mhurhangee/ep-ind-claims huggingface dataset:
Electrical switching apparatus, comprising: - a protective casing, - at least one switching member (20A, 20B, 20C) which is arranged in the casing and comprises an input connection pad and an output connection pad, the switching member (20A, 20B, 20C) being capable of switching between a first position, which allows the current to pass between the input connection pad and the output connection pad, and a second position, which prevents the current from passing between the input connection pad and the output connection pad, - a mechanism for driving the or each switching member (20A, 20B, 20C) between its first and second positions, and - at least one auxiliary module arranged in the casing, the auxiliary module being removable relative to the casing and configured to implement an electrical or mechanical function associated with the driving mechanism, - a mechanical referencing member common to the driving mechanism and to each auxiliary module, for positioning the driving mechanism and each auxiliary module in the casing, - a plurality of switching members (20A, 20B, 20C) aligned in a transverse direction of the switching apparatus, the electrical switching apparatus being characterised in that it further comprises a plurality of spacers, each spacer separating two respective switching members (20A, 20B, 20C) in the transverse direction, the auxiliary module being mechanically coupled to a spacer. - a protective casing, - at least one switching member (20A, 20B, 20C) which is arranged in the casing and comprises an input connection pad and an output connection pad, the switching member (20A, 20B, 20C) being capable of switching between a first position, which allows the current to pass between the input connection pad and the output connection pad, and a second position, which prevents the current from passing between the input connection pad and the output connection pad, - a mechanism for driving the or each switching member (20A, 20B, 20C) between its first and second positions, and - at least one auxiliary module arranged in the casing, the auxiliary module being removable relative to the casing and configured to implement an electrical or mechanical function associated with the driving mechanism, - a mechanical referencing member common to the driving mechanism and to each auxiliary module, for positioning the driving mechanism and each auxiliary module in the casing, - a plurality of switching members (20A, 20B, 20C) aligned in a transverse direction of the switching apparatus,
A construction machine comprising: a prime mover; a hydraulic pump which is driven by the prime mover; a plurality of hydraulic actuators which are driven by hydraulic fluid supplied from the hydraulic pump; a control valve which controls flow rates of the hydraulic fluid supplied to the hydraulic actuators; a plurality of operating devices for operating the control valve; a power adjustment device which adjusts the power of the prime mover to a value specified by an operator, an energy recovery device including a regeneration hydraulic motor (81, 86) which is driven by return hydraulic fluid from a particular hydraulic actuator among the plurality of hydraulic actuators, an operation amount detection device which detects the operation amount of a particular operating device corresponding to the particular hydraulic actuator; and a control unit (90, 90A) which controls the flow rate of the hydraulic fluid recovered by the regeneration hydraulic motor (81, 86) based on input signals from the power adjustment device and the operation amount detection device, characterized in that the prime mover is an engine, and the power adjustment device is engine revolution speed setting means for setting a target revolution speed of the engine. a prime mover; a hydraulic pump which is driven by the prime mover; a plurality of hydraulic actuators which are driven by hydraulic fluid supplied from the hydraulic pump; a control valve which controls flow rates of the hydraulic fluid supplied to the hydraulic actuators; a plurality of operating devices for operating the control valve; a power adjustment device which adjusts the power of the prime mover to a value specified by an operator, an energy recovery device including a regeneration hydraulic motor (81, 86) which is driven by return hydraulic fluid from a particular hydraulic actuator among the plurality of hydraulic actuators, an operation amount detection device which detects the operation amount of a particular operating device corresponding to the particular hydraulic actuator; and a control unit (90, 90A) which controls the flow rate of the hydraulic fluid recovered by the regeneration hydraulic motor (81, 86) based on input signals from the power adjustment device and the operation amount detection device, characterized in that the prime mover is an engine, and the power adjustment device is engine revolution speed setting means for setting a target revolution speed of the engine.
A method of controlling behavior of a mobile device comprising: communicating with at least one of other mobile devices; characterised in that determining at least one of a current behavior profile or a recent change in behavior profile of the at least one of other mobile device, wherein determining at least one of the current behavior profile or a recent change in behavior profile of the at least one of the other mobile devices further includes determining a consensus, regarding said behavior profile, of at least a set number of the other mobile devices; and determining a behavior profile of the mobile device based upon the determined at least one of a current behavior profile or a recent change in behavior profile of the at least one of the other mobile device. communicating with at least one of other mobile devices; characterised in that determining at least one of a current behavior profile or a recent change in behavior profile of the at least one of other mobile device, wherein determining at least one of the current behavior profile or a recent change in behavior profile of the at least one of the other mobile devices further includes determining a consensus, regarding said behavior profile, of at least a set number of the other mobile devices; and determining a behavior profile of the mobile device based upon the determined at least one of a current behavior profile or a recent change in behavior profile of the at least one of the other mobile device.
A vehicle control system which is configured to control automatic interflow of a subject vehicle from an interflow lane to a main lane, wherein the vehicle control system is further configured to: judge whether or not predetermined condition for automatic interflow is satisfied when the subject vehicle reaches a first position of an interflow zone within the interflow lane; and start to execute a notification for urging manual interflow by a driver of the subject vehicle when it is judged that the condition for automatic interflow is not satisfied at the first position, while the vehicle control system is configured to not start to execute the notification when it is judged that the condition for automatic interflow is satisfied at the first position; characterized in that the vehicle control system is further configured to, even when the notification was not started at the first position, start to execute the notification when the subject vehicle reaches a second position between the first position and a distal end of the interflow zone. judge whether or not predetermined condition for automatic interflow is satisfied when the subject vehicle reaches a first position of an interflow zone within the interflow lane; and start to execute a notification for urging manual interflow by a driver of the subject vehicle when it is judged that the condition for automatic interflow is not satisfied at the first position, while the vehicle control system is configured to not start to execute the notification when it is judged that the condition for automatic interflow is satisfied at the first position; characterized in that the vehicle control system is further configured to, even when the notification was not started at the first position, start to execute the notification when the subject vehicle reaches a second position between the first position and a distal end of the interflow zone.
Method of determining a control setting of at least one wind turbine of a wind park, the method comprising: determining a free-stream wind turbulence; and deriving the control setting based on the free-stream wind turbulence, wherein the control setting includes a yawing offset, wherein the yawing offset is derived to be the smaller, the higher the free-stream wind turbulence is. determining a free-stream wind turbulence; and deriving the control setting based on the free-stream wind turbulence,
A method for managing an enrollment certificate, performed by an enrollment registration authority,ERA, in a security credential management system (SCMS) for vehicle-to-everything, V2X, communication, the method comprising: receiving (S100, S401) a message requesting an authority for generating a certificate signing request, CSR, from a device configuration manager, DCM; updating (S110, S402) device certification data through a certification laboratory that manages performance and requirements of an end entity, EE, and verifying the EE that requested issuance of an enrollment certificate to the DCM by using the updated device certification data; transmitting (S120, S403) response data indicating the authority for generating the CSR to the DCM based on a result of the verification of the EE that requested issuance of the enrolment certificate to the DCM; receiving the CSR generated according to the response data from the DCM; verifying (S140, S407) the received CSR, and requesting response data for the received CSR to an enrollment certificate authority, ECA, based on a result of the verification of the received CSR; receiving the response data for the received CSR from the ECA; and transmitting the response data for the received CSR to the DCM. receiving (S100, S401) a message requesting an authority for generating a certificate signing request, CSR, from a device configuration manager, DCM; updating (S110, S402) device certification data through a certification laboratory that manages performance and requirements of an end entity, EE, and verifying the EE that requested issuance of an enrollment certificate to the DCM by using the updated device certification data; transmitting (S120, S403) response data indicating the authority for generating the CSR to the DCM based on a result of the verification of the EE that requested issuance of the enrolment certificate to the DCM; receiving the CSR generated according to the response data from the DCM; verifying (S140, S407) the received CSR, and requesting response data for the received CSR to an enrollment certificate authority, ECA, based on a result of the verification of the received CSR; receiving the response data for the received CSR from the ECA; and transmitting the response data for the received CSR to the DCM.
A liquid-fuel multistage burner comprising a combustion head; a hydraulic circuit to feed liquid fuel to the combustion head; and a pneumatic circuit to feed oxidizing air to the combustion head; the hydraulic circuit comprising an atomizing nozzle projecting into the combustion head, a first pumping device to feed liquid fuel from a containing tank to the atomizing nozzle, two feeding branches (10, 11), which are arranged in parallel to one another between the first pumping device and the atomizing nozzle and are configured to feed liquid fuel to the atomizing nozzle with respective feeding pressures, which are different from one another, a valve device, which is mounted along a first feeding branch, and a pressure adjusting device which is mounted along a second feeding branch.
A system for preparing a serum, comprising: a containment device having a longitudinal axis; a cage positioned inside said containment device, the cage having a wall or walls that extend along the longitudinal axis into the containment device, wherein the cage wall or walls include a plurality of openings, and wherein the cage comprises a floor; a cap attachable to said containment device and configured to cover said cage; an inlet port in the cap configured to introduce an autologous fluid into said containment device, wherein the inlet port is located radially outwardly of the cage relative to the longitudinal axis, such that a fluid can be injected into the containment device between an inner wall of the containment device and an outer wall of the cage; an outlet port in the cap configured to remove a serum from said containment device, wherein the outlet port is located radially outwardly of the cage relative to the longitudinal axis, such that a fluid can be extracted from the containment device between an inner wall of the containment device and an outer wall of the cage; and a syringe connectable to said inlet port to inject said autologous fluid into said containment device and connectable to said outlet port to remove said serum from said containment device. a containment device having a longitudinal axis; a cage positioned inside said containment device, the cage having a wall or walls that extend along the longitudinal axis into the containment device, wherein the cage wall or walls include a plurality of openings, and wherein the cage comprises a floor; a cap attachable to said containment device and configured to cover said cage; an inlet port in the cap configured to introduce an autologous fluid into said containment device, wherein the inlet port is located radially outwardly of the cage relative to the longitudinal axis, such that a fluid can be injected into the containment device between an inner wall of the containment device and an outer wall of the cage; an outlet port in the cap configured to remove a serum from said containment device, wherein the outlet port is located radially outwardly of the cage relative to the longitudinal axis, such that a fluid can be extracted from the containment device between an inner wall of the containment device and an outer wall of the cage; and a syringe connectable to said inlet port to inject said autologous fluid into said containment device and connectable to said outlet port to remove said serum from said containment device.
An ablation system, comprising: an elongate body having an inner lumen configured to deliver fluid into a tissue mass adjacent to the elongate body; an ablation element configured to heat the tissue mass adjacent to the elongate body; and a fluid source separate from the elongate body and in fluid communication with the inner lumen for delivering fluid through the inner lumen, the fluid source containing a volume of fluid that is at least partially degassed such that the fluid contains one or more dissolved gases, wherein a partial pressure of oxygen contained in the fluid is in a range of about 2.66 to 5.33 kPa. an elongate body having an inner lumen configured to deliver fluid into a tissue mass adjacent to the elongate body; an ablation element configured to heat the tissue mass adjacent to the elongate body; and a fluid source separate from the elongate body and in fluid communication with the inner lumen for delivering fluid through the inner lumen, the fluid source containing a volume of fluid that is at least partially degassed such that the fluid contains one or more dissolved gases, wherein a partial pressure of oxygen contained in the fluid is in a range of about 2.66 to 5.33 kPa.
A sunlight-to-heat converting device comprising: a light collecting part; either or both of a container and a flow path where sunlight is collected by the light collecting part; and a heating medium housed in either or both of the container and the flow path, wherein a sunlight-to-heat converting stack is formed on a surface of either or both of the container and the flow path, said sunlight-to-heat converting stack comprising: a sunlight-to-heat converting member having the shape of a layer and a metal layer which is an infrared reflection layer that reflects thermal radiation light, characterized in that the sunlight-to-heat converting member contains chromium silicide having an element ratio of Cr to Si from 1:1.6 to 1:4.7. a light collecting part; either or both of a container and a flow path where sunlight is collected by the light collecting part; and a heating medium housed in either or both of the container and the flow path, wherein a sunlight-to-heat converting stack is formed on a surface of either or both of the container and the flow path, said sunlight-to-heat converting stack comprising: a sunlight-to-heat converting member having the shape of a layer and a metal layer which is an infrared reflection layer that reflects thermal radiation light, characterized in that the sunlight-to-heat converting member contains chromium silicide having an element ratio of Cr to Si from 1:1.6 to 1:4.7. a sunlight-to-heat converting member having the shape of a layer and a metal layer which is an infrared reflection layer that reflects thermal radiation light, characterized in that the sunlight-to-heat converting member contains chromium silicide having an element ratio of Cr to Si from 1:1.6 to 1:4.7.
A method for receiving system information, performed in a terminal, the method comprising: receiving a first minimum system information from a base station; requesting a system information other than the first minimum system information to the base station via a physical random access channel PRACH according to one of at least one system information request time indicated by the first minimum system information; and receiving the requested system information from the base station according to a system information transmission time indicated by the first minimum system information, wherein, when a transmission time of the requested system information and a transmission time of a second minimum system information are configured to be identical, the requested system information is distinguished from the second minimum system information by using identifiers configured respectively for the requested system information and the second minimum system information, and wherein the one of at least one system information request time is selected according to a type(s) of the request system information. receiving a first minimum system information from a base station; requesting a system information other than the first minimum system information to the base station via a physical random access channel PRACH according to one of at least one system information request time indicated by the first minimum system information; and receiving the requested system information from the base station according to a system information transmission time indicated by the first minimum system information, wherein, when a transmission time of the requested system information and a transmission time of a second minimum system information are configured to be identical, the requested system information is distinguished from the second minimum system information by using identifiers configured respectively for the requested system information and the second minimum system information, and wherein the one of at least one system information request time is selected according to a type(s) of the request system information.
An insole for a shoe, the insole comprising: an insole body (28,808) defining a recess; a removable assembly being removable from and insertable into the recess of the insole body, the removable assembly comprising a battery (14,846), a transmitter inductive coil configured to inductively transfer electromagnetic power, and a first circuit (210,844) configured to control the transfer of the electromagnetic power; and an internal heating element for delivering heat to at least a portion of the insole body, the internal heating element associated with a receiver inductive coil configured to wirelessly receive the inductively transferred power and deliver that received power to the internal heating element. an insole body (28,808) defining a recess; a removable assembly being removable from and insertable into the recess of the insole body, the removable assembly comprising a battery (14,846), a transmitter inductive coil configured to inductively transfer electromagnetic power, and a first circuit (210,844) configured to control the transfer of the electromagnetic power; and an internal heating element for delivering heat to at least a portion of the insole body, the internal heating element associated with a receiver inductive coil configured to wirelessly receive the inductively transferred power and deliver that received power to the internal heating element.
A driver circuit for a solid state light source, wherein the driver circuit comprises - a switched-mode power converter comprising a switch; wherein the switched-mode power converter is configured to convert an input voltage at an input of the switched-mode power converter into an output voltage at an output of the switched-mode power converter; - current sensing means configured to determine a sensed current signal indicative of a current through the switch at a first time instant; - voltage sensing means (208, 209) configured to determine a sensed voltage signal indicative of the input voltage; and - a control unit (205, 206, 306) configured to determine a second time instant for putting the switch into an off-state, based on the sensed current signal and based on the sensed voltage signal: characterized in that the control unit (205, 206, 306) is configured to estimate and compensate a current offset caused by a delay between the first time instant when the sensed current signal is determined and the second time instant when the switch is put into the off-state. - a switched-mode power converter comprising a switch; wherein the switched-mode power converter is configured to convert an input voltage at an input of the switched-mode power converter into an output voltage at an output of the switched-mode power converter; - current sensing means configured to determine a sensed current signal indicative of a current through the switch at a first time instant; - voltage sensing means (208, 209) configured to determine a sensed voltage signal indicative of the input voltage; and - a control unit (205, 206, 306) configured to determine a second time instant for putting the switch into an off-state, based on the sensed current signal and based on the sensed voltage signal: