mhurhangee/patent-ind-claim-en huggingface dataset:
Method for providing a modification history for a location within a data store , by using a storage management device , the method comprising the steps: - intercepting, by the device, all write requests directed to a data store on a continuous basis, wherein a copy-on-write operation is performed in response to each write request, thereby generating a historical index of copy-on-write operations, said historical index recording: a timestamp that indicates a time at which old data was overwritten, an address range within the data store at which the old data was overwritten, and a new address range within the data store at which the old data is now stored; - receiving , by the device, a request for a modification history for a specified location within the data store, the location storing data; - determining , using the device based on the historical index of copy-on-write operations, at least one time at which at least a portion of data stored at the specified location was modified, wherein the at least one time is determined by parsing the historical index listing the copy-on-write operations performed on the data store; - storing the historical index as part of a time store of the data store ; - transmitting , by the device, in response to the received request the at least one determined time . - intercepting, by the device, all write requests directed to a data store on a continuous basis, wherein a copy-on-write operation is performed in response to each write request, thereby generating a historical index of copy-on-write operations, said historical index recording: a timestamp that indicates a time at which old data was overwritten, an address range within the data store at which the old data was overwritten, and a new address range within the data store at which the old data is now stored; a timestamp that indicates a time at which old data was overwritten, an address range within the data store at which the old data was overwritten, and a new address range within the data store at which the old data is now stored; - receiving , by the device, a request for a modification history for a specified location within the data store, the location storing data; - determining , using the device based on the historical index of copy-on-write operations, at least one time at which at least a portion of data stored at the specified location was modified, wherein the at least one time is determined by parsing the historical index listing the copy-on-write operations performed on the data store; - storing the historical index as part of a time store of the data store ; - transmitting , by the device, in response to the received request the at least one determined time .
An indirectly acting axial regulator of gas pressure , wherein a housing is connected via an impulse line to a pre-pilot regulator , and the latter with a pilot regulator , which is connected by an impulse line to an upper part of a second housing of a membrane , having the features that in the housing there is an axially positioned balanced nozzle , slidingly movably placed in sliding gaskets , that the nozzle is pressed by a spring and an extension of an inlet flange fixed to the housing , that on a side of the nozzle opposite to the spring and extension is placed a seat with a gasket , which seat , in which are made openings , is squeezed between the housing and an outlet flange , that on an upper side of the housing is placed a carrier of the second housing , said second housing being composed of a lower part and of the upper part , between which is squeezed the membrane , and that on an upper and a lower side of the membrane is placed on each side one plate , characterized in that the plates are connected in a central part by a tightener and a support in whose center is fixed a piston with a performed choking channel in the axis, in that the piston by its lower end is slidingly movably placed, by a guide and gaskets , in the lower part of the second housing , and by its upper end, through a guide and the gaskets , is placed in the upper part of the second housing , and in that by lower forehead of the piston it leans on a roller which is by a first axle rotatably placed at the end of a first lever which is by its other end articulately connected to the carrier , while by its middle is articulately connected to a second lever , which is at its lower end articulately connected to a third lever which is by a second axle slidingly movably placed in a lower part of the carrier , while archly bending legs of the third lever are slidingly movably connected to the nozzle via plates .
A seismic sensor cable system, comprising: a cable; a first sensor configured to measure motion of the cable, wherein the first sensor is embedded in a first sensor mount , the first sensor and/or the first sensor mount are coupled to one or more stress members of the cable, the first sensor and/or first sensor mount are decoupled from a skin of the cable, wherein measurement of motion by the first sensor substantially excludes particle motion associated with seismic waves; and a second sensor configured to measure particle motion associated with the seismic waves, wherein the second sensor is embedded in a second sensor mount and the second sensor and/or the second sensor mount are coupled to the skin of the cable. a cable; a first sensor configured to measure motion of the cable, wherein the first sensor is embedded in a first sensor mount , the first sensor and/or the first sensor mount are coupled to one or more stress members of the cable, the first sensor and/or first sensor mount are decoupled from a skin of the cable, wherein measurement of motion by the first sensor substantially excludes particle motion associated with seismic waves; and a second sensor configured to measure particle motion associated with the seismic waves, wherein the second sensor is embedded in a second sensor mount and the second sensor and/or the second sensor mount are coupled to the skin of the cable.
A system for controlling medical equipment comprising: a mammography imaging system comprising a breast support area for compression of a breast with at least one compression paddle during an imaging procedure; patient positioning equipment comprising a patient table , wherein the patient positioning equipment comprises castors or wheels enabling movement of the patient positioning equipment relative to the mammography imaging system ; a control system physically interconnected with the patient table of the patient positioning equipment; wherein the control system is configured to control a function of the patient table in addition to movement of the at least one compression paddle. a mammography imaging system comprising a breast support area for compression of a breast with at least one compression paddle during an imaging procedure; patient positioning equipment comprising a patient table , wherein the patient positioning equipment comprises castors or wheels enabling movement of the patient positioning equipment relative to the mammography imaging system ; a control system physically interconnected with the patient table of the patient positioning equipment; wherein the control system is configured to control a function of the patient table in addition to movement of the at least one compression paddle.
A method for generating a three-dimensional halftone threshold matrix for use in generating a three-dimensional object comprising: receiving a lattice model representing a continuous regular mesh-like structure formed of structural elements defining polyhedra of consistent size; determining a substructure model representing a three-dimensional material structure, wherein determining the substructure model comprises using the lattice model as a medial axis and specifying a variable material distribution by varying a thickness of a structural element in a region of the substructure model compared to another region thereof, and the method further comprises: rasterizing the substructure model into a plurality of discrete locations; and populating the locations of the substructure model with halftone threshold data to provide a three-dimensional halftone threshold matrix having the structure of the substructure model, wherein the matrix is null in all locations other than those characterising the structure and which is for use in generating control data for generating, with additive manufacturing print apparatus, the three-dimensional object having the structure. receiving a lattice model representing a continuous regular mesh-like structure formed of structural elements defining polyhedra of consistent size; determining a substructure model representing a three-dimensional material structure, wherein determining the substructure model comprises using the lattice model as a medial axis and specifying a variable material distribution by varying a thickness of a structural element in a region of the substructure model compared to another region thereof, and the method further comprises: rasterizing the substructure model into a plurality of discrete locations; and populating the locations of the substructure model with halftone threshold data to provide a three-dimensional halftone threshold matrix having the structure of the substructure model, wherein the matrix is null in all locations other than those characterising the structure and which is for use in generating control data for generating, with additive manufacturing print apparatus, the three-dimensional object having the structure. rasterizing the substructure model into a plurality of discrete locations; and populating the locations of the substructure model with halftone threshold data to provide a three-dimensional halftone threshold matrix having the structure of the substructure model, wherein the matrix is null in all locations other than those characterising the structure and which is for use in generating control data for generating, with additive manufacturing print apparatus, the three-dimensional object having the structure.
A method for chemically strengthening a glass substrate, comprising: applying a first electrode to at least one first region on a first surface of a glass substrate, the at least one first region being a portion of the first surface and defining a pattern on the first surface; applying a second electrode to at least one second region on a second surface of the glass substrate, wherein the glass substrate comprises metal ions and the first and second surfaces comprise opposing sides of the glass substrate; applying voltage between the first and second electrodes sufficient to cause at least a portion of the metal ions to migrate away from the at least one first region on the first surface; and after the step of applying voltage, chemically strengthening the glass substrate by ion exchange, wherein, after the chemical strengthening step, the first surface has a pattern of chemically strengthened regions. applying a first electrode to at least one first region on a first surface of a glass substrate, the at least one first region being a portion of the first surface and defining a pattern on the first surface; applying a second electrode to at least one second region on a second surface of the glass substrate, wherein the glass substrate comprises metal ions and the first and second surfaces comprise opposing sides of the glass substrate; applying voltage between the first and second electrodes sufficient to cause at least a portion of the metal ions to migrate away from the at least one first region on the first surface; and after the step of applying voltage, chemically strengthening the glass substrate by ion exchange, wherein, after the chemical strengthening step, the first surface has a pattern of chemically strengthened regions.
A communication device comprising a wireless data interface including a radio transceiver and a controller for controlling the transceiver according to a first frequency hopping protocol comprising a first plurality of frequency channels within a first frequency range and according to a second frequency hopping protocol comprising a second plurality of frequency channels within a second frequency range, wherein the first frequency range and the second frequency range overlap at least in part; wherein the controller is configured to temporarily disable part of the frequency channels for the first protocol in case that radio interference is recognized for those frequency channels, with the disabled frequency channels for the first protocol being stored; and wherein the controller is configured to retrieve the disabled frequency channels of the first protocol and to disable, at least for a predetermined initial time period, at least part of those disabled frequency channels also for the second protocol. wherein the controller is configured to temporarily disable part of the frequency channels for the first protocol in case that radio interference is recognized for those frequency channels, with the disabled frequency channels for the first protocol being stored; and wherein the controller is configured to retrieve the disabled frequency channels of the first protocol and to disable, at least for a predetermined initial time period, at least part of those disabled frequency channels also for the second protocol.
An endoscopic stapler, comprising: a staple member including a staple holder , the staple holder including one or more staples; an anvil member spaced apart from the staple member , wherein the staple member and the anvil member are configured to relatively move towards one another; and a controller fluidly coupled to the staple member through a plurality of conduits, wherein the controller is configured to (a) direct a pressurized fluid to the staple member through a first conduit of the plurality of conduits to relatively move the staple member and the anvil member towards one another, and (b) direct the pressurized fluid through a second conduit of the plurality of conduits to eject one or more staples from the staple holder , the first conduit being configured to be coupled to a first fluid source and the second conduit being configured to be coupled to a second fluid source , characterized in that the controller is configured to determine, during a stapling operation, whether a pressure applied to the second fluid source is sufficient to produce a staple crush and, in response to detecting that the pressure is insufficient to produce a staple crush, increase a pressure of both the first fluid source and the second fluid source until a sufficient crush pressure is achieved. a staple member including a staple holder , the staple holder including one or more staples; an anvil member spaced apart from the staple member , wherein the staple member and the anvil member are configured to relatively move towards one another; and a controller fluidly coupled to the staple member through a plurality of conduits, wherein the controller is configured to (a) direct a pressurized fluid to the staple member through a first conduit of the plurality of conduits to relatively move the staple member and the anvil member towards one another, and (b) direct the pressurized fluid through a second conduit of the plurality of conduits to eject one or more staples from the staple holder , the first conduit being configured to be coupled to a first fluid source and the second conduit being configured to be coupled to a second fluid source , characterized in that the controller is configured to determine, during a stapling operation, whether a pressure applied to the second fluid source is sufficient to produce a staple crush and, in response to detecting that the pressure is insufficient to produce a staple crush, increase a pressure of both the first fluid source and the second fluid source until a sufficient crush pressure is achieved.
Method for distortion-free coating of 3-dimensional workpieces with partially bidirectionally curved surfaces, characterized in that the method comprises at least the steps: a) Provision of digital 2D data of a decoration to be applied and digital 3D surface profile data of a workpiece to be coated; b) Dividing the workpiece surface into raster areas, the individual raster areas being formed from a line train of equidistant lines at a distance X 0 parallel to an X direction and a further line train, orthogonal thereto, of equidistant lines at a distance Y 0 parallel to a Y direction; c) Dividing the workpiece surface into one or more trajectories of a coating head, the trajectories running above the workpiece surface and the intersection lines of adjacent trajectories at least abutting one another; d) Projection of the line trains bordering the raster areas onto one or more trajectories above the relevant raster area, wherein the projection being made along the normal vector of the respective trajectory; e) Matching the 2D decoration print data for each raster area, where the matching of the print data of the raster area is both a function of the originally provided 2D data of the decoration and a function of the raster projection to the trajectory; and f) Coating of the workpiece surface based on the adjusted decoration print data. a) Provision of digital 2D data of a decoration to be applied and digital 3D surface profile data of a workpiece to be coated; b) Dividing the workpiece surface into raster areas, the individual raster areas being formed from a line train of equidistant lines at a distance X 0 parallel to an X direction and a further line train, orthogonal thereto, of equidistant lines at a distance Y 0 parallel to a Y direction; c) Dividing the workpiece surface into one or more trajectories of a coating head, the trajectories running above the workpiece surface and the intersection lines of adjacent trajectories at least abutting one another; d) Projection of the line trains bordering the raster areas onto one or more trajectories above the relevant raster area, wherein the projection being made along the normal vector of the respective trajectory; e) Matching the 2D decoration print data for each raster area, where the matching of the print data of the raster area is both a function of the originally provided 2D data of the decoration and a function of the raster projection to the trajectory; and f) Coating of the workpiece surface based on the adjusted decoration print data.
Radial damping device for oscillations of an oscillating unit of a washing machine , which comprises a lever arm with a coupling body having an internal passage , and is rotationally insertable into a support shaft fixable to a portion of the washing machine , a frictional damping element , which is inserted into the internal passage so that when the coupling body is inserted into the support shaft , a frictional resistance opposes the rotation of the lever arm on the support shaft , and retention elements axially provided on the frictional damping element and on the coupling body , which are associated with each other as a unit so as to retain the frictional damping element axially within the internal passage , wherein the external wall of the frictional damping element comprises a sliding friction internal surface over a peripheral surface of support shaft , and wherein the internal passage is surrounded by an internal wall of the coupling body that has a cylindrical form and is delimited between respective open ends , and the frictional damping element is a tubular element with respective free ends , has an internal axial passage that extends between respective open bases each surrounded by one of the free ends , and an external wall at least partially connected to the internal wall of the coupling body , characterized in that the retention elements comprise a plurality of arching recesses in each one of the free ends of the frictional damping element , so that each free end comprises crenellations disposed between respective recesses , and arching projections that emerge from the internal wall in each of the end areas of the internal passage inside the internal passage ; each recess of each free end of the frictional damping element comprises a peripheral part that abuts one of the projections emerging from the internal wall of the coupling body so that the frictional damping element remains axially retained by its recesses between said projections ; each crenellation from a free end of the frictional damping element protrudes between each of the projections from the open ends of the internal wall of the coupling body , so that the frictional damping element remains rotationally retained by its crenellations protruding between said projections . each recess of each free end of the frictional damping element comprises a peripheral part that abuts one of the projections emerging from the internal wall of the coupling body so that the frictional damping element remains axially retained by its recesses between said projections ; each crenellation from a free end of the frictional damping element protrudes between each of the projections from the open ends of the internal wall of the coupling body , so that the frictional damping element remains rotationally retained by its crenellations protruding between said projections .
Multifocal intraocular lens with extended depth of field, the lens comprises in, at least one of the surfaces , a small zone with a multifocal profile with a defined optical axis and, in the peripheral region and coaxial to the multifocal zone, a ring-shaped opaque mask that partially or totally blocks light to produce a small aperture effect and, therefore, the multifocal profile has a radius equal or larger than the internal radius of the mask , wherein there is at least one transition between focal zones or one diffractive step inside the internal radius of the mask ; and characterised in that optical axis is misaligned with respect to the geometrical center of the lens.
Pre-packaged charge of edible powder material, comprising a container body made of vegetable fiber pulp from seasonal crops such as sugar cane, rice, cotton, hemp, bamboo or the like, characterised in that the vegetable fiber pulp has a lignin content less than 5%.
Optical material comprising a polymer matrix and at least one benzotriazole compound having at least one ester group, characterized in that : the optical transmittance through a 2 mm thick layer of said optical material is lower than 1 % for each light wavelength ranging from 280 to 400 nm, and higher than 65 % for light having a wavelength of 430 nm, and said at least one benzotriazole compound does not comprise any polymerizable group selected from allylic, acrylic and methacrylic moieties, and has formula (I): in which A is a divalent group, R 1 is selected from the groups cyano, amino, hydroxyl, mercapto, carboxy, alkoxy, aryloxy, alkylsulfanyl, arylsulfanyl and a hydrogen atom, the R 2 groups are identical or different monovalent groups, n is a integer ranging from 1 to 3, and R 3 is a linear or branched, substituted or unsubstituted alkyl or aryl group, and wherein the optical material is the substrate of an ophthalmic lens.