or a person being the holder of the purchased transit card; wherein the processor is coupled to the exposure detector and the processor is configured to: flag the unique identifier when exposure to items of interest is detected, encode the purchased transit card with an alert condition, and communicate a message away from the processor to a remote location when the unique identifier is flagged; and flag the unique identifier when exposure to items of interest is detected, encode the purchased transit card with an alert condition, and communicate a message away from the processor to a remote location when the unique identifier is flagged; and further comprising a fare gate configured to read the unique identifier, automatically analyze any alert condition and control access of the person according to the outcome of the analysis.
A force sensor system, comprising: a substrate including a first side and a second side; a cover coupled to the first side of the substrate, the cover having an inner surface, an outer surface, an opening extending between the inner and outer surfaces, and a wall structure extending from the inner surface that defines a sensor cavity and a processor cavity between the inner surface and the substrate; a sensor mounted on the first side of the substrate and disposed within the sensor cavity, the sensor configured to generate a sensor signal representative of a force supplied to the sensor; a processor mounted on the first side of the substrate and disposed within the processor cavity, the processor coupled to receive the sensor signal and configured, upon receipt thereof, to supply a force sensor output signal; a load bearing element coupled to the second side of the substrate and arranged to transfer load from a force applied to the sensor mounted on the first side of the substrate, through the substrate, to a bottom surface of the load bearing element; and a spherical force transfer element disposed partially within sensor cavity and movable relative to the cover, the spherical force transfer element extending from the opening in the cover and engaging the sensor, the spherical force transfer element adapted to receive an input force and configured, upon receipt of the input force, to transfer the input force to the sensor. a substrate including a first side and a second side; a cover coupled to the first side of the substrate, the cover having an inner surface, an outer surface, an opening extending between the inner and outer surfaces, and a wall structure extending from the inner surface that defines a sensor cavity and a processor cavity between the inner surface and the substrate; a sensor mounted on the first side of the substrate and disposed within the sensor cavity, the sensor configured to generate a sensor signal representative of a force supplied to the sensor; a processor mounted on the first side of the substrate and disposed within the processor cavity, the processor coupled to receive the sensor signal and configured, upon receipt thereof, to supply a force sensor output signal; a load bearing element coupled to the second side of the substrate and arranged to transfer load from a force applied to the sensor mounted on the first side of the substrate, through the substrate, to a bottom surface of the load bearing element; and a spherical force transfer element disposed partially within sensor cavity and movable relative to the cover, the spherical force transfer element extending from the opening in the cover and engaging the sensor, the spherical force transfer element adapted to receive an input force and configured, upon receipt of the input force, to transfer the input force to the sensor.
Temporo-mandibular prosthesis comprising a glenoid part and a condylar part intended to be articulated relative to the glenoid part in a service position in which said glenoid part and condylar part are rigidly fixed to a temporal bone and a mandible of a patient, respectively, said glenoid part comprising: - a glenoid support made in a metallic material; and - a glenoid insert made in a non-metallic material, preferably in a polymeric material, and defining a seat for a head of said condylar part to define said articulation, wherein the glenoid support defines a housing having an opening through which said glenoid insert is insertable into said housing, said opening opening on an external side of said glenoid support, the external side being the side of said glenoid support which is oriented towards the skin of the patient in the service position, characterised in that the glenoid support comprises a tab configurable in a passive position and in an active position in which said tab allows and forbids, respectively, the insertion and the extraction, respectively, of said glenoid insert into and out of said housing, respectively. - a glenoid support made in a metallic material; and - a glenoid insert made in a non-metallic material, preferably in a polymeric material, and defining a seat for a head of said condylar part to define said articulation, wherein the glenoid support defines a housing having an opening through which said glenoid insert is insertable into said housing, said opening opening on an external side of said glenoid support, the external side being the side of said glenoid support which is oriented towards the skin of the patient in the service position, characterised in that the glenoid support comprises a tab configurable in a passive position and in an active position in which said tab allows and forbids, respectively, the insertion and the extraction, respectively, of said glenoid insert into and out of said housing, respectively.
A steering control device for providing a steering assist torque when a steering system of a vehicle returns to a neutral position, comprising: an actuator (6,7) for applying a steering assist torque to the steering system; and a vehicle turning state detection section for detecting a state amount representing a turning state of the vehicle; characterized in that the steering control device comprises: a steering-holding determination section for determining a steering-holding state of the steering system; a storing section for storing, when the steering-holding determination section determines that the steering system is in the steering-holding state, the state amount detected by the vehicle turning state detection section as a steering-holding determination state amount; a steering assist torque calculation section for calculating the steering assist torque based on an absolute value of the steering-holding determination state amount; and an actuator control section for controlling the actuator based on the calculated steering assist torque. an actuator (6,7) for applying a steering assist torque to the steering system; and a vehicle turning state detection section for detecting a state amount representing a turning state of the vehicle; a steering-holding determination section for determining a steering-holding state of the steering system; a storing section for storing, when the steering-holding determination section determines that the steering system is in the steering-holding state, the state amount detected by the vehicle turning state detection section as a steering-holding determination state amount; a steering assist torque calculation section for calculating the steering assist torque based on an absolute value of the steering-holding determination state amount; and an actuator control section for controlling the actuator based on the calculated steering assist torque.