mhurhangee/patent-ind-claim-en huggingface dataset:
Security or value document , formed from a document body which is produced by laminating at least two polymer layers connected to each other, wherein the document body comprises a first document side and a second document side , and wherein the document body comprises at least one window region (210, 210', 210"), and wherein in the at least one window region (210, 210', 210") there are at least one absorption element (300, 300', 300") and at least one luminescent element overlapping with the at least one absorption element (300, 300', 300"), wherein the at least one absorption element (300, 300', 300") is formed by a thermoplastic material, and wherein - an absorption means is used for producing the at least one absorption element (300, 300', 300"), which absorbs the radiation which is radiated in order to excite the at least one luminescence element to luminescence and/or absorbs the electromagnetic radiation which is emitted by the at least one luminescence element , - the security or value document is at least partially transparent or translucent in the window region (210, 210', 210"), such that light can pass through this region, while a document region surrounding the window region (210, 210', 210") is opaque, - the at least one absorption element (300, 300', 300") forms a pattern, and - the at least one luminescence element is formed in the form of a pattern or as a uniformly applied luminescence layer, - wherein the at least one absorption element (300, 300', 300"), viewed from the first document side is arranged before the luminescence element . - an absorption means is used for producing the at least one absorption element (300, 300', 300"), which absorbs the radiation which is radiated in order to excite the at least one luminescence element to luminescence and/or absorbs the electromagnetic radiation which is emitted by the at least one luminescence element , - the security or value document is at least partially transparent or translucent in the window region (210, 210', 210"), such that light can pass through this region, while a document region surrounding the window region (210, 210', 210") is opaque, - the at least one absorption element (300, 300', 300") forms a pattern, and - the at least one luminescence element is formed in the form of a pattern or as a uniformly applied luminescence layer, - wherein the at least one absorption element (300, 300', 300"), viewed from the first document side is arranged before the luminescence element .
A composition comprising an adeno-associated virus vector (AAV vector) having a serotype 1 capsid and encoding an acid sphingomyelinase, for use in a method of treating Niemann Pick A disease in a mammal, wherein the method comprises administering the composition to the deep cerebellar nuclei of the central nervous system of the mammal, such that the vector is contacted with an axonal ending, wherein the vector transduces a cell located at a distal site in the central nervous system, and wherein the encoded acid sphingomyelinase is translated.
An electrode element for an electrolytic capacitor having a liquid electrolyte, comprising an electrode body made of an active electrode material (E) selected from tantalum and niobium and a terminal lead being electrically connected to the electrode body characterized in that the electrode body comprises at least one recess on its surface or in its interior, wherein the mass of the electrode body is adjusted or is adjustable by the recess .
A vacuum cleaner comprising: a main body comprising a fan motor to generate suction force; a suction unit connected to the main body to suction foreign matter from a surface to be cleaned in a state of contacting the surface; a dust collector separatably mounted to the main body to separate and collect dust from air suctioned by the suction unit; and a wheel assembly to move the main body , wherein the wheel assembly comprises: a lower frame provided at a lower part of the main body ; left and right frames provided at left and right sides of the main body , respectively; and a left wheel and a right wheel rotatably mounted to the left and right frames respectively, the left and right wheels arranged such that a first centreline and a second centreline extending from the surface respectively passes through respective centres of the left wheel and the right wheel, and meet each other above the main body. a main body comprising a fan motor to generate suction force; a suction unit connected to the main body to suction foreign matter from a surface to be cleaned in a state of contacting the surface; a dust collector separatably mounted to the main body to separate and collect dust from air suctioned by the suction unit; and a wheel assembly to move the main body , wherein the wheel assembly comprises: a lower frame provided at a lower part of the main body ; left and right frames provided at left and right sides of the main body , respectively; and a left wheel and a right wheel rotatably mounted to the left and right frames respectively, the left and right wheels arranged such that a first centreline and a second centreline extending from the surface respectively passes through respective centres of the left wheel and the right wheel, and meet each other above the main body. a lower frame provided at a lower part of the main body ; left and right frames provided at left and right sides of the main body , respectively; and a left wheel and a right wheel rotatably mounted to the left and right frames respectively, the left and right wheels arranged such that a first centreline and a second centreline extending from the surface respectively passes through respective centres of the left wheel and the right wheel, and meet each other above the main body.
A diester compound of the following general formula , having a dimethylcyclobutane ring, wherein R 1 and R 2 represent, independently of each other, a monovalent hydrocarbon group having 1 to 10 carbon atoms.
Gas phase epitaxy method comprising the method step: - growing a III-V layer comprising a course of doping, which changes from an n-doping to a p-doping, on a surface of a substrate (S) or a preceding layer in a reaction chamber (K) from the gas phase of an epitaxy gas flow (F) comprising a carrier gas, at least one first precursor for a first element from the III main group and at least one second precursor for a first element from the V main group, wherein - on attainment of a first growth height (x 1 ) an n-doping start value (D A1 ) is set by means of a ratio, which leads to p-doping, of a first mass flow of the first precursor to a second mass flow of the second precursor in the epitaxy gas flow (F) and with addition of a third mass flow (M Dot ) of a third precursor for an n-doping substance to the epitaxy gas flow (F), - subsequently the third mass flow (M Dot ) and/or the ratio between the first and second mass flows is changed across a transitional region layer (ÜB) with a growth height (x) of at least 10 μm in steps or continuously until attainment of a p-doping target value (D Z ). - growing a III-V layer comprising a course of doping, which changes from an n-doping to a p-doping, on a surface of a substrate (S) or a preceding layer in a reaction chamber (K) from the gas phase of an epitaxy gas flow (F) comprising a carrier gas, at least one first precursor for a first element from the III main group and at least one second precursor for a first element from the V main group, wherein - on attainment of a first growth height (x 1 ) an n-doping start value (D A1 ) is set by means of a ratio, which leads to p-doping, of a first mass flow of the first precursor to a second mass flow of the second precursor in the epitaxy gas flow (F) and with addition of a third mass flow (M Dot ) of a third precursor for an n-doping substance to the epitaxy gas flow (F), - subsequently the third mass flow (M Dot ) and/or the ratio between the first and second mass flows is changed across a transitional region layer (ÜB) with a growth height (x) of at least 10 μm in steps or continuously until attainment of a p-doping target value (D Z ).
A method comprising: obtaining , by a computer system, a seismic data volume ; identifying , by the computer system, a plurality of patches in the seismic data volume, and the identifying thereby creating a patch volume , the patch volume distinct from the seismic data volume; and then displaying , on a display device, a view of at least a portion of the seismic data volume and simultaneously displaying on a display device a corresponding view of the plurality of patches of the patch volume; assigning a patch of the plurality of patches to a subsurface horizon of the seismic data volume by selecting from a display device a first patch of the patch volume and designating the first patch to be a portion of a first subsurface horizon , the assigned patch being removed from the patch volume, and thus no longer being displayed in the view of the patch volume, and an area within the view of the seismic data volume corresponding to the assigned patch being shown as part of the subsurface horizon; and discarding a patch from the patch volume by selecting from a display device a second patch of the patch volume, identifying the second patch as not belonging to a subsurface horizon, and removing the second patch from the patch volume. obtaining , by a computer system, a seismic data volume ; identifying , by the computer system, a plurality of patches in the seismic data volume, and the identifying thereby creating a patch volume , the patch volume distinct from the seismic data volume; and then displaying , on a display device, a view of at least a portion of the seismic data volume and simultaneously displaying on a display device a corresponding view of the plurality of patches of the patch volume; assigning a patch of the plurality of patches to a subsurface horizon of the seismic data volume by selecting from a display device a first patch of the patch volume and designating the first patch to be a portion of a first subsurface horizon , the assigned patch being removed from the patch volume, and thus no longer being displayed in the view of the patch volume, and an area within the view of the seismic data volume corresponding to the assigned patch being shown as part of the subsurface horizon; and discarding a patch from the patch volume by selecting from a display device a second patch of the patch volume, identifying the second patch as not belonging to a subsurface horizon, and removing the second patch from the patch volume.
A brake system comprising: an electromechanical brake actuator controller EBAC ; a first electromechanical brake actuator EBA electrically coupled to the EBAC , the first EBA comprising a first load cell ; a second EBA electrically coupled to the EBAC , the second EBA comprising a second load cell that outputs a force output; a tangible, non-transitory memory configured to communicate with a controller of at least one of the first EBA or the EBAC, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the EBAC, cause the EBAC to perform operations comprising: detecting, by the EBAC, a failure of the first load cell using the force output from other load cells by determining if the first load cell is operating outside a predetermined range of a voltage; estimating, by the EBAC, a force of the first EBA using the force output from the second load cell ; and commanding, by the EBAC, the first EBA in response to the force output from the second load cell . an electromechanical brake actuator controller EBAC ; a first electromechanical brake actuator EBA electrically coupled to the EBAC , the first EBA comprising a first load cell ; a second EBA electrically coupled to the EBAC , the second EBA comprising a second load cell that outputs a force output; a tangible, non-transitory memory configured to communicate with a controller of at least one of the first EBA or the EBAC, the tangible, non-transitory memory having instructions stored thereon that, in response to execution by the EBAC, cause the EBAC to perform operations comprising: detecting, by the EBAC, a failure of the first load cell using the force output from other load cells by determining if the first load cell is operating outside a predetermined range of a voltage; estimating, by the EBAC, a force of the first EBA using the force output from the second load cell ; and commanding, by the EBAC, the first EBA in response to the force output from the second load cell . detecting, by the EBAC, a failure of the first load cell using the force output from other load cells by determining if the first load cell is operating outside a predetermined range of a voltage; estimating, by the EBAC, a force of the first EBA using the force output from the second load cell ; and commanding, by the EBAC, the first EBA in response to the force output from the second load cell .
A group III nitride semiconductor light-emitting element comprising, in the following order: an n-type group III nitride semiconductor layer ; a group III nitride semiconductor laminated body obtained by alternately laminating a barrier layer and a well layer narrower in bandgap than the barrier layer in the stated order so that the number of barrier layers and the number of well layers are both N, where N is an integer; an AlN guide layer having a thickness of 0.7 nm or more and 1.7 nm or less; and a p-type group III nitride semiconductor layer , wherein a final barrier layer wider in bandgap than the well layer and narrower in bandgap than the AlN guide layer is further provided between the Nth well layer in the group III nitride semiconductor laminated body and the AlN guide layer , characterised in the final barrier layer having a thickness of 0.1 nm or more and 1.0 nm or less. an n-type group III nitride semiconductor layer ; a group III nitride semiconductor laminated body obtained by alternately laminating a barrier layer and a well layer narrower in bandgap than the barrier layer in the stated order so that the number of barrier layers and the number of well layers are both N, where N is an integer; an AlN guide layer having a thickness of 0.7 nm or more and 1.7 nm or less; and a p-type group III nitride semiconductor layer , wherein a final barrier layer wider in bandgap than the well layer and narrower in bandgap than the AlN guide layer is further provided between the Nth well layer in the group III nitride semiconductor laminated body and the AlN guide layer , characterised in the final barrier layer having a thickness of 0.1 nm or more and 1.0 nm or less.
A method for wireless communications performed by a user equipment, UE, the method comprising: receiving , from a base station, a configuration for a service type, wherein the service type includes an ultra-reliable low latency communication, URLLC, service; receiving , from the base station, a downlink control information, DCI, message that includes an activation indicator indicating that the UE is to begin monitoring for the service type; monitoring a downlink control channel associated with the service type based at least in part on the configuration for the service type and the activation indicator, wherein a configured periodicity for monitoring the downlink control channel associated with the service type is less than a periodicity with which the UE monitors for the DCI message that includes the activation indicator; and receiving a downlink message associated with the service type in accordance with the configuration for the service type. receiving , from a base station, a configuration for a service type, wherein the service type includes an ultra-reliable low latency communication, URLLC, service; receiving , from the base station, a downlink control information, DCI, message that includes an activation indicator indicating that the UE is to begin monitoring for the service type; monitoring a downlink control channel associated with the service type based at least in part on the configuration for the service type and the activation indicator, wherein a configured periodicity for monitoring the downlink control channel associated with the service type is less than a periodicity with which the UE monitors for the DCI message that includes the activation indicator; and receiving a downlink message associated with the service type in accordance with the configuration for the service type.
A grease composition obtainable by the following process: (i) preparing a calcium sulfonate complex grease by synthesizing the calcium sulfonate complex independently and dispersing it in the base oil or by synthesizing the calcium sulfonate complex in the base oil to be dispersed in the base oil; and (ii) blending said grease obtained by step (i) with an additive comprising an overbased metal sulfonate and an antioxidant, wherein the blend ratio of the antioxidant is in a range of from 0.1 mass% to 10 mass% of the total amount of the grease composition and the blend ratio of the overbased metal sulfonate is 0.1 to 10 mass% of the total amount of the grease composition. (i) preparing a calcium sulfonate complex grease by synthesizing the calcium sulfonate complex independently and dispersing it in the base oil or by synthesizing the calcium sulfonate complex in the base oil to be dispersed in the base oil; and (ii) blending said grease obtained by step (i) with an additive comprising an overbased metal sulfonate and an antioxidant, wherein the blend ratio of the antioxidant is in a range of from 0.1 mass% to 10 mass% of the total amount of the grease composition and the blend ratio of the overbased metal sulfonate is 0.1 to 10 mass% of the total amount of the grease composition.
A gripping tool , comprising: a gripping element; at least one gripping surface formed on the gripping element, wherein the at least one gripping surface comprises: a plurality of teeth extending from the gripping element; a first diffusion layer; a subsequent diffusion layer; and a last diffusion layer, the first diffusion layer extending a depth from a surface of the subsequent diffusion layer of the gripping element to a substrate material of the gripping surface , wherein the first diffusion layer is a carburized layer; the subsequent diffusion layer extending a depth from a surface of the last diffusion layer of the gripping element to the first diffusion layer, wherein the subsequent diffusion layer is a boronized layer; and the last diffusion layer extending a depth from an outer surface of the gripping element, wherein the last diffusion layer is a chromized layer. a gripping element; at least one gripping surface formed on the gripping element, wherein the at least one gripping surface comprises: a plurality of teeth extending from the gripping element; a first diffusion layer; a subsequent diffusion layer; and a last diffusion layer, the first diffusion layer extending a depth from a surface of the subsequent diffusion layer of the gripping element to a substrate material of the gripping surface , wherein the first diffusion layer is a carburized layer; the subsequent diffusion layer extending a depth from a surface of the last diffusion layer of the gripping element to the first diffusion layer, wherein the subsequent diffusion layer is a boronized layer; and the last diffusion layer extending a depth from an outer surface of the gripping element, wherein the last diffusion layer is a chromized layer. a plurality of teeth extending from the gripping element; a first diffusion layer; a subsequent diffusion layer; and a last diffusion layer, the first diffusion layer extending a depth from a surface of the subsequent diffusion layer of the gripping element to a substrate material of the gripping surface , wherein the first diffusion layer is a carburized layer; the subsequent diffusion layer extending a depth from a surface of the last diffusion layer of the gripping element to the first diffusion layer, wherein the subsequent diffusion layer is a boronized layer; and the last diffusion layer extending a depth from an outer surface of the gripping element, wherein the last diffusion layer is a chromized layer.
A method for securing a provable resource possession on a host device (HD) having spawned a set of virtual machines providing services to a client device (CD), the method comprising the following steps in host device (HD): receiving (S6) a challenge request (ReqC) from the client device (CD) for each virtual machine, the challenge request (ReqC) containing a physically unclonable function, PUF, challenge and a filter rule, challenging (S7) a PUF component of the host device (HD) with the PUF challenge to obtain a PUF response for each virtual machine, filtering (S8) the PUF response in a PUF filtered response for each virtual machine according to the filter rule, sending (S9) the PUF filtered response for each virtual machine to the client device (CD). receiving (S6) a challenge request (ReqC) from the client device (CD) for each virtual machine, the challenge request (ReqC) containing a physically unclonable function, PUF, challenge and a filter rule, challenging (S7) a PUF component of the host device (HD) with the PUF challenge to obtain a PUF response for each virtual machine, filtering (S8) the PUF response in a PUF filtered response for each virtual machine according to the filter rule, sending (S9) the PUF filtered response for each virtual machine to the client device (CD).
A method for carrier aggregation, comprising: determining, by a user equipment, whether a secondary cell is in an activated state or an inactivated state; characterised by enabling measurement gaps for the user equipment if the secondary cell is in the inactivated state; and disabling measurement gaps for the user equipment if the secondary cell is in the activated state. determining, by a user equipment, whether a secondary cell is in an activated state or an inactivated state; characterised by enabling measurement gaps for the user equipment if the secondary cell is in the inactivated state; and disabling measurement gaps for the user equipment if the secondary cell is in the activated state.