mhurhangee/patent-ind-claim-en huggingface dataset:
A fluororubber composition for use in sealing materials, the fluororubber composition being a kneaded mixture of: a carbon nanotube masterbatch comprising 4 to 20 parts by weight of multilayer carbon nanotubes, which are fibrous carbon nanostructures that do not contain monolayer carbon nanotubes, based on 100 parts by weight of a fluororubber polymer, and a fluororubber raw material comprising at least a fluororubber polymer and a reinforcing filler; wherein the multilayer carbon nanotubes are compounded in an amount of 0.5 to 6 wt.% in the kneaded mixture; wherein the reinforcing filler comprises carbon black. a carbon nanotube masterbatch comprising 4 to 20 parts by weight of multilayer carbon nanotubes, which are fibrous carbon nanostructures that do not contain monolayer carbon nanotubes, based on 100 parts by weight of a fluororubber polymer, and a fluororubber raw material comprising at least a fluororubber polymer and a reinforcing filler; wherein the multilayer carbon nanotubes are compounded in an amount of 0.5 to 6 wt.% in the kneaded mixture; wherein the reinforcing filler comprises carbon black.
A method for measurement reporting performed by a cellular user device connected to a primary cell, said cellular user device being within receiving range of a second cell, and configured by the primary cell by receiving: a trigger condition linking a cell state to a cell measurement quantity, a first cell-specific offset value and a second cell-specific offset value; the method comprising: measuring a signal from the second cell; determining a measurement quantity based on the measurement; determining a cell state associated with the second cell; evaluating the trigger condition using both the measurement quantity and the cell state; and transmitting a measurement report to the primary cell if the trigger condition is satisfied, wherein determining a cell state associated with the second cell comprises determining whether the second cell is in an active state or in a dormant state: wherein the first cell-specific offset value is for the active state and the second cell-specific offset value is for the dormant state; and wherein evaluating the trigger condition using both the measurement quantity and the cell state further comprises evaluating the trigger condition using the first cell-specific offset value if the second cell is in active state and evaluating the trigger condition using the second cell-specific offset value if the second cell is in dormant state. measuring a signal from the second cell; determining a measurement quantity based on the measurement; determining a cell state associated with the second cell; evaluating the trigger condition using both the measurement quantity and the cell state; and transmitting a measurement report to the primary cell if the trigger condition is satisfied, wherein determining a cell state associated with the second cell comprises determining whether the second cell is in an active state or in a dormant state: wherein the first cell-specific offset value is for the active state and the second cell-specific offset value is for the dormant state; and wherein evaluating the trigger condition using both the measurement quantity and the cell state further comprises evaluating the trigger condition using the first cell-specific offset value if the second cell is in active state and evaluating the trigger condition using the second cell-specific offset value if the second cell is in dormant state.
Battery module , at least comprising • an external housing , and • a battery module housing , wherein the battery module housing is arranged in the interior of the external housing and is designed for accommodating at least one battery cell , and • at least one damping element , wherein the damping element i. comprises a spring-elastic region , and ii. is arranged between the battery module housing and the external housing , wherein the damping element is designed for mechanically damping a movement of the external housing towards the battery module housing , or vice versa, by means of the spring-elastic region , characterized in that • the damping element comprises at least one sliding layer , wherein the at least one damping element comprises a reinforcement region , wherein the reinforcement region comprises a non-elastic polymer material and the reinforcement region reinforces the damping element perpendicularly in relation to the damping direction. • an external housing , and • a battery module housing , wherein the battery module housing is arranged in the interior of the external housing and is designed for accommodating at least one battery cell , and • at least one damping element , wherein the damping element i. comprises a spring-elastic region , and ii. is arranged between the battery module housing and the external housing , wherein the damping element is designed for mechanically damping a movement of the external housing towards the battery module housing , or vice versa, by means of the spring-elastic region , characterized in that i. comprises a spring-elastic region , and ii. is arranged between the battery module housing and the external housing , wherein the damping element is designed for mechanically damping a movement of the external housing towards the battery module housing , or vice versa, by means of the spring-elastic region , characterized in that • the damping element comprises at least one sliding layer , wherein the at least one damping element comprises a reinforcement region , wherein the reinforcement region comprises a non-elastic polymer material and the reinforcement region reinforces the damping element perpendicularly in relation to the damping direction.
Guide adapter for guiding a drill bit during percusion drilling, said guide adapter is intended to be arranged between the drill bit and an elongated drill string extending along an axis A, said drill bit having a first radius (Rf) transverse to axis A, said guide adapter comprising: a sleeve shaped adapter body intended to extend along axis A and comprising a forward end with a first coupling intended for connecting the guide adapter to the drill bit, and a rear end with a second coupling intended for connecting the guide adapter to the drill string; and a plurality of guiding elements extending substantially radially in relation toaxis A from the sleeve shaped adapter body , wherein the guiding elements extend along >0% to 60% of the adapter body length (L) along axis A and are arranged in the rear end of the adapter body , characterised in that said guiding elements in the rear end has an extension (Rr) in radial direction from axis A of about 94 - 96 % of said first radius (Rf) and curved, straight or stepwise reduced radial extension towards the forward end along axis A; and a radial extension (Rm) in the forward end of the guiding elements of about 89 - 91 % of said first radius. a sleeve shaped adapter body intended to extend along axis A and comprising a forward end with a first coupling intended for connecting the guide adapter to the drill bit, and a rear end with a second coupling intended for connecting the guide adapter to the drill string; and a plurality of guiding elements extending substantially radially in relation toaxis A from the sleeve shaped adapter body , wherein the guiding elements extend along >0% to 60% of the adapter body length (L) along axis A and are arranged in the rear end of the adapter body , characterised in that said guiding elements in the rear end has an extension (Rr) in radial direction from axis A of about 94 - 96 % of said first radius (Rf) and curved, straight or stepwise reduced radial extension towards the forward end along axis A; and a radial extension (Rm) in the forward end of the guiding elements of about 89 - 91 % of said first radius.
A lithium battery comprising a Li metal anode , a cathode and an electrolyte in between the Li metal anode and the cathode wherein the electrolyte includes immobilized anions at least at the interface between the Li metal anode to maintain the anionic concentration at the interface above zero throughout the charge-discharge cycles thereby preventing surface potential instability at the interface of the Li metal anode and electrolyte, wherein the electrolyte is a polymer electrolyte comprising a layer of ceramic grafted with immobilized anions positioned at the interface between the Li metal anode and the electrolyte, and wherein the immobilized anions are anions of the lithium salts selected from the group consisting of CF 3 SO 3 - , B(C 2 O 4 ) 2 - , N(CF 3 SO 2 ) 2 - , C(CF 3 SO 2 ) 3 - , C(CH 3 )(CF 3 SO 2 ) 2 - , CH(CF 3 SO 2 ) 2 - , CH 2 (CF 3 SO 2 ) - , C 2 F 5 SO 3 - , N(C 2 F 5 SO 2 ) 2 - , B(CF 3 SO 2 ) 2 - , PF 6 - , SbF 6 - , ClO 4 - , SCN - , AsF 6 - and BF 4 - .
A method of a User Equipment, UE, comprising: maintaining a first timing advance for a cell, wherein the first timing advance is identified by a first identifier ; performing a random access procedure in the cell ; receiving an initial value of a second timing advance for the cell via a random access response of the random access procedure ; receiving a second identifier used to identify the second timing advance ; receiving a timing advance command for adjusting a timing advance maintained by the UE, wherein the first timing advance is adjusted when the timing advance command includes the first identifier and the second timing advance is adjusted when the timing advance command includes the second identifier, wherein the UE applies the first timing advance to adjust timing of a first UL transmission associated with the first timing advance; the UE applies the second timing advance to adjust timing of a second UL transmission associated with the second timing advance; and the first timing advance is used for at least a first network node of the cell, and the second timing advance is used for at least a second network node of the cell. maintaining a first timing advance for a cell, wherein the first timing advance is identified by a first identifier ; performing a random access procedure in the cell ; receiving an initial value of a second timing advance for the cell via a random access response of the random access procedure ; receiving a second identifier used to identify the second timing advance ; receiving a timing advance command for adjusting a timing advance maintained by the UE, wherein the first timing advance is adjusted when the timing advance command includes the first identifier and the second timing advance is adjusted when the timing advance command includes the second identifier, receiving a second identifier used to identify the second timing advance ; receiving a timing advance command for adjusting a timing advance maintained by the UE, wherein the first timing advance is adjusted when the timing advance command includes the first identifier and the second timing advance is adjusted when the timing advance command includes the second identifier, wherein the UE applies the first timing advance to adjust timing of a first UL transmission associated with the first timing advance; the UE applies the second timing advance to adjust timing of a second UL transmission associated with the second timing advance; and the first timing advance is used for at least a first network node of the cell, and the second timing advance is used for at least a second network node of the cell.
An antibody, which is i) a polyclonal antibody in which the antibodies specifically bind a K. pneumoniae polypeptide, and which is essentially free from antibodies binding specifically to other K. pneumoniae polypeptides than said polypeptide, or ii) an isolated monoclonal antibody or antibody analogue which binds specifically to a K. pneumoniae polypeptide, wherein said K. pneumoniae polypeptide consists of the amino acid sequence SEQ ID NO: 2, for use in a method for prophylaxis, treatment or amelioration of infection with K . pneumoniae, in particular infection with multi-resistant K. pneumoniae, comprising administering a therapeutically effective amount of the antibody to an individual in need thereof. i) a polyclonal antibody in which the antibodies specifically bind a K. pneumoniae polypeptide, and which is essentially free from antibodies binding specifically to other K. pneumoniae polypeptides than said polypeptide, or ii) an isolated monoclonal antibody or antibody analogue which binds specifically to a K. pneumoniae polypeptide,
Method for producing a gas mixture in a gas container (B), which has a plurality of components, wherein at least one first component is metered volumetrically, wherein each first component from a storage container (V1, V2, V3, VG1, VG2) of the first component is confined in at least one sample volume (P1, P2, P3, P4) of a plurality of sample volumes and is passed from the at least one sample volume (P1, P2, P3, P4) into the gas container (B), and wherein at least one second component is gravimetrically metered, wherein the at least one second component is guided from a storage container (V1, V2, V3, VG1, VG2) of the at least one second component into the gas container (B), and the gas container (B) is weighed by means of scales (W) to determine the proportion of the at least one second component, characterized in that the at least one second component is guided into the gas container (B) via a second flow path (S2) and a second pressure regulator (DM2) arranged in the second flow path (S2), wherein the second pressure regulator (DM2) is controlled by means of an output signal of the scales (W).
An electroacoustic transducer comprising: a first electrode ; a second electrode ; a piezoelectric material at least partially sandwiched between the first electrode and the second electrode; and a flexible electrical connector in electrical connection with the first or second electrode at discrete points around a periphery of that electrode, the discrete points being distributed about a substantial portion of that periphery. a first electrode ; a second electrode ; a piezoelectric material at least partially sandwiched between the first electrode and the second electrode; and a flexible electrical connector in electrical connection with the first or second electrode at discrete points around a periphery of that electrode, the discrete points being distributed about a substantial portion of that periphery.
A vehicle control method for executing an idle stop control for stopping an engine upon an idle stop permission condition being met, characterized by : when a host vehicle is stopped at a front of a line of vehicles in accordance with a stop signal of a traffic light at an intersection, the engine is stopped by using the idle stop control, and either a left-turn operation of the vehicle on a left-hand traffic road or a right-turn operation on a right-hand traffic road at the intersection is to be made after the traffic light changes to a go signal, detecting (S30), during the stop signal, a presence or an absence of a traveling body that is stopped on a side of or behind the host vehicle in a direction from which the host vehicle is turning; placing (S601) restarting of the engine on standby even when the traffic light changes to the go signal upon determining that the traveling body is stopped on the side of host vehicle; detecting (S602) whether the traveling body has started moving after the traffic light changes to the go signal; and restarting (S603-S605) the engine after a prescribed period of time has elapsed if the traveling body has not started moving. when a host vehicle is stopped at a front of a line of vehicles in accordance with a stop signal of a traffic light at an intersection, the engine is stopped by using the idle stop control, and either a left-turn operation of the vehicle on a left-hand traffic road or a right-turn operation on a right-hand traffic road at the intersection is to be made after the traffic light changes to a go signal, detecting (S30), during the stop signal, a presence or an absence of a traveling body that is stopped on a side of or behind the host vehicle in a direction from which the host vehicle is turning; placing (S601) restarting of the engine on standby even when the traffic light changes to the go signal upon determining that the traveling body is stopped on the side of host vehicle; detecting (S602) whether the traveling body has started moving after the traffic light changes to the go signal; and restarting (S603-S605) the engine after a prescribed period of time has elapsed if the traveling body has not started moving.
A flow control mechanism comprising: a housing defining a through bore and a cavity contiguous with the through bore ; a barrier received within the cavity of the housing ; wherein the barrier is moveable between a sealing position in which fluid flow through the housing is permitted in one direction through the housing and blocked in an opposite direction, and a non-sealing position in which the flow control mechanism is configured to receive an attachment member; and an actuating mechanism that returns the barrier from the non-sealing position to the sealing position when the attachment member separates from the flow control mechanism , characterised in that : the barrier has a through hole that is perpendicular with the through bore of the housing when the barrier is in the sealing position, and the through hole of the barrier is aligned with the through bore of the housing when the barrier is in the non-sealing position to permit passage of the attachment member through the barrier when in said non-sealing position. a housing defining a through bore and a cavity contiguous with the through bore ; a barrier received within the cavity of the housing ; wherein the barrier is moveable between a sealing position in which fluid flow through the housing is permitted in one direction through the housing and blocked in an opposite direction, and a non-sealing position in which the flow control mechanism is configured to receive an attachment member; and an actuating mechanism that returns the barrier from the non-sealing position to the sealing position when the attachment member separates from the flow control mechanism , characterised in that : the barrier has a through hole that is perpendicular with the through bore of the housing when the barrier is in the sealing position, and the through hole of the barrier is aligned with the through bore of the housing when the barrier is in the non-sealing position to permit passage of the attachment member through the barrier when in said non-sealing position.
A packaging structure for a power module, comprising: a heat dissipation substrate (S H ); at least one first power device (Q 1 , D 2 ); at least one second power device (D 1 , Q 2 , Q 3 , Q 4 ) including a jump electrode having a jumping potential; and a carrier substrate (S B ) including a first metal layer (M 1 ), a second metal layer (M 2 ), a first insulating layer (I 1 ), a second insulating layer (I 2 ) and a third metal layer (M 3 ), the first insulating layer (I 1 ) disposed between the first metal layer (M 1 ) and the second metal (M 2 ), the second insulating layer (I 2 ) disposed between the second metal layer (M 2 ) and the third metal layer (M 3 ); wherein the first metal layer (M 1 ) is disposed on the heat dissipation substrate (S H ), the at least one first power device (Q 1 , D 2 ) is disposed on the second metal layer (M 2 ), and the at least one second power device (D 1 , Q 2 , Q 3 , Q 4 ) is disposed on the third metal layer (M 3 ), characterized in that a portion of an upper surface of the second metal layer (M 2 ) has a convex surface (M 20 ), the second insulating layer (I 2 ) is disposed on the convex surface (M 20 ), and the third metal layer (M 3 ) is disposed on the second insulating layer (I 2 ). a heat dissipation substrate (S H ); at least one first power device (Q 1 , D 2 ); at least one second power device (D 1 , Q 2 , Q 3 , Q 4 ) including a jump electrode having a jumping potential; and a carrier substrate (S B ) including a first metal layer (M 1 ), a second metal layer (M 2 ), a first insulating layer (I 1 ), a second insulating layer (I 2 ) and a third metal layer (M 3 ), the first insulating layer (I 1 ) disposed between the first metal layer (M 1 ) and the second metal (M 2 ), the second insulating layer (I 2 ) disposed between the second metal layer (M 2 ) and the third metal layer (M 3 ); wherein the first metal layer (M 1 ) is disposed on the heat dissipation substrate (S H ), the at least one first power device (Q 1 , D 2 ) is disposed on the second metal layer (M 2 ), and the at least one second power device (D 1 , Q 2 , Q 3 , Q 4 ) is disposed on the third metal layer (M 3 ), characterized in that a portion of an upper surface of the second metal layer (M 2 ) has a convex surface (M 20 ), the second insulating layer (I 2 ) is disposed on the convex surface (M 20 ), and the third metal layer (M 3 ) is disposed on the second insulating layer (I 2 ).
Motor vehicle equipped with a battery placed on a support fixed to the side of a rear axle cross member placed under a rear boot floor of this vehicle, characterized in that it comprises a removable support strip comprising an upper end fixed to the boot floor , and a lower end connected to one side of the battery .
A self-propelled agricultural working machine, in particular a harvester, for implementing an agricultural working process by travelling along lanes (3a-d), comprising a plurality of working members (4-9) and a driver assist system for controlling the working members (4-9), wherein the working machine has a surroundings detection device for detecting crop stand features of a crop stand and ground features of a field ground , characterised in that the driver assist system analyses the crop stand features for predetermined characteristic crop stand properties and the ground features for predetermined characteristic ground properties and in dependence on the analysed characteristic crop stand properties and the analysed characteristic ground properties implements a control process which concerns the lanes (3a-d) to be travelled.