mhurhangee/patent-ind-claim-en huggingface dataset:
Vehicle with - at least one pneumatically movable current collector for connection to a track-side power supply network , wherein the current collector can be moved into an extended contact position, in which it is in contact with the track-side power supply network , and a retracted disconnected position, in which it is separated from the track-side power supply network , and - with a main air tank , in which air can be stored under pressure and which can be connected herewith in order to pneumatically pressurise the current collector , characterised in that - the vehicle has a controllable distribution facility , a main compressor and at least one fuel cell , wherein the controllable distribution facility is connected to the main air tank , the main compressor and the at least one fuel cell of the vehicle and depending on its operating position divides the compressed air made available by the main compressor and can guide one part of the compressed air to the fuel cell and another part of the compressed air to the main air tank , and - the vehicle has a control facility connected to the controllable distribution facility , which is designed so that it adjusts the operating position of the distribution facility at least as a function of an oxygen requirement of the fuel cell so that the oxygen requirement of the fuel cell is covered. - at least one pneumatically movable current collector for connection to a track-side power supply network , wherein the current collector can be moved into an extended contact position, in which it is in contact with the track-side power supply network , and a retracted disconnected position, in which it is separated from the track-side power supply network , and - with a main air tank , in which air can be stored under pressure and which can be connected herewith in order to pneumatically pressurise the current collector , characterised in that - the vehicle has a controllable distribution facility , a main compressor and at least one fuel cell , wherein the controllable distribution facility is connected to the main air tank , the main compressor and the at least one fuel cell of the vehicle and depending on its operating position divides the compressed air made available by the main compressor and can guide one part of the compressed air to the fuel cell and another part of the compressed air to the main air tank , and - the vehicle has a control facility connected to the controllable distribution facility , which is designed so that it adjusts the operating position of the distribution facility at least as a function of an oxygen requirement of the fuel cell so that the oxygen requirement of the fuel cell is covered.
A polyamide composition comprising : (a) at least one high chain-length polyamide [polyamide (PA)]; (b) at least one grafted polyolefin [olefin (PO)]; and (c) at least one aromatic diacid [acid (DA)]; wherein the high chain-length polyamide is selected from the group consisting of polyamide 11, polyamide 12, polyamide 12,12, polyamide 6,12, polyamide 6,10, polyamide 10,10 and polyamide 10,12. (a) at least one high chain-length polyamide [polyamide (PA)]; (b) at least one grafted polyolefin [olefin (PO)]; and (c) at least one aromatic diacid [acid (DA)];
A knee replacement prosthesis comprising: a tibial component, said tibial component including a tibial plate and a tibial stem ; characterised in that the knee replacement prosthesis comprises a plurality of sensors (22, 27, and/or 28) within the tibial stem wherein at least one sensor is an accelerometer that detects acceleration, tilt, vibration, shock and/or rotation. a tibial component, said tibial component including a tibial plate and a tibial stem ; characterised in that the knee replacement prosthesis comprises a plurality of sensors (22, 27, and/or 28) within the tibial stem wherein at least one sensor is an accelerometer that detects acceleration, tilt, vibration, shock and/or rotation.
A recombinant vector for heterologous expression of a recombinant protein in a Streptomyces host cell bearing an expression cassette comprising: a promoter, a regulatory element, and a polynucleotide encoding a recombinant protein operably linked to said promoter and regulatory element; wherein: - said promoter is an engineered kasO promoter ( kasOp *) having sequence SEQ ID NO: 10; - said regulatory element is an optimized synthetic SR40 ribosome-binding site (RBS) having sequence SEQ ID NO: 11; - the polynucleotide encoding for the recombinant protein of interest encodes for a recombinant protein that includes a N-terminal signal peptide; and - the recombinant vector is a single-site integrating vector. - said promoter is an engineered kasO promoter ( kasOp *) having sequence SEQ ID NO: 10; - said regulatory element is an optimized synthetic SR40 ribosome-binding site (RBS) having sequence SEQ ID NO: 11; - the polynucleotide encoding for the recombinant protein of interest encodes for a recombinant protein that includes a N-terminal signal peptide; and - the recombinant vector is a single-site integrating vector.
A method, comprising: receiving an authentication input at an authentication authority using an authentication protocol, the authentication input being associated with a client , and including a strength attribute and at least one of an amount of trust and a type attribute, wherein the strength attribute is configured to identify one of a permutational complexity of a password or a cryptographic complexity of an identity certificate; verifying the authentication input; retrieving one or more stored representations corresponding to the strength attribute; providing the one or more representations for the authentication input, each of the representations representing the strength attribute, the amount of trust attribute and the type attribute; and returning a token to the client using the authentication protocol, the token including the one or more representations created from the validated authentication input, wherein receiving an access request includes receiving a token that includes the one or more representations, wherein the one or more representations are tailored to provide different access permissions as a function of the authentication input attributes using the one or more representations to gain differentiated access to networked resources on a target server. receiving an authentication input at an authentication authority using an authentication protocol, the authentication input being associated with a client , and including a strength attribute and at least one of an amount of trust and a type attribute, wherein the strength attribute is configured to identify one of a permutational complexity of a password or a cryptographic complexity of an identity certificate; verifying the authentication input; retrieving one or more stored representations corresponding to the strength attribute; providing the one or more representations for the authentication input, each of the representations representing the strength attribute, the amount of trust attribute and the type attribute; and returning a token to the client using the authentication protocol, the token including the one or more representations created from the validated authentication input, wherein receiving an access request includes receiving a token that includes the one or more representations, wherein the one or more representations are tailored to provide different access permissions as a function of the authentication input attributes using the one or more representations to gain differentiated access to networked resources on a target server.
An electrical sensor unit, attachable to an electrical distribution cable and comprising: an elongate annular body formed of an electrically insulating material and defining an axial passage through which an electrical conductor can pass, the annular body housing a current sensor for current being transmitted in the cable, the electrical sensor unit including a loop extending around the axial passage and at least one electrical sensor , for at least one of voltage, and phase angle of electrical power being transmitted in the cable, a source of electrical power for driving the current sensor and the at least one electrical sensor , and a socket in the annular body for releasably receiving a plug-in environmental sensor and comprising connections for the source of electrical power.
A computer-implemented method for localizing a 3D modeled object in a 3D scene, the 3D modeled object and the 3D scene each including respective 3D points, each 3D point being associated to a respective normal vector, the method comprising a positioning of the 3D modeled object in the 3D scene, the positioning being performed following an algorithm that rewards, for each of first couples made of two 3D points of the 3D modeled object and their respective associated normal vectors, a match with a respective second couple made of two 3D points of the 3D scene and their respective associated normal vectors, the first couple being positioned substantially on the second couple, the match between the first couple and the second couple amounting to a substantial equality between the value of a descriptor for the first couple and the value of the descriptor for the second couple, characterized in that the descriptor is variable under mirror symmetries, wherein the descriptor for a couple (( p 1 , n 1 ), ( p 2 , n 2 )) ∈ P M ∪ P S is a vector that comprises a term of the type det n 1 n 2 q ‖ q ‖ , where: ▪ B = x y z ∈ R 3 , x 2 + y 2 + z 2 = 1 is the unit sphere, ▪ K = R 3 × B is the set of couples made of a 3D point and a normal vector, ▪ M is the 3D modeled object, including a finite subset of K, with M = { m i , i = 1,···,| M |} with m i ∈ R 3 × B for all i , ▪ 5 is the 3D scene, including a finite subset of K , with S = { s i ,i = 1,···, | S |} with s i ∈ R 3 × B for all i, ▪ P M is the set of all couples of elements of M , with P M = {(( p 1 , n 1 ),( p 2 , n 2 )),( p 1 , n 1 ) ∈ M, ( p 2 , n 2 ) ∈ M } = M × M, ▪ P S . is the set of all couples of elements of S , with P S = {(( p 1 , n 1 ),( p 2 , n 2 )),( p 1 , n 1 ) ∈ S ,( p 2 , n 2 ) ∈ S } = S × S , and ▪ q = p 2 - p 1 , wherein the descriptor is computed according to a mapping F : P M ∪ P S → R 4 of the type: F p 1 n 1 p 2 n 2 = ‖ q ‖ 〈 n 1 | q ‖ q ‖ 〉 〈 n 2 | q ‖ q ‖ 〉 det n 1 n 2 q ‖ q ‖ where 〈 u | v 〉 is the scalar product of vectors u and v . ▪ B = x y z ∈ R 3 , x 2 + y 2 + z 2 = 1 is the unit sphere, ▪ K = R 3 × B is the set of couples made of a 3D point and a normal vector, ▪ M is the 3D modeled object, including a finite subset of K, with M = { m i , i = 1,···,| M |} with m i ∈ R 3 × B for all i , ▪ 5 is the 3D scene, including a finite subset of K , with S = { s i ,i = 1,···, | S |} with s i ∈ R 3 × B for all i, ▪ P M is the set of all couples of elements of M , with P M = {(( p 1 , n 1 ),( p 2 , n 2 )),( p 1 , n 1 ) ∈ M, ( p 2 , n 2 ) ∈ M } = M × M, ▪ P S . is the set of all couples of elements of S , with P S = {(( p 1 , n 1 ),( p 2 , n 2 )),( p 1 , n 1 ) ∈ S ,( p 2 , n 2 ) ∈ S } = S × S , and ▪ q = p 2 - p 1 ,
A method of installing a seal in a bore of a component , the method comprising opening a tool case to reveal a support fixture with a shaped groove configured to receive a component flange and permit rotation of the component relative to the tool case ; rotating the component in the support fixture while a portion of the component flange remains within the shaped groove ; securing a base plate to the component ; arranging the seal onto a pusher ; inserting the pusher into a hole in the base plate ; installing a hub onto the base plate and over the pusher ; and rotating a rod relative to the hub to advance the pusher and seat the seal in the bore . opening a tool case to reveal a support fixture with a shaped groove configured to receive a component flange and permit rotation of the component relative to the tool case ; rotating the component in the support fixture while a portion of the component flange remains within the shaped groove ; securing a base plate to the component ; arranging the seal onto a pusher ; inserting the pusher into a hole in the base plate ; installing a hub onto the base plate and over the pusher ; and rotating a rod relative to the hub to advance the pusher and seat the seal in the bore .
A method performed by a user equipment, UE, configured for dynamic bandwidth part, BWP, switching between an active BWP and a target BWP, the method comprising: receiving, from a network node, an indication of resource blocks, selected by the network node to be used by the UE in the target BWP, in a resource allocation field of a downlink control information in the active BWP, the resource allocation field comprising information bits for allocating one or more resource blocks for the target BWP; determining a target BWP resource allocation type based on a relationship between the resources allocated for the target BWP and resources allocated for the active BWP, wherein the target BWP resource allocation type indicates whether the information bits of a resource allocation field in a downlink control information comprise a bitmap corresponding to one or more resource block groups or an integer value corresponding to a starting position and a length of the allocation; interpreting the information bits based on the determined target bandwidth part resource allocation type. receiving, from a network node, an indication of resource blocks, selected by the network node to be used by the UE in the target BWP, in a resource allocation field of a downlink control information in the active BWP, the resource allocation field comprising information bits for allocating one or more resource blocks for the target BWP; determining a target BWP resource allocation type based on a relationship between the resources allocated for the target BWP and resources allocated for the active BWP, wherein the target BWP resource allocation type indicates whether the information bits of a resource allocation field in a downlink control information comprise a bitmap corresponding to one or more resource block groups or an integer value corresponding to a starting position and a length of the allocation; interpreting the information bits based on the determined target bandwidth part resource allocation type.
A tool comprising: a housing assembly defining a handle; and a transmission assembly received in the housing assembly , the transmission assembly comprising a reduction gearset and a speed selector mechanism , the reduction gearset comprising a plurality of planetary stages , the speed selector mechanism having a movable member , an actuator and a shifter assembly , the movable member being movable parallel to a longitudinal axis of the transmission assembly between a first position, in which the movable member is non-rotatably coupled to the housing assembly , and a second position in which the movable member is coupled to a planet carrier of the reduction gearset for common rotation, the actuator comprising a yoke , which is pivotally coupled to the housing assembly , and a follower that is coupled to the yoke , the follower engaging the movable member so as to be axially movable with the follower , the shifter assembly having a selector switch and a switch fork , the selector switch being slidably mounted to the housing assembly and movable between a first switch position and a second switch position; characterized by the shifter assembly also having a pair of biasing springs , and the switch fork being slidably coupled to the selector switch and receiving the yoke , the biasing springs cooperating to bias the switch fork relative to the selector switch into a neutral position. a housing assembly defining a handle; and a transmission assembly received in the housing assembly , the transmission assembly comprising a reduction gearset and a speed selector mechanism , the reduction gearset comprising a plurality of planetary stages , the speed selector mechanism having a movable member , an actuator and a shifter assembly , the movable member being movable parallel to a longitudinal axis of the transmission assembly between a first position, in which the movable member is non-rotatably coupled to the housing assembly , and a second position in which the movable member is coupled to a planet carrier of the reduction gearset for common rotation, the actuator comprising a yoke , which is pivotally coupled to the housing assembly , and a follower that is coupled to the yoke , the follower engaging the movable member so as to be axially movable with the follower , the shifter assembly having a selector switch and a switch fork , the selector switch being slidably mounted to the housing assembly and movable between a first switch position and a second switch position; characterized by the shifter assembly also having a pair of biasing springs , and the switch fork being slidably coupled to the selector switch and receiving the yoke , the biasing springs cooperating to bias the switch fork relative to the selector switch into a neutral position.
A data transmission method performed by a user equipment, UE, the method comprising: • when switching between unicast and multicast is performed, obtaining a first timestamp identifier and a sequence number of a first packet on a first path ; • after switching, obtaining a second timestamp identifier of a second packet that is on a second path and that has a same sequence number as that of the first packet; and • sending the first timestamp identifier and the second timestamp identifier to a group communication service application server, GCS AS . • when switching between unicast and multicast is performed, obtaining a first timestamp identifier and a sequence number of a first packet on a first path ; • after switching, obtaining a second timestamp identifier of a second packet that is on a second path and that has a same sequence number as that of the first packet; and • sending the first timestamp identifier and the second timestamp identifier to a group communication service application server, GCS AS .
A display control apparatus comprising: an acquisition means for acquiring first image data that represents a subject image formed at different magnifications in a horizontal direction and a vertical direction by using an anamorphic lens; a display control means for performing first resizing and second resizing, wherein the first resizing comprises applying a first process to obtain second data by clipping a part of the first image data and further comprises generating a display image having a predetermined aspect ratio from the second data, and wherein the second resizing comprises resizing the first image data without clipping the part of the first image data; characterized in that the display control apparatus further comprising: a control means for controlling the display control means to perform the second resizing in a case where a moving image recording setting satisfies a condition that a shooting mode in which a variable frame rate for moving image recording is set, and to perform the first resizing in a case where the moving image recording setting does not satisfy the condition. an acquisition means for acquiring first image data that represents a subject image formed at different magnifications in a horizontal direction and a vertical direction by using an anamorphic lens; a display control means for performing first resizing and second resizing, wherein the first resizing comprises applying a first process to obtain second data by clipping a part of the first image data and further comprises generating a display image having a predetermined aspect ratio from the second data, and wherein the second resizing comprises resizing the first image data without clipping the part of the first image data;
A wall for a building, comprising a framed wall structure including a top support , a bottom support , and opposing side supports connected together, and at least one intermediate support attached to said top support and said bottom support , the wall comprising: a blast protection panel made of a cement-gypsum binder including alkali-resistant fiberglass fibers attached to said framed wall structure , said blast protection panel including a first surface that is attached to said framed wall structure and a second, opposing surface that is explosed to the blast, wherein said blast protection panel is configured to withstand forces generated by explosive blasts up to 10 psi (68.95 kPa). a blast protection panel made of a cement-gypsum binder including alkali-resistant fiberglass fibers attached to said framed wall structure , said blast protection panel including a first surface that is attached to said framed wall structure and a second, opposing surface that is explosed to the blast, wherein said blast protection panel is configured to withstand forces generated by explosive blasts up to 10 psi (68.95 kPa).
A micron-scale monocrystal film , comprising a substrate layer ; and a micron-scale monocrystal film layer located on the substrate layer wherein a transition layer is interposed between the substrate layer and micron-scale monocrystal film layer, and the transition layer includes a first transition layer disposed adjacent to the substrate layer and a second transition layer disposed adjacent to the micron-scale monocrystal film layer, wherein the transition layer includes H and an element of at least one kind of plasma gases used during the plasma bonding of the substrate layer and the micron-scale monocrystal film layer, characterized in that , the concentration of H in the transition layer ranges from 1 × 10 20 to 1 × 10 22 atoms/cm 3 , and the concentration of H has a maximum value in the transition layer, and from the position with maximum value, the concentration of H gradually decreases toward the micron-scale monocrystal film layer and substrate layer; wherein the first transition layer and second transition layer each have a thickness ranging from 0.5 to 10 nm. a micron-scale monocrystal film layer located on the substrate layer wherein a transition layer is interposed between the substrate layer and micron-scale monocrystal film layer, and the transition layer includes a first transition layer disposed adjacent to the substrate layer and a second transition layer disposed adjacent to the micron-scale monocrystal film layer, wherein the transition layer includes H and an element of at least one kind of plasma gases used during the plasma bonding of the substrate layer and the micron-scale monocrystal film layer, characterized in that , the concentration of H in the transition layer ranges from 1 × 10 20 to 1 × 10 22 atoms/cm 3 , and the concentration of H has a maximum value in the transition layer, and from the position with maximum value, the concentration of H gradually decreases toward the micron-scale monocrystal film layer and substrate layer; wherein the first transition layer and second transition layer each have a thickness ranging from 0.5 to 10 nm.