mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: memory ; a processor coupled to the memory ; a centralized key store storing, in a key hierarchy , a plurality of key objects, each key object identifying a key, the plurality of key objects being organized into a key set identified by a key set object; a centralized policy store storing, in a policy hierarchy , a first policy object associated with the key set object and a second policy object associated with a said key object; executable instructions stored in the memory , that when executed on the processor , configure the system to: create a first effective policy by evaluating the first policy object and the second policy object and applying conflict resolution rules when information in the first policy object conflicts with information in the second policy object; compare information in a said key object with the first effective policy to identify out of policy conditions for the said key object; and perform an operation upon identifying out of policy conditions for the said key object. memory ; a processor coupled to the memory ; a centralized key store storing, in a key hierarchy , a plurality of key objects, each key object identifying a key, the plurality of key objects being organized into a key set identified by a key set object; a centralized policy store storing, in a policy hierarchy , a first policy object associated with the key set object and a second policy object associated with a said key object; executable instructions stored in the memory , that when executed on the processor , configure the system to: create a first effective policy by evaluating the first policy object and the second policy object and applying conflict resolution rules when information in the first policy object conflicts with information in the second policy object; compare information in a said key object with the first effective policy to identify out of policy conditions for the said key object; and perform an operation upon identifying out of policy conditions for the said key object. create a first effective policy by evaluating the first policy object and the second policy object and applying conflict resolution rules when information in the first policy object conflicts with information in the second policy object; compare information in a said key object with the first effective policy to identify out of policy conditions for the said key object; and perform an operation upon identifying out of policy conditions for the said key object.
A straddled vehicle comprising: a right seat frame extending in a vehicle longitudinal direction (X) in a plan view of the vehicle; a left seat frame disposed leftward of the right seat frame, and extending in the vehicle longitudinal direction in the plan view of the vehicle; a seat disposed above the right seat frame and the left seat frame; a first case disposed leftward of the right seat frame, rightward of the left seat frame, and below the seat; a second case separate from the first case, and disposed leftward of the right seat frame, rightward of the left seat frame, below the seat, and a plurality of first electrical components stored in the first case; and a plurality of second electrical components stored in the second case; wherein the first electrical components comprise: a battery ; and a hydraulic unit ; and the second electrical components comprise: a first connector for connecting wiring of a taillight ; and the second case is smaller in volume than the first case, characterized in that the second case is disposed behind the first case such that a length (L1) that is a distance in the longitudinal direction (X) of the straddled vehicle from a front end of the first case to a rear end of the first case is smaller than a length (Lc) that is a distance in the longitudinal direction (X) of the straddled vehicle from the front end of the first case to a rear end (61 r, 61rA) of the second case . a right seat frame extending in a vehicle longitudinal direction (X) in a plan view of the vehicle; a left seat frame disposed leftward of the right seat frame, and extending in the vehicle longitudinal direction in the plan view of the vehicle; a seat disposed above the right seat frame and the left seat frame; a first case disposed leftward of the right seat frame, rightward of the left seat frame, and below the seat; a second case separate from the first case, and disposed leftward of the right seat frame, rightward of the left seat frame, below the seat, and a plurality of first electrical components stored in the first case; and a plurality of second electrical components stored in the second case; wherein the first electrical components comprise: a battery ; and a hydraulic unit ; and a battery ; and a hydraulic unit ; and the second electrical components comprise: a first connector for connecting wiring of a taillight ; and the second case is smaller in volume than the first case, characterized in that the second case is disposed behind the first case such that a length (L1) that is a distance in the longitudinal direction (X) of the straddled vehicle from a front end of the first case to a rear end of the first case is smaller than a length (Lc) that is a distance in the longitudinal direction (X) of the straddled vehicle from the front end of the first case to a rear end (61 r, 61rA) of the second case .
A correction amount calculation device for a board work line including a printing inspection machine (WM2) configured to inspect a printing position of solder printed by a printing machine (WM1), a component mounting machine (WM3) configured to perform a mounting process of mounting a component based on the printing position (PP1), and an appearance inspection machine (WM4) configured to inspect a mounting position (MP1) of the component mounted by the component mounting machine (WM3), the correction amount calculation device comprising: a first acquisition section configured to acquire a first positional deviation amount (MA1), which is a positional deviation amount of the printing position (PP1) detected by the printing inspection machine (WM2) with respect to a pad position (PD1), and a second positional deviation amount (MA2), which is a positional deviation amount of the mounting position (MP1) detected by the appearance inspection machine (WM4) with respect to the pad position (PD1); and a correction amount calculation section configured to, based on the first positional deviation amount (MA1) and the second positional deviation amount (MA2), calculate a correction amount , which is to be used by the component mounting machine (WM3) in the mounting process of a board product which is based on the printing position (PP1) and the correction amount , the correction amount regarding a third positional deviation amount (MA3), which is a positional deviation amount of the mounting position (MP1) with respect to the printing position (PP1). a first acquisition section configured to acquire a first positional deviation amount (MA1), which is a positional deviation amount of the printing position (PP1) detected by the printing inspection machine (WM2) with respect to a pad position (PD1), and a second positional deviation amount (MA2), which is a positional deviation amount of the mounting position (MP1) detected by the appearance inspection machine (WM4) with respect to the pad position (PD1); and a correction amount calculation section configured to, based on the first positional deviation amount (MA1) and the second positional deviation amount (MA2), calculate a correction amount , which is to be used by the component mounting machine (WM3) in the mounting process of a board product which is based on the printing position (PP1) and the correction amount , the correction amount regarding a third positional deviation amount (MA3), which is a positional deviation amount of the mounting position (MP1) with respect to the printing position (PP1).
A road surfacing reinforcement of the cold surface dressing type comprising at least one bonding binder layer and an aggregate layer , said reinforcement being intended for being deposited on said bonding binder layer , said reinforcement comprising - a web-like substrate comprising non-woven polyolefin synthetic fibres; said web-like substrate being permeable to said bonding binder; and - a mat consisting of high-tenacity fibres ; the fibres constituting the mat being selected from the group consisting of carbon fibers, basalt fibers, glass fibers, said fibres being intended for receiving the aggregate layer ; said reinforcement being not provided with means for attaching the mat to the substrate . - a web-like substrate comprising non-woven polyolefin synthetic fibres; said web-like substrate being permeable to said bonding binder; and - a mat consisting of high-tenacity fibres ; the fibres constituting the mat being selected from the group consisting of carbon fibers, basalt fibers, glass fibers, said fibres being intended for receiving the aggregate layer ;
Method for enhancing communication in a noisy environment comprising: receiving analog input signals emanating from at least two microphone arrays each comprising at least two microphones , converting the analog input signals into digital input signals; processing the digital input signals of each microphone array by a wanted signal beamformer to obtain a wanted signal in which the wanted signal components received from a preferred direction are transmitted without attenuation; processing the digital input signals of each microphone array by a blocking beamformer to obtain a blocking signal by suppressing the wanted signal components; detecting speech activity for each microphone array comprising determining a wanted signal power, a blocking signal power, and a back-ground noise signal power, the back-ground noise signal power being determined based on the wanted signal power and blocking signal power, and comparing the wanted signal power with the blocking signal power and the background noise signal power; applying an attenuation to the processed digital input signals of a microphone array if no speech activity is detected by the comparison of the wanted signal power with the blocking signal power and the background noise signal power for the microphone array; and outputting processed output signals to at least two loudspeakers. receiving analog input signals emanating from at least two microphone arrays each comprising at least two microphones , converting the analog input signals into digital input signals; processing the digital input signals of each microphone array by a wanted signal beamformer to obtain a wanted signal in which the wanted signal components received from a preferred direction are transmitted without attenuation; processing the digital input signals of each microphone array by a blocking beamformer to obtain a blocking signal by suppressing the wanted signal components; detecting speech activity for each microphone array comprising determining a wanted signal power, a blocking signal power, and a back-ground noise signal power, the back-ground noise signal power being determined based on the wanted signal power and blocking signal power, and comparing the wanted signal power with the blocking signal power and the background noise signal power; applying an attenuation to the processed digital input signals of a microphone array if no speech activity is detected by the comparison of the wanted signal power with the blocking signal power and the background noise signal power for the microphone array; and outputting processed output signals to at least two loudspeakers.
A method for generating a cutting plan of a complex glazing product (VF) comprising at least one glass sheet (FV) and at least one layer (FI) other than a glass sheet, this method comprising: - a step (E20) of obtaining a map (C FV ) of the defects of said at least one glass sheet (FV); - a step (E40) of obtaining at least one other defect map (C FI , C DF ), the defects of said at least one other map not being defects of a glass sheet; each of said maps (C FV , C FI , C DF ) comprising, for each of its defects, a position of said defect, a size of said defect, and a criticality level of said defect; - a step (E110) of generating a cutting plan (PDD) of said complex glazing product (VF) at least using said maps (C FV , C FI , C DF ) and using a specification (CDC) taking into account said criticality levels, said cutting plan (PDD) comprising at least one cutting line and being such that none of said cutting lines passes through an exclusion zone of a said defect of said at least one glass sheet (FV), said method being characterized in that it permits at least one of said cutting lines to pass through an exclusion zone of a defect of said other map (C FI , C DF ). - a step (E20) of obtaining a map (C FV ) of the defects of said at least one glass sheet (FV); - a step (E40) of obtaining at least one other defect map (C FI , C DF ), the defects of said at least one other map not being defects of a glass sheet; each of said maps (C FV , C FI , C DF ) comprising, for each of its defects, a position of said defect, a size of said defect, and a criticality level of said defect; - a step (E110) of generating a cutting plan (PDD) of said complex glazing product (VF) at least using said maps (C FV , C FI , C DF ) and using a specification (CDC) taking into account said criticality levels, said cutting plan (PDD) comprising at least one cutting line and being such that none of said cutting lines passes through an exclusion zone of a said defect of said at least one glass sheet (FV), - a step (E110) of generating a cutting plan (PDD) of said complex glazing product (VF) at least using said maps (C FV , C FI , C DF ) and using a specification (CDC) taking into account said criticality levels, said cutting plan (PDD) comprising at least one cutting line and being such that none of said cutting lines passes through an exclusion zone of a said defect of said at least one glass sheet (FV), said method being characterized in that it permits at least one of said cutting lines to pass through an exclusion zone of a defect of said other map (C FI , C DF ).
Method for producing a detachment region in a solid , wherein the solid has a crystal lattice and is at least partially transparent to laser beams emitted by a laser, comprising: modifying the crystal lattice of the solid by means of the laser beams, wherein the laser beams penetrate into the solid through a main surface of a portion of the solid to be detached, wherein a plurality of modifications are produced in the crystal lattice, wherein the modifications are formed in a plane parallel to the main surface and at a distance from one another, wherein, as a result of the modifications , the crystal lattice cracks subcritically in regions surrounding the modifications , at least in one portion in each case, wherein subcritical cracks propagate parallel to the main surface . modifying the crystal lattice of the solid by means of the laser beams, wherein the laser beams penetrate into the solid through a main surface of a portion of the solid to be detached, wherein a plurality of modifications are produced in the crystal lattice, wherein the modifications are formed in a plane parallel to the main surface and at a distance from one another, wherein, as a result of the modifications , the crystal lattice cracks subcritically in regions surrounding the modifications , at least in one portion in each case, wherein subcritical cracks propagate parallel to the main surface .
A computer-implemented method for re-meshing polygonal 3D-models in vertex-based texture mapping for visualising dynamic objects designed as polygonal 3D-models in 3D-videos, comprising the steps of: a) generating a set of 3D-geometry vertices from 3D-vertices from a provided initial lead-mesh of a polygonal 3D-model of an object; b) generating a set of 3D-colour-vertices from a number of M individual object views, wherein the M individual object views are two-dimensional object views; and c) performing re-meshing for generating a new polygon mesh based on the 3D-geometry-vertices and 3D-colour vertices, the method further comprising: a) determining 2D-colour-vertices from 2D-points of the M individual views obtained by means of a colour function; b) determining the 3D-colour-vertices by projecting the 2D-colour-vertices into the 3D-space by using depth maps calculated from the initial lead-mesh; c) calculating the 3D-geometry vertices by reducing the lead-mesh by removing 3D-vertices or removing the 3D-vertices and shifting remaining 3D-vertices using a geometrical criterion that is optimised; and d) assigning colour values to the 3D-geometry vertices from the individual views. a) generating a set of 3D-geometry vertices from 3D-vertices from a provided initial lead-mesh of a polygonal 3D-model of an object; b) generating a set of 3D-colour-vertices from a number of M individual object views, wherein the M individual object views are two-dimensional object views; and c) performing re-meshing for generating a new polygon mesh based on the 3D-geometry-vertices and 3D-colour vertices, a) determining 2D-colour-vertices from 2D-points of the M individual views obtained by means of a colour function; b) determining the 3D-colour-vertices by projecting the 2D-colour-vertices into the 3D-space by using depth maps calculated from the initial lead-mesh; c) calculating the 3D-geometry vertices by reducing the lead-mesh by removing 3D-vertices or removing the 3D-vertices and shifting remaining 3D-vertices using a geometrical criterion that is optimised; and d) assigning colour values to the 3D-geometry vertices from the individual views.
A submarine power cable comprising: a power core including a conductor , wherein the conductor has a conductor joint in a joint region (R) of the power core , a main armour layer comprising a plurality of main armour wires arranged around the power core and extending in the axial direction of the power core , and a joint reinforcement armour layer comprising a plurality of joint reinforcement armour wires axially locked relative to the main armour wires , wherein the joint reinforcement armour layer is provided only in the joint region and arranged layered with the main armour layer , wherein the joint reinforcement armour layer and the main armour layer thereby form a dual-layer armour only in the joint region (R), wherein the dual-layer armour is provided over and extends axially across the conductor joint , characterised in that the main armour wires are arranged helically around the power core and all the main armour wires have a first lay direction, wherein the joint reinforcement armour wires are arranged helically around the power core and all the joint reinforcement armour wires have a second lay direction, wherein the second lay direction is opposite to the first lay direction. a power core including a conductor , wherein the conductor has a conductor joint in a joint region (R) of the power core , a main armour layer comprising a plurality of main armour wires arranged around the power core and extending in the axial direction of the power core , and a joint reinforcement armour layer comprising a plurality of joint reinforcement armour wires axially locked relative to the main armour wires , wherein the joint reinforcement armour layer is provided only in the joint region and arranged layered with the main armour layer , wherein the joint reinforcement armour layer and the main armour layer thereby form a dual-layer armour only in the joint region (R), wherein the dual-layer armour is provided over and extends axially across the conductor joint , characterised in that the main armour wires are arranged helically around the power core and all the main armour wires have a first lay direction, wherein the joint reinforcement armour wires are arranged helically around the power core and all the joint reinforcement armour wires have a second lay direction, wherein the second lay direction is opposite to the first lay direction.
A process for preparation of 2,3,3,3-tetrafluoropropene comprising; a) providing a mixture of methyl chloride to chlorodifluoromethane in a molar ratio of 3.2 to 4.7 in a reactor; b) providing and contacting heat medium with step a) mixture to form second mixture comprising 2,3,3,3-tetrafluoropropene and methyl chloride; c) drying the second mixture of step b) to obtain anhydrous second mixture; d) contacting the anhydrous second mixture of step c) with molecular sieve of size 3 Å to 5 Å to obtain third mixture free of methyl chloride; and e) isolating 2,3,3,3-tetrafluoropropene from third mixture of step d). a) providing a mixture of methyl chloride to chlorodifluoromethane in a molar ratio of 3.2 to 4.7 in a reactor; b) providing and contacting heat medium with step a) mixture to form second mixture comprising 2,3,3,3-tetrafluoropropene and methyl chloride; c) drying the second mixture of step b) to obtain anhydrous second mixture; d) contacting the anhydrous second mixture of step c) with molecular sieve of size 3 Å to 5 Å to obtain third mixture free of methyl chloride; and e) isolating 2,3,3,3-tetrafluoropropene from third mixture of step d).
A handle assembly for a vehicle door , comprising a handle which is movable between a retracted position and an extended position, and evaluation circuit and at least one capacitive sensor arranged at the handle , the evaluation circuit being adapted for detecting the presence of a hand in the vicinity of the sensor and in addition being adapted for determining the position of the handle, characterized in that , the evaluation circuit is adapted to use the capacitive sensor for the detection of a hand approach or a hand touch of the handle and also for detecting the position of the handle .
Musical watch case including at least one cover assembly , which includes on the one hand a bezel , and on the other at least one crystal or one case back , a casing ring , a case middle which has a first surface for receiving and supporting said cover assembly and a median surface for receiving and supporting said casing ring , said case including at least one gong integral with said case middle and including a resonant part distinct from the walls of said case middle , wherein said case middle supports said cover assembly via at least one lug comprised in said bezel or said case middle and which is arranged to allow said cover assembly to vibrate and radiate at frequencies comprised between 4 kHz and 6 kHz, each said lug being distinct from every other said lug and having no contact with any other said lug , and wherein said at least one lug includes, at a solid distal end , at least one support surface arranged to cooperate in abutment with said case middle or respectively said bezel , and securing means arranged to rigidly secure said at least one lug via its said at least one support surface resting or compressed on said case middle or respectively said bezel , said each said lug including, between said case middle and said bezel , a thin, elastic median strip , more flexible than said solid distal end , and whose thickness is smaller than the smallest cross-section of each said gong , and where said case middle includes at least one substantially annular, peripheral wall defining an inner chamber extending around said casing ring , and where said case includes, at a distance from said median support surface for said casing ring on said case middle , at least a first substantially ring-shaped silent-block gasket arranged to limit the transfer of vibrations between an operating musical movement or striking work and the external parts of said case and to decrease unwanted noise without hampering the vibration of each said gong .