mhurhangee/patent-ind-claim-en huggingface dataset:
A spacer textile material comprising a first layer , a second layer , and a plurality of connecting members extending between and joining the first layer and the second layer , the connecting members forming a series of at least ten rows that are separated by spaces , the rows having a width that is less than a width of the spaces , and the connecting members forming at least one stabilizing row , the at least one stabilizing row including a first stabilizing row and a second stabilizing row , wherein the first layer and the second layer define a first edge and an opposite second edge of the spacer textile material ; and wherein the first stabilizing row is located adjacent to the first edge and the second stabilizing row is located adjacent to the second edge , characterised by the at least one stabilizing row with a width that is greater than the width of the spaces which includes joining strands , the joining strands being stitching that draws the first layer and the second layer together and secures the first layer and the second layer to each other within the stabilizing row . wherein the first layer and the second layer define a first edge and an opposite second edge of the spacer textile material ; and wherein the first stabilizing row is located adjacent to the first edge and the second stabilizing row is located adjacent to the second edge , characterised by the at least one stabilizing row with a width that is greater than the width of the spaces which includes joining strands , the joining strands being stitching that draws the first layer and the second layer together and secures the first layer and the second layer to each other within the stabilizing row .
Use of a polyester comprising monomer repeating units from (A) a hydrogenated bisphenol, (B) a diol, (C) a dicarboxylic acid or its anhydride as a tackifier of an adhesive composition, wherein (C) comprises (C1) an aliphatic dicarboxylic acid or its anhydride.
A method comprising: tracking execution of a metadata operation to identify a set of objects that are modified by the execution of the metadata operation ; storing a set of identifiers of the set of objects in association with the metadata operation ; determining that the metadata operation is to be replayed for a target file system ; querying, using the set of identifiers, a tracking data structure used to track identifiers of objects that will be modified by pending operations dispatched to the target file system, wherein during the initial execution of the metadata operations, the execution of the metadata operations is tracked to determine the data objects that are modified by the metadata operations, wherein the tracking data structure is populated with the corresponding set of identifiers corresponding to set of objects that are modified by each said metadata operation ; dispatching the metadata operation to the target file system for replay based upon the set of identifiers not matching at least one identifier within the tracking data structure ; and withholding dispatch of the metadata operation to the target file system for replay based upon the set of identifiers matching at least one identifier within the tracking data structure . tracking execution of a metadata operation to identify a set of objects that are modified by the execution of the metadata operation ; storing a set of identifiers of the set of objects in association with the metadata operation ; determining that the metadata operation is to be replayed for a target file system ; querying, using the set of identifiers, a tracking data structure used to track identifiers of objects that will be modified by pending operations dispatched to the target file system, wherein during the initial execution of the metadata operations, the execution of the metadata operations is tracked to determine the data objects that are modified by the metadata operations, wherein the tracking data structure is populated with the corresponding set of identifiers corresponding to set of objects that are modified by each said metadata operation ; dispatching the metadata operation to the target file system for replay based upon the set of identifiers not matching at least one identifier within the tracking data structure ; and withholding dispatch of the metadata operation to the target file system for replay based upon the set of identifiers matching at least one identifier within the tracking data structure .
A multilayer structure (M100) comprising: a first material layer (L10); a second material layer (L20) connected to the first material layer, the second material layer being spaced apart from the first material layer; a diffusion barrier layer (B11) between the first material layer and the second material layer, the diffusion barrier layer including a non-graphene-based two-dimensional material, wherein the first material layer (L10) includes an insulator or a semiconductor, the second material layer (L20) includes a conductor, and a surface of the non-graphene-based two-dimensional material directly contacts a surface of the first material layer; the multilayer structure further comprising: a conductor ; an understructure ; and an insulating material layer on the understructure, wherein the insulating material layer defines an opening (H10), the diffusion barrier layer covers the insulating material layer in the opening, the conductor covers the diffusion barrier layer in the opening, the first material layer includes at least a part of one of the understructure and the insulating material layer , and the second material layer includes at least a part of the conductor . a first material layer (L10); a second material layer (L20) connected to the first material layer, the second material layer being spaced apart from the first material layer; a diffusion barrier layer (B11) between the first material layer and the second material layer, the diffusion barrier layer including a non-graphene-based two-dimensional material, wherein the first material layer (L10) includes an insulator or a semiconductor, the second material layer (L20) includes a conductor, and a surface of the non-graphene-based two-dimensional material directly contacts a surface of the first material layer; a conductor ; an understructure ; and an insulating material layer on the understructure, wherein the insulating material layer defines an opening (H10), the diffusion barrier layer covers the insulating material layer in the opening, the conductor covers the diffusion barrier layer in the opening, the first material layer includes at least a part of one of the understructure and the insulating material layer , and the second material layer includes at least a part of the conductor .
A movable projector cabinet , comprising a base , a plurality of castors , a first side wall extending from the base , a second sidewall extending from the base , and at a distance from the first side wall , a table plane arranged between the first side wall and the second side wall at a distance from the base , a front wall and back wall defining together a cabinet space, wherein an operation panel is arranged on an upper part of the projector cabinet, wherein the upper part extends at a distance perpendicular from the plan of the table plane , the upper part comprising an upper part front wall and a top wall , wherein the first and second side wall each have a top portion extending to the top wall of the upper part, and wherein the back wall of the projector cabinet extends to the top wall of the upper part, and wherein a projector space is arranged in the cabinet space between the base and the table plane and between the first side wall and the second side wall , and that a shelf defining a floor of the projector space is arranged at an inclination angle (α) in relation to a plane parallel to a base and configured to receive a projector on the shelf so that a lens of the projector is facing towards the front wall and that the lens can be arranged to extend through an opening arranged in the front wall .
An apparatus for detecting droops in a plurality of supply voltages, comprising: multiple means for detecting droop, each means for detecting droop is configured to receive a supply voltage of the plurality of supply voltages, each means for detecting droop includes an input tracking loop to detect the droop in the supply voltage; means for coupling the outputs of the multiple means for detecting droop; and means for comparing, coupled to the means for coupling configured to output a control voltage when the droop is detected in a supply voltage; characterized in that each means for detecting droop includes means for disconnecting each means for detecting droop from the means for coupling when no droop is detected on its respective supply voltage, while other means for detecting droop detect at least one droop on their respective supply voltage. multiple means for detecting droop, each means for detecting droop is configured to receive a supply voltage of the plurality of supply voltages, each means for detecting droop includes an input tracking loop to detect the droop in the supply voltage; means for coupling the outputs of the multiple means for detecting droop; and means for comparing, coupled to the means for coupling configured to output a control voltage when the droop is detected in a supply voltage; characterized in that each means for detecting droop includes means for disconnecting each means for detecting droop from the means for coupling when no droop is detected on its respective supply voltage, while other means for detecting droop detect at least one droop on their respective supply voltage.
A bulk catalyst composition comprising one or more Group VIII metals and two or more Group VIB metals, which bulk catalyst composition comprises i. first metal oxidic particles comprising one or more first Group VIII metals and one or more first Group VIB metals ii. separately prepared second metal oxidic particles comprising one or more second Group VIII metals and one or more second Group VIB metals, wherein the composition of Group VIB and Group VIII metals in the first and second metal oxidic particles are different, and wherein the first metal oxidic particles comprise molybdenum as the main Group VIB metal and the second metal oxidic particles comprise tungsten as the main Group VIB metal; wherein the first and second oxidic bulk particles are separately shaped by extrusion, pilling, pelletising, agglomeration, grinding or spray drying to form separate first and second shaped bulk catalyst particles, which are combined to form the bulk catalyst composition; wherein the first and second shaped bulk catalysts are combined by blending the particles to a homogeneous mixture or in at least two consecutive layers wherein the layers have a different relative amount of the first and second shaped bulk catalysts or in one layer having in a direction perpendicular to the layer a composition gradient along which the relative amount of the first and second shaped bulk catalysts gradually changes. i. first metal oxidic particles comprising one or more first Group VIII metals and one or more first Group VIB metals ii. separately prepared second metal oxidic particles comprising one or more second Group VIII metals and one or more second Group VIB metals, wherein the composition of Group VIB and Group VIII metals in the first and second metal oxidic particles are different, and wherein the first metal oxidic particles comprise molybdenum as the main Group VIB metal and the second metal oxidic particles comprise tungsten as the main Group VIB metal;
An acceleration information transmission device, comprising: - accelerator manipulated variable detecting means for detecting an accelerator manipulated variable (APO) of a driver which provides an input for a vehicle; - vehicle state detecting means for detecting a vehicle speed corresponding value in a form of a vehicle state which provides an output of the vehicle in accordance with an accelerator manipulation by the driver; - acceleration information setting means for setting at least one of an acceleration intention by the driver and an acceleration state of the vehicle, the acceleration intention being set in accordance with the accelerator manipulated variable (APO) and the acceleration state being set in accordance with the vehicle state detected by the vehicle state detecting means in a form of an acceleration information represented by a sound or a vibration; and - transmission means for transmitting the acceleration information set by the acceleration information setting means to the driver, characterised in that the acceleration information setting means is configured: - to calculate a first coefficient (Ka) which accords with the accelerator manipulated variable detected by the accelerator manipulated variable detecting means , - to calculate a second coefficient (Kv) which accords with the vehicle state detected by the vehicle state detecting means , and - to set the acceleration information in accordance with a third coefficient (Ka x Kv; Ka + Kv) which provides one of (i) a weighted product of both of the first and second coefficients (Ka, Kv) and (ii) a weighted sum of both of the first and second coefficients (Ka, Kv). - accelerator manipulated variable detecting means for detecting an accelerator manipulated variable (APO) of a driver which provides an input for a vehicle; - vehicle state detecting means for detecting a vehicle speed corresponding value in a form of a vehicle state which provides an output of the vehicle in accordance with an accelerator manipulation by the driver; - acceleration information setting means for setting at least one of an acceleration intention by the driver and an acceleration state of the vehicle, the acceleration intention being set in accordance with the accelerator manipulated variable (APO) and the acceleration state being set in accordance with the vehicle state detected by the vehicle state detecting means in a form of an acceleration information represented by a sound or a vibration; and - transmission means for transmitting the acceleration information set by the acceleration information setting means to the driver, - to calculate a first coefficient (Ka) which accords with the accelerator manipulated variable detected by the accelerator manipulated variable detecting means , - to calculate a second coefficient (Kv) which accords with the vehicle state detected by the vehicle state detecting means , and - to set the acceleration information in accordance with a third coefficient (Ka x Kv; Ka + Kv) which provides one of (i) a weighted product of both of the first and second coefficients (Ka, Kv) and (ii) a weighted sum of both of the first and second coefficients (Ka, Kv).
A polycarbonate resin composition comprising a polycarbonate resin (A) having a structural unit represented by General formula below and a polycarbonate resin (B) having a structural unit represented by General formula below: (in General formula , R represents a hydrogen atom or a C 1 -C 4 alkyl group) (in General formula , R 1 and R 2 each independently represent a hydrogen atom, a C 1 -C 20 alkyl group, a C 1 -C 20 alkoxyl group, a C 5 -C 20 cycloalkyl group, a C 5 -C 20 cycloalkoxyl group, a C 6 -C 20 aryl group or a C 6 -C 20 aryloxy group, and Y represents a C 1 -C 4 alkylene group).
Method of manufacturing a composite pane , comprising the following steps: - providing an inner pane with at least one defined operating region for at least one switching element for controlling at least one electrically controllable functional element, - placing a thermoplastic film with a transparent multi-touch operating panel mounted thereon as a switching element on the at least one operating region of the inner pane , - laying on a first thermoplastic layer , the latter having a recess for receiving the multi-touch operating panel and the thermoplastic film , - laying on a second thermoplastic layer which contains, at least in a subsection , a transmission switching element as a first electrical functional element and at least a second electrical functional element and surrounds these in a framelike manner, - laying on a third thermoplastic layer - laying on an outer pane - bonding the sequence of layers thus formed to form a composite pane by means of the action of heat, pressure and/or vacuum. - providing an inner pane with at least one defined operating region for at least one switching element for controlling at least one electrically controllable functional element, - placing a thermoplastic film with a transparent multi-touch operating panel mounted thereon as a switching element on the at least one operating region of the inner pane , - laying on a first thermoplastic layer , the latter having a recess for receiving the multi-touch operating panel and the thermoplastic film , - laying on a second thermoplastic layer which contains, at least in a subsection , a transmission switching element as a first electrical functional element and at least a second electrical functional element and surrounds these in a framelike manner, - laying on a third thermoplastic layer - laying on an outer pane - bonding the sequence of layers thus formed to form a composite pane by means of the action of heat, pressure and/or vacuum.
A cognitive-driver-assist system , said system comprising: an object-detection device operable to detect when an object is proximate to a host-vehicle ; an operator-detection device operable to determine when an operator of the host-vehicle is aware of the object ; and a controller configured to output a warning-signal for the operator of the host-vehicle when the object-detection device detects the object , said warning-signal having a warning-intensity that is variable, wherein the controller is configured to increase the warning-intensity when the operator is not aware of the object , characterized in that the object is a traffic-signal for a travel-path of the host-vehicle , the controller is further configured to estimate a time-to-violation of the traffic-signal by the host-vehicle , and increase the warning-intensity when the time-to-violation is less than a time-threshold and the operator is not aware of the object . an object-detection device operable to detect when an object is proximate to a host-vehicle ; an operator-detection device operable to determine when an operator of the host-vehicle is aware of the object ; and a controller configured to output a warning-signal for the operator of the host-vehicle when the object-detection device detects the object , said warning-signal having a warning-intensity that is variable, wherein the controller is configured to increase the warning-intensity when the operator is not aware of the object , characterized in that the object is a traffic-signal for a travel-path of the host-vehicle , the controller is further configured to estimate a time-to-violation of the traffic-signal by the host-vehicle , and increase the warning-intensity when the time-to-violation is less than a time-threshold and the operator is not aware of the object .
A method for selecting a consensus node from multiple nodes on a blockchain, the method comprising: obtaining an equity interest voting result of a shareholder node for at least one expected node, wherein the shareholder node comprises a node that owns at least one of predetermined total shares and wherein an expected node comprises a node that the shareholder node votes for (S2); determining, based on the equity interest voting result, a number of shares owned by each shareholder node after equity interest voting (S4); and determining a consensus node selection result based on the number of shares owned by each shareholder node after equity interest voting (S6), the method being characterised by further comprising, if the shareholder nodes comprise multiple nodes that own the same number of shares after equity interest voting: selecting a consensus node from the multiple nodes that own the same number of shares based on a time sequence of generated root certificates for the multiple nodes that own the same number of shares after equity interest voting, wherein a root certificate for a node comprises: data information used to prove the node is valid, and information representing the time the root certificate was generated. obtaining an equity interest voting result of a shareholder node for at least one expected node, wherein the shareholder node comprises a node that owns at least one of predetermined total shares and wherein an expected node comprises a node that the shareholder node votes for (S2); determining, based on the equity interest voting result, a number of shares owned by each shareholder node after equity interest voting (S4); and determining a consensus node selection result based on the number of shares owned by each shareholder node after equity interest voting (S6), the method being characterised by further comprising, if the shareholder nodes comprise multiple nodes that own the same number of shares after equity interest voting: selecting a consensus node from the multiple nodes that own the same number of shares based on a time sequence of generated root certificates for the multiple nodes that own the same number of shares after equity interest voting, wherein a root certificate for a node comprises: data information used to prove the node is valid, and information representing the time the root certificate was generated. data information used to prove the node is valid, and information representing the time the root certificate was generated.
A compound of formula (I): or a pharmaceutically acceptable salt thereof, wherein R 1 is hydrogen, C 1-4 alkyl, C 3-6 cycloalkyl, C 1-4 alkyloxy, or phenyl; and R 2 is hydrogen, C 1-4 alkyl, C 3-6 cycloalkyl, or halogen; for use in a method of treating cancer in a patient, comprising administering to the patient a therapeutically effective amount of a compound of formula (I), wherein the cancer is chronic myeloid leukemia resistant to the current tyrosine kinase inhibitor therapies caused by BCR-ABL mutations, and wherein the tyrosine kinase inhibitor is Ponatinib. or a pharmaceutically acceptable salt thereof, wherein R 1 is hydrogen, C 1-4 alkyl, C 3-6 cycloalkyl, C 1-4 alkyloxy, or phenyl; and R 2 is hydrogen, C 1-4 alkyl, C 3-6 cycloalkyl, or halogen; for use in a method of treating cancer in a patient, comprising administering to the patient a therapeutically effective amount of a compound of formula (I), wherein the cancer is chronic myeloid leukemia resistant to the current tyrosine kinase inhibitor therapies caused by BCR-ABL mutations, and wherein the tyrosine kinase inhibitor is Ponatinib.
Cable feed-through for feeding cables through a component , with a cladding tube , with a base part arranged at a first axial end of the cladding tube , which has an accommodation area for a bulkhead surrounding a feed-through opening , with a ring-shaped, membrane-type sealing element , which is arranged at the first axial end of the cladding tube , and with at least one sealing plug , which is arranged at a second end of the cladding tube , characterised in that the sealing plug is made cylindrical and has a first end face , through which a cable may be fed, in which the first end face has a star-shaped division, in which the circular sectors (KS) defined by the star-shaped division (ST) increase to a full circle with a circle centre (KM), and in which the sealing plug has a second end face , which is turned away and at a distance from the first end face , in which, starting from the circle centre (KM), the star-shaped division (ST) extends along a rotation axis (R) of the sealing plug in the direction of the second end face in such a way that the second end face is made circular and a conical cavity is formed inside the sealing plug , along the lateral surface of which at least one guide groove (N) is formed.