mhurhangee/ep-ind-claims huggingface dataset:
A method for creating communication resources during handover by a user equipment, UE, from a Non-3GPP access system to a 3GPP access system, comprising: receiving, by a packet data network gateway, PDN GW, a second create default bearer request from a serving gateway after the serving gateway receives a first create default bearer request message from a mobility management entity, MME, when an access request is sent to the MME by the user equipment, UE, wherein the first create default bearer request message and the second create default bearer request message include a handover indication indicating a handover attach by the UE; and performing, by the PDN GW, a process for creating resources in the 3GPP access system to be required for the services which are used by the UE in the Non-3GPP access system according to the handover indication. receiving, by a packet data network gateway, PDN GW, a second create default bearer request from a serving gateway after the serving gateway receives a first create default bearer request message from a mobility management entity, MME, when an access request is sent to the MME by the user equipment, UE, wherein the first create default bearer request message and the second create default bearer request message include a handover indication indicating a handover attach by the UE; and performing, by the PDN GW, a process for creating resources in the 3GPP access system to be required for the services which are used by the UE in the Non-3GPP access system according to the handover indication.
A detection apparatus for detecting radiation, the detection apparatus comprising: - a GOS material for generating scintillation light depending on the detected radiation, - an optical filter (24; 22, 23) for reducing the intensity of the part of the scintillation light having a wavelength being larger than 650 nm, - a detection unit for detecting the filtered scintillation light, the detection apparatus being characterised in that the optical filter (24, 22, 23) is an optical absorption filter. - a GOS material for generating scintillation light depending on the detected radiation, - an optical filter (24; 22, 23) for reducing the intensity of the part of the scintillation light having a wavelength being larger than 650 nm, - a detection unit for detecting the filtered scintillation light,
An electrosurgical apparatus for treating a biological growth that contains a fluid-filled sac, the apparatus comprising: a substance, an electrosurgical instrument for delivering microwave energy into biological tissue, the electrosurgical instrument comprising: a coaxial cable for conveying microwave energy; and a radiating tip portion disposed at a distal end of the coaxial cable to receive microwave energy from the coaxial cable; and a fluid delivery mechanism for transporting fluid to and from a treatment zone located around the radiating tip portion, wherein the fluid delivery mechanism comprises: a flexible fluid conveying conduit (107, 222) that extends along the coaxial cable, and a rigid insertion element (220, 318) in fluid communication with a distal end of the fluid conveying conduit and arranged to extend into the treatment zone, wherein the fluid delivery mechanism is arranged: to aspirate fluid from the treatment zone, and to inject the substance into the treatment zone to replace the aspirated fluid, and wherein the substance has dielectric properties selected to facilitate uniform delivery of treatment energy to biological tissue in the treatment zone, and wherein the substance is selected to transition from a liquid phase to a solid phase during application of microwave energy to the treatment zone. a substance, an electrosurgical instrument for delivering microwave energy into biological tissue, the electrosurgical instrument comprising: a coaxial cable for conveying microwave energy; and a radiating tip portion disposed at a distal end of the coaxial cable to receive microwave energy from the coaxial cable; and a coaxial cable for conveying microwave energy; and a radiating tip portion disposed at a distal end of the coaxial cable to receive microwave energy from the coaxial cable; and a fluid delivery mechanism for transporting fluid to and from a treatment zone located around the radiating tip portion, wherein the fluid delivery mechanism comprises: a flexible fluid conveying conduit (107, 222) that extends along the coaxial cable, and a rigid insertion element (220, 318) in fluid communication with a distal end of the fluid conveying conduit and arranged to extend into the treatment zone, a flexible fluid conveying conduit (107, 222) that extends along the coaxial cable, and a rigid insertion element (220, 318) in fluid communication with a distal end of the fluid conveying conduit and arranged to extend into the treatment zone, wherein the fluid delivery mechanism is arranged: to aspirate fluid from the treatment zone, and to inject the substance into the treatment zone to replace the aspirated fluid, and to aspirate fluid from the treatment zone, and to inject the substance into the treatment zone to replace the aspirated fluid, and wherein the substance has dielectric properties selected to facilitate uniform delivery of treatment energy to biological tissue in the treatment zone, and wherein the substance is selected to transition from a liquid phase to a solid phase during application of microwave energy to the treatment zone.
Method for operating a wireless device (10, 12) in a wireless communication network, the method comprising: configuring, by the wireless device (10, 12), a reporting time window for transmitting a report to the wireless communication network; determining, by the wireless device (10,12), whether data transmission from the wireless device (10, 12) to the wireless communication network is scheduled for a transmission time within the reporting time window; transmitting the report together with the scheduled data transmission if it is determined that such data transmission is scheduled for a transmission time within the reporting time window; the method characterized in that comprises transmitting the report at or after the end of the reporting time window if it is determined that no data transmission is scheduled for a transmission time within the reporting time window. configuring, by the wireless device (10, 12), a reporting time window for transmitting a report to the wireless communication network; determining, by the wireless device (10,12), whether data transmission from the wireless device (10, 12) to the wireless communication network is scheduled for a transmission time within the reporting time window; transmitting the report together with the scheduled data transmission if it is determined that such data transmission is scheduled for a transmission time within the reporting time window; the method characterized in that comprises transmitting the report at or after the end of the reporting time window if it is determined that no data transmission is scheduled for a transmission time within the reporting time window.
A fish counting system, comprising: a first fish tank; a second fish tank; a path, wherein the path is formed by connecting an opening of the first fish tank with an opening of the second fish tank directly or through a tunnel; and a fish counting device, the fish counting device comprising: an ultrasonic transducer arranged to transmit an ultrasonic beam underwater in the first fish tank and to receive a reflection wave, the ultrasonic transducer being provided with a transducer element arranged in a single channel, the transducer element being disposable at a position where the ultrasonic beam does not intersect the path; and a processor arranged to output to the ultrasonic transducer a transmission signal to drive the ultrasonic transducer, and to receive an echo signal from the ultrasonic transducer that received the reflection wave, wherein the processor is arranged to track an echo moving deeper as time passes, to count tracked echoes moving deeper as time passes, and to acquire a number of fish passing through the ultrasonic beam and moving from the path to the first fish tank based on the counted tracked echoes. a first fish tank; a second fish tank; a path, wherein the path is formed by connecting an opening of the first fish tank with an opening of the second fish tank directly or through a tunnel; and a fish counting device, the fish counting device comprising: an ultrasonic transducer arranged to transmit an ultrasonic beam underwater in the first fish tank and to receive a reflection wave, the ultrasonic transducer being provided with a transducer element arranged in a single channel, the transducer element being disposable at a position where the ultrasonic beam does not intersect the path; and a processor arranged to output to the ultrasonic transducer a transmission signal to drive the ultrasonic transducer, and to receive an echo signal from the ultrasonic transducer that received the reflection wave, wherein the processor is arranged to track an echo moving deeper as time passes, to count tracked echoes moving deeper as time passes, and to acquire a number of fish passing through the ultrasonic beam and moving from the path to the first fish tank based on the counted tracked echoes. an ultrasonic transducer arranged to transmit an ultrasonic beam underwater in the first fish tank and to receive a reflection wave, the ultrasonic transducer being provided with a transducer element arranged in a single channel, the transducer element being disposable at a position where the ultrasonic beam does not intersect the path; and a processor arranged to output to the ultrasonic transducer a transmission signal to drive the ultrasonic transducer, and to receive an echo signal from the ultrasonic transducer that received the reflection wave, wherein the processor is arranged to track an echo moving deeper as time passes, to count tracked echoes moving deeper as time passes, and to acquire a number of fish passing through the ultrasonic beam and moving from the path to the first fish tank based on the counted tracked echoes.
An aircraft propulsion system comprising: a generally annular fan case defined by a fan configured to be disposed at a forward end thereof and a stator blade array configured to be disposed at an aft end thereof; a thrust reversing assembly comprising a generally annular cascade array; and a sleeve situated at least partially about the cascade array, the sleeve configured to deploy to expose the cascade array; wherein the thrust reversing assembly comprises at least a portion of the fan case disposed between the fan at the forward end of the fan case and the stator blade array at the aft end of the fan case; and characterised by a blocker door coupled to at least one of the cascade array and an inner surface of the fan case, wherein the blocker door is configured to cover an inner surface of the cascade array such that bypass air flows through a bypass air duct defined between the blocker door and an inner fixed structure disposed radially inward of the blocker door, and the blocker door is configured to deploy to redirect airflow through the cascade array by hinging radially inward to expose a radially inner portion of the cascade array to the bypass air duct. a generally annular fan case defined by a fan configured to be disposed at a forward end thereof and a stator blade array configured to be disposed at an aft end thereof; a thrust reversing assembly comprising a generally annular cascade array; and a sleeve situated at least partially about the cascade array, the sleeve configured to deploy to expose the cascade array; wherein the thrust reversing assembly comprises at least a portion of the fan case disposed between the fan at the forward end of the fan case and the stator blade array at the aft end of the fan case; and characterised by a blocker door coupled to at least one of the cascade array and an inner surface of the fan case, wherein the blocker door is configured to cover an inner surface of the cascade array such that bypass air flows through a bypass air duct defined between the blocker door and an inner fixed structure disposed radially inward of the blocker door, and the blocker door is configured to deploy to redirect airflow through the cascade array by hinging radially inward to expose a radially inner portion of the cascade array to the bypass air duct.
A transition metal compound represented by the following Chemical Formula 1: in Chemical Formula 1, M is a Group 4 transition metal, X 1 and X 2 are each independently hydrogen; halogen; or C 1-20 alkyl; A is carbon, or silicon, R 11 and R 12 are each independently hydrogen; halogen; C 1-20 alkyl; C 2-20 alkoxyalkyl; or C 6-20 aryl; R 21 is methyl, R 22 is C 3-20 alkyl; C 3-20 alkoxyalkyl; or C 3-20 alkenyl, R 23 is unsubstituted C 6-20 aryl; or C 7-20 alkylaryl, R 24 and R 25 are each hydrogen; or R 24 and R 25 are connected with each other to form a C 3-10 cycloalkane ring, R 26 is C 1-20 alkyl, and R 27 is unsubstituted C 6-20 aryl; or C 7-20 alkylaryl. M is a Group 4 transition metal, X 1 and X 2 are each independently hydrogen; halogen; or C 1-20 alkyl; A is carbon, or silicon, R 11 and R 12 are each independently hydrogen; halogen; C 1-20 alkyl; C 2-20 alkoxyalkyl; or C 6-20 aryl; R 21 is methyl, R 22 is C 3-20 alkyl; C 3-20 alkoxyalkyl; or C 3-20 alkenyl, R 23 is unsubstituted C 6-20 aryl; or C 7-20 alkylaryl, R 24 and R 25 are each hydrogen; or R 24 and R 25 are connected with each other to form a C 3-10 cycloalkane ring, R 26 is C 1-20 alkyl, and R 27 is unsubstituted C 6-20 aryl; or C 7-20 alkylaryl.
An apparatus comprising: a plurality of stretchable leads, each of the plurality of stretchable leads including a stretchable polymer and an associated electrode which is to receive electrical signals generated in response to a subject's heart and to pass the received electrical signals along a respective one of plurality of stretchable leads; and a patch including a stretchable substrate (110, 210) integrated with the plurality of stretchable leads and including a circuitry area for circuitry (160, 260) to reside for collecting the electrical signals passed along each of the plurality of stretchable leads, wherein each of the plurality of stretchable leads is to be on a subject side of the patch. a plurality of stretchable leads, each of the plurality of stretchable leads including a stretchable polymer and an associated electrode which is to receive electrical signals generated in response to a subject's heart and to pass the received electrical signals along a respective one of plurality of stretchable leads; and a patch including a stretchable substrate (110, 210) integrated with the plurality of stretchable leads and including a circuitry area for circuitry (160, 260) to reside for collecting the electrical signals passed along each of the plurality of stretchable leads, wherein each of the plurality of stretchable leads is to be on a subject side of the patch.
Electric assembly for assembly on a top-hat rail, comprising: - an electric power supply component; - a multilayer carrier, comprising a metal plate, a conductor path layer for electrically contacting the electric power supply component and an electric insulation layer which is arranged between the metal plate and the conductor path layer, wherein the electric insulation layer is a thermally conductive dielectric layer; wherein - the electric power supply component is connected to the metal plate in a thermally conductive manner in order to dissipate thermal energy from the electric power supply component; and comprising - a cooling element in order to dissipate thermal energy from the electric power supply component, which is formed integrally and in a material uniform manner from fiber-reinforced plastic, wherein the cooling element is configured as a housing section of a housing for housing the power supply component, wherein the housing section of the housing is connected to the metal plate in a thermally conductive manner. - an electric power supply component; - a multilayer carrier, comprising a metal plate, a conductor path layer for electrically contacting the electric power supply component and an electric insulation layer which is arranged between the metal plate and the conductor path layer, wherein the electric insulation layer is a thermally conductive dielectric layer; wherein - the electric power supply component is connected to the metal plate in a thermally conductive manner in order to dissipate thermal energy from the electric power supply component; and comprising - a cooling element in order to dissipate thermal energy from the electric power supply component, which is formed integrally and in a material uniform manner from fiber-reinforced plastic, wherein the cooling element is configured as a housing section of a housing for housing the power supply component, wherein the housing section of the housing is connected to the metal plate in a thermally conductive manner.
A sport stick, in particular walking-, Nordic walking- or cross-country skiing stick, with a grip element which has a substantially rod-shaped core, wherein the rod-shaped core is surrounded by a grip sleeve, leaving a connection region free for the stick shaft, and wherein the upper end of the stick shaft is pushed onto the connection region of the rod-shaped core and is fastened thereto, preferably by an adhesive or clamped connection, characterized in that the rod-shaped core is provided as additional weight and has a bend or a curve which is arranged in the region of the grip sleeve and enables the heavy rod-shaped core to be held securely in the grip.
A core sand filling method for filling a cavity of a core box with core sand from a blow head having a sand blow chamber and a sand storage chamber, the method comprising: a first step of supplying an aeration air into the sand blow chamber by aeration air supply means in a state where the blow head and the core box communicate with each other while the blow head is located under the core box, so as to float and fluidize the core sand within the sand blow chamber; a second step of supplying a compressed air into the sand storage chamber by compressed air supply means according to an instruction from a control unit when a pressure within the sand blow chamber reaches a first pressure, so as to fill the cavity of the core box with the floated and fluidized core sand from within the sand blow chamber after the first step; a third step of determining after the second step by the control unit according to a differential pressure between the pressure within the sand blow chamber and the pressure within the sand storage chamber whether or not the filling of the cavity with the core sand is completed and stopping respective operations of the aeration air supply means and compressed air supply means according to an instruction from the control unit when the filling is completed; and a fourth step of evacuating the compressed air from within the sand blow chamber after the third step. a first step of supplying an aeration air into the sand blow chamber by aeration air supply means in a state where the blow head and the core box communicate with each other while the blow head is located under the core box, so as to float and fluidize the core sand within the sand blow chamber; a second step of supplying a compressed air into the sand storage chamber by compressed air supply means according to an instruction from a control unit when a pressure within the sand blow chamber reaches a first pressure, so as to fill the cavity of the core box with the floated and fluidized core sand from within the sand blow chamber after the first step; a third step of determining after the second step by the control unit according to a differential pressure between the pressure within the sand blow chamber and the pressure within the sand storage chamber whether or not the filling of the cavity with the core sand is completed and stopping respective operations of the aeration air supply means and compressed air supply means according to an instruction from the control unit when the filling is completed; and a fourth step of evacuating the compressed air from within the sand blow chamber after the third step.
A method for dynamic beam assignment in a geostationary satellite communications network, the method comprising: receiving link measurement data that indicates signal quality at a plurality of locations within a plurality of coverage areas illuminated by a plurality of spot beams of a geostationary satellite; detecting a beam drift trigger according to the link measurement data, the beam drift trigger indicating a present drifting of a coverage area of the plurality of coverage areas illuminated by a spot beam of the plurality of spot beams of the geostationary satellite; identifying a set of ground terminals as experiencing a signal quality degradation from the present drifting; and computing, in a ground processing node in response to detecting the beam drift trigger, an update to a beam assignment map that at least partially counteracts the service degradation by reassigning each of the set of ground terminals from a respective presently assigned spot beam to a respective reassigned spot beam of the plurality of spot beams. receiving link measurement data that indicates signal quality at a plurality of locations within a plurality of coverage areas illuminated by a plurality of spot beams of a geostationary satellite; detecting a beam drift trigger according to the link measurement data, the beam drift trigger indicating a present drifting of a coverage area of the plurality of coverage areas illuminated by a spot beam of the plurality of spot beams of the geostationary satellite; identifying a set of ground terminals as experiencing a signal quality degradation from the present drifting; and computing, in a ground processing node in response to detecting the beam drift trigger, an update to a beam assignment map that at least partially counteracts the service degradation by reassigning each of the set of ground terminals from a respective presently assigned spot beam to a respective reassigned spot beam of the plurality of spot beams.