mhurhangee/patent-ind-claim-en huggingface dataset:
A polypeptide comprising: (i) an amino acid sequence as set forth in SEQ ID NO: 1, wherein X at position 79 is selected from alanine, glycine, serine, asparagine, or threonine; (ii) a portion of (i) comprising an amino acid sequence as set forth in SEQ ID NO: 2, wherein X at position 56 is selected from alanine, glycine, serine, asparagine or threonine; (iii) an amino acid sequence with at least 80% sequence identity to a sequence as set forth in SEQ ID NO: 1, wherein the polypeptide comprises alanine, glycine, serine, asparagine or threonine at a position equivalent to position 79 of SEQ ID NO: 1; or (iv) a portion of (iii) comprising an amino acid sequence with at least 80% sequence identity to a sequence as set forth in SEQ ID NO: 2, wherein the polypeptide comprises alanine, glycine, serine, asparagine or threonine at a position equivalent to position 56 of SEQ ID NO: 2, wherein the polypeptide binds selectively and reversibly to a peptide comprising an amino acid sequence as set forth in SEQ ID NO: 3, 4 or 5. (i) an amino acid sequence as set forth in SEQ ID NO: 1, wherein X at position 79 is selected from alanine, glycine, serine, asparagine, or threonine; (ii) a portion of (i) comprising an amino acid sequence as set forth in SEQ ID NO: 2, wherein X at position 56 is selected from alanine, glycine, serine, asparagine or threonine; (iii) an amino acid sequence with at least 80% sequence identity to a sequence as set forth in SEQ ID NO: 1, wherein the polypeptide comprises alanine, glycine, serine, asparagine or threonine at a position equivalent to position 79 of SEQ ID NO: 1; or (iv) a portion of (iii) comprising an amino acid sequence with at least 80% sequence identity to a sequence as set forth in SEQ ID NO: 2, wherein the polypeptide comprises alanine, glycine, serine, asparagine or threonine at a position equivalent to position 56 of SEQ ID NO: 2,
A profile system for forming a terrace floor substructure , wherein the profile system comprises an element and a plurality of profile struts forming a substructure frame for floor coverings, each profile strut having a longitudinal groove open towards its upper side, in which longitudinal groove said element for fastening and/or aligning floor coverings is inserted in a longitudinally displaceable manner, wherein the element is further displaceable in a direction extending perpendicular to the longitudinal direction of the longitudinal groove and perpendicular to the depth of the longitudinal groove , wherein the element for fixing and/or aligning floor coverings comprises an upper part with a joint cross or a clamping element for engagement in a lateral groove of a floor covering and a lower part guided in the longitudinal groove in the longitudinal direction, characterized in that the bottom part has three parallel elongated holes formed as through holes, the elongated holes extending in the direction perpendicular to the longitudinal direction of the longitudinal groove and perpendicular to the depth of the longitudinal groove .
A method, performed by a control device , for determining hydraulic failure of a hybrid steering system during automated operation of a vehicle , said hybrid steering system comprising: a steering column (SC) connected to a wheel axle (X) with steerable wheels (W); an electric power steering system (EPS) connected to the steering column (SC); and a hydraulic power steering system (HPS) connected to the electric power steering system (EPS), the method being characterised by : determining (s101) a target steering angle change (Δδ target ) to be provided by means of the electric power steering system (EPS), based on a requested steering angle and a current steering angle; controlling (s102) the electric power steering system (EPS) to temporarily provide a steering torque corresponding to a first target steering angle change larger than the determined target steering angle change (Δδ target ), when the determined target steering angle change (Δδ target ) is lower than a predetermined threshold value; determining (s103) a steering angle velocity and/or steering angle acceleration resulting from the provided steering torque; and determining (s104) whether a hydraulic failure has occurred based on the determined steering angle velocity and/or steering angle acceleration. a steering column (SC) connected to a wheel axle (X) with steerable wheels (W); an electric power steering system (EPS) connected to the steering column (SC); and a hydraulic power steering system (HPS) connected to the electric power steering system (EPS), determining (s101) a target steering angle change (Δδ target ) to be provided by means of the electric power steering system (EPS), based on a requested steering angle and a current steering angle; controlling (s102) the electric power steering system (EPS) to temporarily provide a steering torque corresponding to a first target steering angle change larger than the determined target steering angle change (Δδ target ), when the determined target steering angle change (Δδ target ) is lower than a predetermined threshold value; determining (s103) a steering angle velocity and/or steering angle acceleration resulting from the provided steering torque; and determining (s104) whether a hydraulic failure has occurred based on the determined steering angle velocity and/or steering angle acceleration.
A method for transmitting a sounding reference signal, SRS, in a cooperative communication system, the method comprising: receiving SRS resource information indicating a transmission resource for transmitting an SRS to be transmitted by a user equipment, UE, from a macro base station ; transmitting the SRS and uplink data based on a UE-specific SRS subframe configuration included in the SRS resource information when the SRS resource information includes the UE-specific SRS subframe configuration information; and transmitting the SRS and the uplink data based on a pre-stored cell-specific SRS subframe configuration when the SRS resource information does not include the UE-specific SRS subframe configuration information, wherein a destination of the SRS to be transmitted by the UE is selected as a first base station which is one of remote radio head, RRH, base stations of the macro base station , when the SRS resource information includes the UE-specific SRS subframe configuration information of the first base station selected as the destination of the SRS, wherein the UE-specific SRS subframe configuration information allows a last SC-FDMA symbol of a subframe to be used in transmitting the uplink data, when the uplink data is transmitted in the subframe in which the SRS is not transmitted. receiving SRS resource information indicating a transmission resource for transmitting an SRS to be transmitted by a user equipment, UE, from a macro base station ; transmitting the SRS and uplink data based on a UE-specific SRS subframe configuration included in the SRS resource information when the SRS resource information includes the UE-specific SRS subframe configuration information; and transmitting the SRS and the uplink data based on a pre-stored cell-specific SRS subframe configuration when the SRS resource information does not include the UE-specific SRS subframe configuration information, wherein a destination of the SRS to be transmitted by the UE is selected as a first base station which is one of remote radio head, RRH, base stations of the macro base station , when the SRS resource information includes the UE-specific SRS subframe configuration information of the first base station selected as the destination of the SRS, wherein the UE-specific SRS subframe configuration information allows a last SC-FDMA symbol of a subframe to be used in transmitting the uplink data, when the uplink data is transmitted in the subframe in which the SRS is not transmitted.
A computing system , comprising: a chassis having an airflow entrance and an airflow exhaust; a duct structure disposed in the chassis , the duct structure having a first end facing the airflow entrance and a second end facing the airflow exhaust; and a redirection mechanism located on a wall of the duct structure and extending through a cutout in the wall of the duct structure , the redirection mechanism comprising a deflector having an inlet airfoil extending away from the duct structure towards the airflow entrance and at least one exhaust airfoil extending into the duct structure , wherein the inlet airfoil and each of the at least one exhaust airfoil are connected at an at least one fixed joint angle; and wherein the deflector further comprises: a hinge rotatably attaching the deflector to the duct structure ; and a spring that biases the deflector towards a first position. a chassis having an airflow entrance and an airflow exhaust; a duct structure disposed in the chassis , the duct structure having a first end facing the airflow entrance and a second end facing the airflow exhaust; and a redirection mechanism located on a wall of the duct structure and extending through a cutout in the wall of the duct structure , the redirection mechanism comprising a deflector having an inlet airfoil extending away from the duct structure towards the airflow entrance and at least one exhaust airfoil extending into the duct structure , wherein the inlet airfoil and each of the at least one exhaust airfoil are connected at an at least one fixed joint angle; and wherein the deflector further comprises: a hinge rotatably attaching the deflector to the duct structure ; and a spring that biases the deflector towards a first position. a hinge rotatably attaching the deflector to the duct structure ; and a spring that biases the deflector towards a first position.
A pallet comprising: a top deck having a rectangular shape; a bottom deck having a rectangular shape; and a plurality of spaced apart corner support blocks coupled between corners of said top and bottom decks and forming a gap therebetween for receiving a lifting member, each corner support block comprising a pair of exposed support block side surfaces aligned with a respective corner, with each exposed support block side surface having a pocket formed therein for receiving an end of the lifting member so as to allow the pallet to be spun around, an outer exposed wall surrounding the pocket , and with the pocket including a bottom surface and adjacent side surfaces extending between the bottom surface and the outer exposed wall , and with the adjacent side surfaces being non-orthogonal with respect to the outer exposed wall and the bottom surface ; said bottom deck having corners, with each corner having a pair of exposed bottom deck side surfaces , and with each exposed bottom deck side surface comprising an elevated exterior ridge adjacent each corner, with each elevated exterior ridge contacting a corresponding lower mid-section of one of the exposed support block side surfaces aligned with the corner. a top deck having a rectangular shape; a bottom deck having a rectangular shape; and a plurality of spaced apart corner support blocks coupled between corners of said top and bottom decks and forming a gap therebetween for receiving a lifting member, each corner support block comprising a pair of exposed support block side surfaces aligned with a respective corner, with each exposed support block side surface having a pocket formed therein for receiving an end of the lifting member so as to allow the pallet to be spun around, an outer exposed wall surrounding the pocket , and with the pocket including a bottom surface and adjacent side surfaces extending between the bottom surface and the outer exposed wall , and with the adjacent side surfaces being non-orthogonal with respect to the outer exposed wall and the bottom surface ; a pocket formed therein for receiving an end of the lifting member so as to allow the pallet to be spun around, an outer exposed wall surrounding the pocket , and with the pocket including a bottom surface and adjacent side surfaces extending between the bottom surface and the outer exposed wall , and with the adjacent side surfaces being non-orthogonal with respect to the outer exposed wall and the bottom surface ; said bottom deck having corners, with each corner having a pair of exposed bottom deck side surfaces , and with each exposed bottom deck side surface comprising an elevated exterior ridge adjacent each corner, with each elevated exterior ridge contacting a corresponding lower mid-section of one of the exposed support block side surfaces aligned with the corner.
A method of detecting the presence and/or amount of a target nucleic acid molecule in a biological sample, the method comprising the following steps: (a) contacting the biological sample with: i) a Cas12b protein, ii) a gRNA directed against a target sequence in the target nucleic acid molecule, and iii) a single-strand DNA reporter molecule which produces a detectable signal after being cleaved, thereby forming a reaction mixture; (b) detecting the presence and/or level of the detectable signal produced in the reaction mixture, wherein the presence and/or level of the detectable signal represents the presence and/or amount of the target nucleic acid molecule, and wherein the Cas12b protein is Alicyclobacillus acidiphilus AaCas12b. (a) contacting the biological sample with: i) a Cas12b protein, ii) a gRNA directed against a target sequence in the target nucleic acid molecule, and iii) a single-strand DNA reporter molecule which produces a detectable signal after being cleaved, thereby forming a reaction mixture; (b) detecting the presence and/or level of the detectable signal produced in the reaction mixture, wherein the presence and/or level of the detectable signal represents the presence and/or amount of the target nucleic acid molecule, and wherein the Cas12b protein is Alicyclobacillus acidiphilus AaCas12b.
A capsule for protecting an electronic device inside a wear element of an earth moving machine, having a central axis defining an axial direction, a front end , and a rear end opposite said front end in the axial direction; characterized in that it comprises: - a container , extending in the axial direction from said front end , provided with an inner chamber configured for housing said electronic device , wherein said container has a front part provided with a flange , and a rear part ; and - a cover that can be removably coupled to said container and configured for covering said rear part of said container . - a container , extending in the axial direction from said front end , provided with an inner chamber configured for housing said electronic device , wherein said container has a front part provided with a flange , and a rear part ; and - a cover that can be removably coupled to said container and configured for covering said rear part of said container .
A control device of a hydraulic winch which has a normal operation mode and a fuel-saving operation mode in which a fuel-saving operation is performed unlike in the normal operation mode, is applied to a crane for hoisting/lowering a rope by a winch drum, and controls a rotation of the winch drum, the device comprising: an engine ; a variable capacity hydraulic pump which is driven by the engine; a variable capacity hydraulic motor which is rotated by pressure oil from the hydraulic pump to drive the winch drum; a winch manipulating member configured to output hoisting/lowering commands for hoisting/lowering the rope; an engine control unit configured to control a rotation speed of the engine to be in a range from a minimum rotation speed to a maximum rotation speed according to the hoisting/lowering commands from the winch manipulating member; a winch load detector configured to detect a load applied to the winch drum, characterized in that the device further comprises a motor capacity control unit configured to control a motor capacity of the hydraulic motor so as to decrease a motor capacity of the hydraulic motor in the fuel-saving operation mode to a motor capacity which is smaller than a motor capacity of the hydraulic motor in the normal operation mode, and the engine control unit sets an upper limit value of the rotation speed of the engine in the fuel-saving operation mode to a value which is lower than the maximum rotation speed of the engine in the normal operation mode and corresponds to the load detected by the winch load detector. an engine ; a variable capacity hydraulic pump which is driven by the engine; a variable capacity hydraulic motor which is rotated by pressure oil from the hydraulic pump to drive the winch drum; a winch manipulating member configured to output hoisting/lowering commands for hoisting/lowering the rope; an engine control unit configured to control a rotation speed of the engine to be in a range from a minimum rotation speed to a maximum rotation speed according to the hoisting/lowering commands from the winch manipulating member; a winch load detector configured to detect a load applied to the winch drum, characterized in that the device further comprises a motor capacity control unit configured to control a motor capacity of the hydraulic motor so as to decrease a motor capacity of the hydraulic motor in the fuel-saving operation mode to a motor capacity which is smaller than a motor capacity of the hydraulic motor in the normal operation mode, and the engine control unit sets an upper limit value of the rotation speed of the engine in the fuel-saving operation mode to a value which is lower than the maximum rotation speed of the engine in the normal operation mode and corresponds to the load detected by the winch load detector.
A cylinder locking device comprising : a cylinder body , an inner cylinder which is pivotably inserted into the cylinder body , a tumbler which is held by the inner cylinder so as to be rotatable with the inner cylinder , wherein the tumbler is configured to engage with the cylinder body , and the tumbler is configured to be released from engagement with the cylinder body in response to a legitimate mechanical key being inserted in the cylinder locking device, a protector which is disposed opposite a rear end of the inner cylinder along an insertion direction of the mechanical key , wherein the protector enables the mechanical key to be inserted toward the inner cylinder , and a coil-shaped spring extending in an axial direction of the inner cylinder , wherein the coil-shaped spring is provided between the protector and either the inner cylinder or the cylinder body , so as to exhibit a spring force urging the protector rearward along the insertion direction , characterized in that the spring is formed so as to have a coil portion and at least one bent portion (50b; 58b, 58c), wherein the coil portion extends along the direction of a longitudinal axis of the inner cylinder , and wherein the bent portion (50b; 58b, 58c) is bent from at least one end part of the coil portion toward an interior of the coil portion along the longitudinal axis of the inner cylinder . a cylinder body , an inner cylinder which is pivotably inserted into the cylinder body , a tumbler which is held by the inner cylinder so as to be rotatable with the inner cylinder , wherein the tumbler is configured to engage with the cylinder body , and the tumbler is configured to be released from engagement with the cylinder body in response to a legitimate mechanical key being inserted in the cylinder locking device, a protector which is disposed opposite a rear end of the inner cylinder along an insertion direction of the mechanical key , wherein the protector enables the mechanical key to be inserted toward the inner cylinder , and a coil-shaped spring extending in an axial direction of the inner cylinder , wherein the coil-shaped spring is provided between the protector and either the inner cylinder or the cylinder body , so as to exhibit a spring force urging the protector rearward along the insertion direction , characterized in that the spring is formed so as to have a coil portion and at least one bent portion (50b; 58b, 58c), wherein the coil portion extends along the direction of a longitudinal axis of the inner cylinder , and wherein the bent portion (50b; 58b, 58c) is bent from at least one end part of the coil portion toward an interior of the coil portion along the longitudinal axis of the inner cylinder .
An orchestration method , for execution by an orchestrator for a Virtual Network Platform as a Service, VNPaaS, to orchestrate the management of a Network Service, NS, comprising: - selecting an orchestration zone for each of a plurality of Virtual Network Functions, VNFs, used in the NS based on selected deployment locations, wherein each orchestration zone corresponds to a logical partition of a Network Function Virtualization Infrastructure, NFVI, and comprises at least one VNF, wherein each orchestration zone is managed by an orchestration agent ; - associating sub-services to said selected orchestration zones, said sub-services being obtained from a decomposition of the NS into a number of sub-services equal to a number of orchestration zones selected and each sub-service comprising at least one of the plurality of VNFs ; and - initiating deployment of the sub-services in the selected orchestration zones, wherein initiating deployment includes instructing the orchestration agents in the selected orchestration zones to deploy the sub-services. - selecting an orchestration zone for each of a plurality of Virtual Network Functions, VNFs, used in the NS based on selected deployment locations, wherein each orchestration zone corresponds to a logical partition of a Network Function Virtualization Infrastructure, NFVI, and comprises at least one VNF, wherein each orchestration zone is managed by an orchestration agent ; - associating sub-services to said selected orchestration zones, said sub-services being obtained from a decomposition of the NS into a number of sub-services equal to a number of orchestration zones selected and each sub-service comprising at least one of the plurality of VNFs ; and - initiating deployment of the sub-services in the selected orchestration zones, wherein initiating deployment includes instructing the orchestration agents in the selected orchestration zones to deploy the sub-services.
Household appliance , having - a treatment chamber with a loading opening, which can be closed by means of a door which can be pivoted by way of door hinges , which door has at least one electrical load, and - at least one energy transmission device with a primary side , which has at least one primary coil and a secondary side , which has at least one secondary coil , wherein - the secondary side is arranged on the door and is electrically connected to the at least one load, characterised in that - the door hinges have a stationary hinge housing , which is fixedly installed in the household appliance and is pivotably connected to a door strut which is fixedly connected to the door, - in the closed state of the door , the primary coil faces the secondary coil separated by way of an air gap and can be coupled in the manner of a transformer to the secondary coil at least when the door is closed, and - the primary side is attached to a hinge housing of at least one door hinge . - a treatment chamber with a loading opening, which can be closed by means of a door which can be pivoted by way of door hinges , which door has at least one electrical load, and - at least one energy transmission device with a primary side , which has at least one primary coil and a secondary side , which has at least one secondary coil , wherein - the secondary side is arranged on the door and is electrically connected to the at least one load, characterised in that - the door hinges have a stationary hinge housing , which is fixedly installed in the household appliance and is pivotably connected to a door strut which is fixedly connected to the door, - in the closed state of the door , the primary coil faces the secondary coil separated by way of an air gap and can be coupled in the manner of a transformer to the secondary coil at least when the door is closed, and - the primary side is attached to a hinge housing of at least one door hinge .