mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method, comprising: sending (S901), by a source access network element, a handover request to a target access network element, wherein the handover request comprises information of a unicast quality of service, QoS, flow of a protocol data unit, PDU, session, and the unicast QoS flow corresponds to a multicast QoS flow of a multicast broadcast service, MBS; receiving (S902), by the source access network element, a handover response from the target access network element, wherein the handover response comprises configuration information of a radio resource corresponding to the unicast QoS flow; and sending, by the source access network element, the configuration information of the radio resource to a terminal device, wherein the configuration information of the radio resource is used for the terminal device accessing the target access network element on the radio resource. sending (S901), by a source access network element, a handover request to a target access network element, wherein the handover request comprises information of a unicast quality of service, QoS, flow of a protocol data unit, PDU, session, and the unicast QoS flow corresponds to a multicast QoS flow of a multicast broadcast service, MBS; receiving (S902), by the source access network element, a handover response from the target access network element, wherein the handover response comprises configuration information of a radio resource corresponding to the unicast QoS flow; and sending, by the source access network element, the configuration information of the radio resource to a terminal device, wherein the configuration information of the radio resource is used for the terminal device accessing the target access network element on the radio resource.
A laminated glass comprising at least two sheets of glass plates laminated together with an intermediate layer disposed therebetween, wherein the intermediate layer is formed by sandwiching an optical film containing an infrared reflecting layer on a transparent resin film between two sheets of intermediate films containing a thermoplastic resin, and the infrared reflecting layer is formed by alternately laminating a high refractive index layer containing a first water-soluble binder resin and first metal oxide particles, and a low refractive index layer containing a second water-soluble binder resin and second metal oxide particles, said first and second water-soluble binder resins being polyvinyl alcohols, characterized in that the degree of saponification of a polyvinyl alcohol (A) as the first water-soluble binder resin and the degree of saponification of a polyvinyl alcohol (B) as the second water-soluble binder resin are different from each other.
A medical device for shutting off an anatomical channel, comprising - a band part which can be placed around the body tissue surrounding the anatomical channel and which can be closed to form a ring that encloses a through-opening for the body tissue , and which has a hollow chamber constituting a part of a working fluid receiving space of the device for receiving working fluid, and - a pump unit which serves to convey the working fluid, wherein the through-opening can be made smaller by introducing the working fluid into the hollow chamber , and - a storage container with a flexible wall delimiting a storage chamber , wherein, in order to apply an additional force to the body tissue guided through the through-opening , the volume of the storage chamber can be made smaller by increasing an ambient pressure acting on the storage container , and the storage chamber forms a part of an auxiliary fluid receiving space of the device for receiving an auxiliary fluid separate from the working fluid, and the auxiliary fluid receiving space moreover comprises an expansion chamber of an expansion body of the device, wherein the expansion chamber can be filled with the auxiliary fluid in order to apply the additional force characterized in that the wall of the storage container is designed to be at least substantially non-extensible. - a band part which can be placed around the body tissue surrounding the anatomical channel and which can be closed to form a ring that encloses a through-opening for the body tissue , and which has a hollow chamber constituting a part of a working fluid receiving space of the device for receiving working fluid, and - a pump unit which serves to convey the working fluid, wherein the through-opening can be made smaller by introducing the working fluid into the hollow chamber , and - a storage container with a flexible wall delimiting a storage chamber , wherein, in order to apply an additional force to the body tissue guided through the through-opening , the volume of the storage chamber can be made smaller by increasing an ambient pressure acting on the storage container , and the storage chamber forms a part of an auxiliary fluid receiving space of the device for receiving an auxiliary fluid separate from the working fluid, and the auxiliary fluid receiving space moreover comprises an expansion chamber of an expansion body of the device, wherein the expansion chamber can be filled with the auxiliary fluid in order to apply the additional force characterized in that the wall of the storage container is designed to be at least substantially non-extensible.
A method for the chip-removing production or machining of a workpiece, in particular of toothing on a workpiece , by means of a machining tool, in particular a toothing tool , wherein a liquid which mixes and accumulates with the chips generated during the machining is used for lubricating and/or cooling during the machining, and wherein the chips are discharged from the accumulation, counter to the downhill force, along a discharge path by means of a magnetic force, wherein a return flow of the liquid carried away by the discharged chips occurs due to the downhill force, wherein the return flow is deflected out of the discharge path, characterised in that the liquid in the return flow feeds into a return-flow space via one or more openings , said return-flow space being arranged underneath the discharge path, as viewed in the direction of gravity, and the discharge path is separated from the one or more openings by a barrier.
A method for uplink control information transmission, comprising determining , by a terminal device, multiple uplink control channel elements for transmitting target uplink control information, wherein the multiple uplink control channel elements are within a same target time slot in time domain, and each of the multiple uplink control channel elements is capable of independently transmitting uplink control information; and transmitting , by the terminal device, in the target time slot, the target uplink control information to a network device through the multiple uplink control channel elements, wherein each of the multiple uplink control channel elements carries the same target uplink control information, and the multiple uplink control channel elements are used to repeatedly transmit the target uplink control information. determining , by a terminal device, multiple uplink control channel elements for transmitting target uplink control information, wherein the multiple uplink control channel elements are within a same target time slot in time domain, and each of the multiple uplink control channel elements is capable of independently transmitting uplink control information; and transmitting , by the terminal device, in the target time slot, the target uplink control information to a network device through the multiple uplink control channel elements, wherein each of the multiple uplink control channel elements carries the same target uplink control information, and the multiple uplink control channel elements are used to repeatedly transmit the target uplink control information.
A controller configured for an agricultural machine to perform self-driving, the agricultural machine including one or more illuminators configured to illuminate surroundings of the agricultural machine in a traveling direction thereof, and at least one of an illuminance sensor or a clock , the controller comprising: one or more processors ; and a memory configured to store a computer program; wherein the computer program is configured to cause the one or more processors to: determine whether it is nighttime or not based on at least one of a signal output from the clock or a signal output from the illuminance sensor; deactivate at least one of the one or more illuminators at nighttime; and control self-driving of the agricultural machine while keeping the at least one of the illuminators deactivated. one or more processors ; and a memory configured to store a computer program; wherein the computer program is configured to cause the one or more processors to: determine whether it is nighttime or not based on at least one of a signal output from the clock or a signal output from the illuminance sensor; deactivate at least one of the one or more illuminators at nighttime; and control self-driving of the agricultural machine while keeping the at least one of the illuminators deactivated. determine whether it is nighttime or not based on at least one of a signal output from the clock or a signal output from the illuminance sensor; deactivate at least one of the one or more illuminators at nighttime; and control self-driving of the agricultural machine while keeping the at least one of the illuminators deactivated.
A method for producing a power semiconductor module arrangement comprises: forming a porous pre-layer by depositing inorganic filler on a first surface within a housing , wherein a substrate comprising a first metallization layer , a second metallization layer , and a dielectric insulation layer disposed between the first and second metallization layers is arranged within the housing , the first metallization layer and the second metallization layer being attached to the dielectric insulation layer , and at least one semiconductor body being arranged on a top surface of the substrate , and wherein the inorganic filler comprises particles with a diameter of between 1 and 50μm and is impermeable for corrosive gases; filling casting material into the housing , thereby filling the spaces between the particles of the inorganic filler of the pre-layer with the casting material; hardening the casting material, thereby forming a first layer ; and prior to forming the pre-layer , forming a second layer covering the substrate arranged in the housing such that the second layer is arranged between the first layer and the substrate , wherein the first surface is a top surface of the second layer , wherein the second layer comprises a casting material without filler , and wherein the second layer is arranged adjacent to the substrate . forming a porous pre-layer by depositing inorganic filler on a first surface within a housing , wherein a substrate comprising a first metallization layer , a second metallization layer , and a dielectric insulation layer disposed between the first and second metallization layers is arranged within the housing , the first metallization layer and the second metallization layer being attached to the dielectric insulation layer , and at least one semiconductor body being arranged on a top surface of the substrate , and wherein the inorganic filler comprises particles with a diameter of between 1 and 50μm and is impermeable for corrosive gases; filling casting material into the housing , thereby filling the spaces between the particles of the inorganic filler of the pre-layer with the casting material; hardening the casting material, thereby forming a first layer ; and prior to forming the pre-layer , forming a second layer covering the substrate arranged in the housing such that the second layer is arranged between the first layer and the substrate , wherein the first surface is a top surface of the second layer , wherein the second layer comprises a casting material without filler , and wherein the second layer is arranged adjacent to the substrate .
A photocurable composition comprising: (A) a compound having an unsaturated double bond; (B) at least one compound represented by general formula ; and (C) a sensitizer, where R 1 to R 3 are each independently a substituent containing at least one group selected from the group consisting of a nitro group, a cyano group, a hydroxy group, an acetyl group, a carbonyl group, a substituted or unsubstituted allyl group, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkoxy group, an unsubstituted or substituted aryl group, an unsubstituted or substituted aryloxy group, a heterocyclic ring structure-containing group, and a group having a plurality of rings; or at least two groups selected from the group consisting of R 1 to R 3 are bonded to each other to form a cyclic structure with carbon atoms to which the groups are bonded. (A) a compound having an unsaturated double bond; (B) at least one compound represented by general formula ; and (C) a sensitizer,
A controller for a rotary wing unmanned aerial vehicle having a plurality of rotary motors, the controller comprising: a processing unit and memory including code , which when executed controls the processing unit to: determine a net drag of atmospheric forces acting on the aerial vehicle as the controller controls the plurality of rotary motors to propel the aerial vehicle to move in a direction along a path; determine a yaw setting for the aerial vehicle based on the net drag, wherein the yaw defines an angle between an axis running from a first portion to a second portion of the aerial vehicle and the direction of movement of the aerial vehicle along the path, wherein the first portion is a leading edge in the direction of movement of the aerial vehicle; and; set the yaw of the aerial vehicle based on the determined yaw setting, wherein the aerial vehicle is positioned according to the angle defined by the yaw by controlling the relative speeds of each of the plurality of rotary motors as the plurality of rotary motors 5 propel the aerial vehicle to move in the direction of movement; characterized in that if the aerial vehicle is to move forward in the direction of movement, the yaw setting of the aerial vehicle is determined and set based on the net drag such that the influence of net drag on the forward movement of the aerial vehicle is minimized; and if the aerial vehicle is to stop or decelerate, the yaw setting of the aerial vehicle is determined and set based on the net drag so that the net drag aids the aerial vehicle in stopping or decelerating. determine a net drag of atmospheric forces acting on the aerial vehicle as the controller controls the plurality of rotary motors to propel the aerial vehicle to move in a direction along a path; determine a yaw setting for the aerial vehicle based on the net drag, wherein the yaw defines an angle between an axis running from a first portion to a second portion of the aerial vehicle and the direction of movement of the aerial vehicle along the path, wherein the first portion is a leading edge in the direction of movement of the aerial vehicle; and; set the yaw of the aerial vehicle based on the determined yaw setting, wherein the aerial vehicle is positioned according to the angle defined by the yaw by controlling the relative speeds of each of the plurality of rotary motors as the plurality of rotary motors 5 propel the aerial vehicle to move in the direction of movement; characterized in that if the aerial vehicle is to move forward in the direction of movement, the yaw setting of the aerial vehicle is determined and set based on the net drag such that the influence of net drag on the forward movement of the aerial vehicle is minimized; and if the aerial vehicle is to stop or decelerate, the yaw setting of the aerial vehicle is determined and set based on the net drag so that the net drag aids the aerial vehicle in stopping or decelerating.
A positive electrode for a lithium-ion secondary battery, comprising: a collector for a positive electrode; and a positive electrode active material layer provided on the collector for a positive electrode, wherein the positive electrode active material layer includes a positive electrode active material, a conductive auxiliary agent, and a binder, the conductive auxiliary agent includes flake-shaped graphite having an average thickness of 0,05 μm or more and 0.5 μm or less, and when an average particle diameter of the positive electrode active material is represented by active material D 50 , the average particle diameter of the flake-shaped graphite is equal to or more than (3 x active material D 50 /5) and equal to or less than (9 x active material D 50 /10). a collector for a positive electrode; and a positive electrode active material layer provided on the collector for a positive electrode, wherein the positive electrode active material layer includes a positive electrode active material, a conductive auxiliary agent, and a binder, the conductive auxiliary agent includes flake-shaped graphite having an average thickness of 0,05 μm or more and 0.5 μm or less, and when an average particle diameter of the positive electrode active material is represented by active material D 50 , the average particle diameter of the flake-shaped graphite is equal to or more than (3 x active material D 50 /5) and equal to or less than (9 x active material D 50 /10).
A flat tube for a heat exchanger for a flow of a fluid therein, the tube being formed by bending a sheet metal strip along its length, the metal strip comprising longitudinal edges , the flat tube further comprising: a first wall , a second wall parallel to the first wall , said walls being substantially flat, two complementary side wall portions joining said first and second walls together, wherein the first fall comprises a seam extending along the longitudinal axis of the flat tube so that juxtaposed longitudinal edges of the metal strip join together in parallel manner towards the second wall to form a closed profile of the tube , wherein the seam comprises a first section fixed to the second wall and extending along the first portion of the seam along the longitudinal axis of the flat tube , wherein the seam further comprises a second section extending along the second portion of the seam arranged in series with respect to the first portion of the seam and along the longitudinal axis of the flat tube , wherein the second section is separated from the second wall , characterised in that the seam comprises an incision separating at least the portion of the second section at least from the second wall , wherein the incision 7 divides the seam into an abscessed portion which is unitary with the longitudinal edges protruding from the first wall , and a remaining portion which remains fixed with the second wall . .
A spirally ascending/descending cryogenic storage apparatus, comprising a cryogenic storage tank , a temperature in the cryogenic storage tank being continuously maintained in a certain deep cryogenic range; the cryogenic storage tank being provided with a drive assembly and a rotating storage rack therein, the rotating storage rack being capable of storing a plurality of shelf boxes in a circumferential direction; the cryogenic storage tank being provided with an access opening , the plurality of shelf boxes being capable of moving to a position corresponding to the access opening along with a movement of the rotating storage rack; the cryogenic storage tank being a liquid nitrogen tank, and liquid nitrogen being provided at a bottom in the liquid nitrogen tank, characterized in that the drive assembly is capable of driving the rotating storage rack to spirally ascend or spirally descend in the cryogenic storage tank. a temperature in the cryogenic storage tank being continuously maintained in a certain deep cryogenic range; the cryogenic storage tank being provided with a drive assembly and a rotating storage rack therein, the rotating storage rack being capable of storing a plurality of shelf boxes in a circumferential direction; the cryogenic storage tank being provided with an access opening , the plurality of shelf boxes being capable of moving to a position corresponding to the access opening along with a movement of the rotating storage rack; the cryogenic storage tank being a liquid nitrogen tank, and liquid nitrogen being provided at a bottom in the liquid nitrogen tank, characterized in that the drive assembly is capable of driving the rotating storage rack to spirally ascend or spirally descend in the cryogenic storage tank.
A service continuity implementation method, comprising: receiving (S202, S302), by a mobility management device, a tracking area update request message for a 4G network from a user equipment, wherein the tracking area update request message carries a user identifier and a 5G capability of the user equipment; determining (S205, S306), by the mobility management device based on the user identifier, that a corresponding user is a 5G user, and triggering (S206, S307) the user equipment to attach to the 4G network; afterwards, the method comprises receiving (S208, S308), by the mobility management device, an attach request from the user equipment, and the attach request is issued for the 4G network; and selecting (S210, S310), after the receiving said attach request, by the mobility management device, a 5G gateway for the user equipment, and establishing (S211, S311) a session with the 5G gateway, wherein the 5G gateway is for sending a SG-related parameter to the user equipment in advance, so that service continuity is maintained after the user equipment moves from the 4G network to the 5G network. receiving (S202, S302), by a mobility management device, a tracking area update request message for a 4G network from a user equipment, wherein the tracking area update request message carries a user identifier and a 5G capability of the user equipment; determining (S205, S306), by the mobility management device based on the user identifier, that a corresponding user is a 5G user, and triggering (S206, S307) the user equipment to attach to the 4G network; afterwards, the method comprises receiving (S208, S308), by the mobility management device, an attach request from the user equipment, and the attach request is issued for the 4G network; and selecting (S210, S310), after the receiving said attach request, by the mobility management device, a 5G gateway for the user equipment, and establishing (S211, S311) a session with the 5G gateway, wherein the 5G gateway is for sending a SG-related parameter to the user equipment in advance, so that service continuity is maintained after the user equipment moves from the 4G network to the 5G network.
A dielectric insulating assembly arranged to be positioned between a drive shaft and a driven shaft of a motorised drive assembly, the assembly comprising dielectric insulation between the drive shaft and the driven shaft and plurality of electrically non-conductive fastener elements configured to connect the drive shaft to the driven shaft and the dielectric insulation therebetween, in torque transfer engagement, the fastener elements located around an outer boundary of the dielectric insulation; characterised in that : the dielectric insulation is a disk of dielectric material, and wherein the fastener elements each comprise a tie having a loop at each end, the loop at one end configured to be attached, in use, to the drive shaft and the loop at the other end configured to be attached to the driven shaft .