mhurhangee/patent-ind-claim-en huggingface dataset:
A method of encoding residual video data, the method comprising: maintaining a plurality of context models that includes a joint context model used for two or more transform unit sizes, the plurality of context models further including one or more context models that are each used for a different transform unit size, the joint context model comprising shared probabilities, wherein the joint context model is shared by a first transform unit having a first size and a second transform unit having a second size, wherein the first size is 16x16 and the second size is 32x32, and wherein each of the transform units comprises a residual video block data unit; selecting contexts for components of a significance map for coefficients associated with one of the first transform unit and the second transform unit according to the joint context model; and entropy encoding the components of the significance map associated with the one of the transform units based on the selected contexts using an entropy coding technique other than context adaptive variable length coding, CAVLC. maintaining a plurality of context models that includes a joint context model used for two or more transform unit sizes, the plurality of context models further including one or more context models that are each used for a different transform unit size, the joint context model comprising shared probabilities, wherein the joint context model is shared by a first transform unit having a first size and a second transform unit having a second size, wherein the first size is 16x16 and the second size is 32x32, and wherein each of the transform units comprises a residual video block data unit; selecting contexts for components of a significance map for coefficients associated with one of the first transform unit and the second transform unit according to the joint context model; and entropy encoding the components of the significance map associated with the one of the transform units based on the selected contexts using an entropy coding technique other than context adaptive variable length coding, CAVLC.
A method for manufacturing a resistive memory device comprising at least one first electrode and one second electrode based on electrode materials, and a metal oxide layer inserted between said first and second electrodes in a so-called vertical direction (z), said device having at least one width L greater than or equal to 30 nm in a so-called horizontal direction of a plane (xy) perpendicular to the vertical direction (z), the method being characterised in that the at least one from among the first and second electrodes is formed so as to comprise an electrode interlayer based on a so-called divider material having an etching selectivity greater than or equal to 2:1, and preferably greater than or equal to 3:1, with respect to the electrode materials, the electrode materials being based on a transition metal, and the divider material being based on an aluminium alloy and of said transition metal or of another transition metal, the method further comprising, after formation of said at least one from among the first and second electrodes comprising the electrode interlayer : - an overetching configured to laterally consume, in the horizontal direction, the divider material, such that the electrode interlayer has a lateral removal strictly greater than 5 nm, and preferably greater than or equal to 10 nm, with respect to the at least one dimension by width L, said lateral removal being less than or equal to 1/6*L. - an overetching configured to laterally consume, in the horizontal direction, the divider material, such that the electrode interlayer has a lateral removal strictly greater than 5 nm, and preferably greater than or equal to 10 nm, with respect to the at least one dimension by width L, said lateral removal being less than or equal to 1/6*L.
A display system , comprising: an image display device , an image acquisition device and a calibration device , wherein at least part of the image display device is configured to be at least partially transparent, so as to at least partially receive a surrounding image for an opposite side of the image display device at a display side of the image display device ; the image display device is further configured to display a first image received by the image display device at the display side ; wherein the image acquisition device is provided at the display side of the image display device , and is configured to be capable of simultaneously acquiring the surrounding image and the first image; the calibration device is configured to obtain matching information based on the surrounding image and the first image acquired by the image acquisition device , and the image acquisition device is configured to continuously monitor a matching degree between the surrounding image and the first image. wherein at least part of the image display device is configured to be at least partially transparent, so as to at least partially receive a surrounding image for an opposite side of the image display device at a display side of the image display device ; the image display device is further configured to display a first image received by the image display device at the display side ; wherein the image acquisition device is provided at the display side of the image display device , and is configured to be capable of simultaneously acquiring the surrounding image and the first image; the calibration device is configured to obtain matching information based on the surrounding image and the first image acquired by the image acquisition device , and the image acquisition device is configured to continuously monitor a matching degree between the surrounding image and the first image.
Method for checking the consistent recording of pipelines in a project planning system, in which - pipelines are recorded two-dimensionally in a first plan and three-dimensionally in a second plan , - at least one main path within each plan is determined for each of the pipelines recorded in both plans , - for the main paths recorded within both plans , sequences of objects comprising line components , branches and/or connections are determined , which are each to be compared with one another, - from the sequences to be compared, objects without mutual correspondence that are only recorded in one of the two plans and/or only in one main path of one of the two plans are each eliminated , - after elimination of the objects without mutual correspondence, within the sequences to be compared, objects with different ordering are iteratively determined and classified (301-304), which have a maximum order difference with respect to their ordering within the sequences to be compared, - determination of the objects with different ordering is continued until all objects remaining after classification have no order difference with respect to their ordering within the sequences to be compared, - finally, a correctly ordered assignment is created between corresponding objects recorded in the first plan and in the second plan, and displayed on a graphical user interface. - pipelines are recorded two-dimensionally in a first plan and three-dimensionally in a second plan , - at least one main path within each plan is determined for each of the pipelines recorded in both plans , - for the main paths recorded within both plans , sequences of objects comprising line components , branches and/or connections are determined , which are each to be compared with one another, - from the sequences to be compared, objects without mutual correspondence that are only recorded in one of the two plans and/or only in one main path of one of the two plans are each eliminated , - after elimination of the objects without mutual correspondence, within the sequences to be compared, objects with different ordering are iteratively determined and classified (301-304), which have a maximum order difference with respect to their ordering within the sequences to be compared, - determination of the objects with different ordering is continued until all objects remaining after classification have no order difference with respect to their ordering within the sequences to be compared, - finally, a correctly ordered assignment is created between corresponding objects recorded in the first plan and in the second plan, and displayed on a graphical user interface.
Packaging station comprising a conversion device for converting a packaging material web drawn from a packaging material web supply , such as a leporello folded stacked web, into a dunnage material and a conveyor structure for receiving the drawn packaging material web and for feeding the drawn packaging material web into the conversion device , wherein the conveyor structure comprises a conveyor track extending from a reception of the conveyor structure to the conversion device , characterized in that the conveyor structure is dimensioned such that, after passing the reception , the packaging material web is able to bear over its entire surface on the conveyor track in the conveying direction for at least the twofold of the width of the web, and that a tangential direction at the reception of a sliding support of the conveyor track forms an angle of reception smaller than 20°, 15° or 10°, being larger than 0°, 1° or 5°, relative to the vertical direction.
A computer-implemented method of measuring a blood flow parameter in a vasculature, the method comprising: receiving (S110) spectral computed tomography, CT, projection data representing a flow of an injected contrast agent in the vasculature, the spectral CT projection data representing X-ray attenuation within the vasculature at a plurality of energy intervals (DE 1..m ); analyzing (S120) the spectral CT projection data to isolate from the spectral CT projection data, contrast agent projection data representing the flow of the injected contrast agent; sampling (S130) the contrast agent projection data at one or more regions of interest (120 1..n ) in the vasculature to provide temporal blood flow data at the one or more regions of interest; and calculating (S140), from the temporal blood flow data, a value of one or more blood flow parameters at the one or more regions of interest (120 1..n ). receiving (S110) spectral computed tomography, CT, projection data representing a flow of an injected contrast agent in the vasculature, the spectral CT projection data representing X-ray attenuation within the vasculature at a plurality of energy intervals (DE 1..m ); analyzing (S120) the spectral CT projection data to isolate from the spectral CT projection data, contrast agent projection data representing the flow of the injected contrast agent; sampling (S130) the contrast agent projection data at one or more regions of interest (120 1..n ) in the vasculature to provide temporal blood flow data at the one or more regions of interest; and calculating (S140), from the temporal blood flow data, a value of one or more blood flow parameters at the one or more regions of interest (120 1..n ).
A method for data redistribution of a job data in a first datanode (DN) to at least one additional DN in a Massively Parallel Processing (MPP) Database (DB), characterized by comprising: recording a snapshot of job data, the snapshot comprising job data information; splitting the job data into a first data portion and a redistribution data portion in the first DN; collecting changes to the job data, the changes comprising changes to the redistribution data portion and changes to the first data portion; initiating transfer of the redistribution data portion to the at least one additional DN; merging the collected changes to the redistribution data portion into the redistribution data portion. recording a snapshot of job data, the snapshot comprising job data information; splitting the job data into a first data portion and a redistribution data portion in the first DN; collecting changes to the job data, the changes comprising changes to the redistribution data portion and changes to the first data portion; initiating transfer of the redistribution data portion to the at least one additional DN; merging the collected changes to the redistribution data portion into the redistribution data portion.
A drive arrangement for a cable conveyor installation comprising: - a support frame , - a motor , - a pulley rotatable about an axis of rotation by the motor by way of a reduction transmission in the form of a planetary transmission, wherein the planetary transmission comprises: a centrally arranged sun gear which is rotatable about the axis of rotation and which is drivable by the output shaft of the motor or possibly an intermediate transmission, planetary gears which are mounted radially spaced from the sun gear and which cooperate with the sun gear , and a ring gear , wherein the ring gear cooperates with the planetary gears by way of a member having an internal tooth arrangement, - wherein the pulley has a central pulley opening in which the reduction transmission is arranged, characterised in that the pulley is mounted to the support frame by way of at least one annular bearing and that the radius (R) of the at least one annular bearing is greater than the radial spacing (r) of the bearing means of the planetary gears from the axis of rotation . - a support frame , - a motor , - a pulley rotatable about an axis of rotation by the motor by way of a reduction transmission in the form of a planetary transmission, wherein the planetary transmission comprises: a centrally arranged sun gear which is rotatable about the axis of rotation and which is drivable by the output shaft of the motor or possibly an intermediate transmission, planetary gears which are mounted radially spaced from the sun gear and which cooperate with the sun gear , and a ring gear , wherein the ring gear cooperates with the planetary gears by way of a member having an internal tooth arrangement, a centrally arranged sun gear which is rotatable about the axis of rotation and which is drivable by the output shaft of the motor or possibly an intermediate transmission, planetary gears which are mounted radially spaced from the sun gear and which cooperate with the sun gear , and a ring gear , wherein the ring gear cooperates with the planetary gears by way of a member having an internal tooth arrangement, - wherein the pulley has a central pulley opening in which the reduction transmission is arranged,
Ice accretion apparatus comprising: a column having a longitudinal axis, a side wall , and a central chamber having top and bottom ends; a top unit which closes the top end of the chamber and includes a droplet discharge device for producing water droplets; a bottom unit which closes the bottom end of the central chamber and includes a target ; and chamber cooling means configured to cool the central chamber during a test and thereby to cool the water droplets, whereby, in use during the test, a layer of accreted ice is built up on the target, characterised in that the chamber cooling means is configured to produce a temperature gradient between the top and bottom ends of the central chamber. a column having a longitudinal axis, a side wall , and a central chamber having top and bottom ends; a top unit which closes the top end of the chamber and includes a droplet discharge device for producing water droplets; a bottom unit which closes the bottom end of the central chamber and includes a target ; and chamber cooling means configured to cool the central chamber during a test and thereby to cool the water droplets, whereby, in use during the test, a layer of accreted ice is built up on the target, characterised in that the chamber cooling means is configured to produce a temperature gradient between the top and bottom ends of the central chamber.
Magnetic-inductive flowmeter with a measuring tube and at least one measuring electrode , wherein the measuring tube comprises an inflow section and an outflow section , which are spaced to one another in an axial direction of the measuring tube , wherein the measuring tube has at least one opening on its circumferential wall , wherein the at least one measuring electrode is arranged in the at least one opening with its electrode head , wherein the magnetic-inductive flowmeter comprises at least n coil pairs with n ≥ 2 wherein each of the at least n coil pairs has a first and a second coil , wherein the first and the second coil of the at least n coil pairs are arranged offset to one another in the axial direction of the measuring tube on the circumferential wall of the measuring tube , wherein the first and the second coil of the at least n coil pairs are arranged at least partially overlapping one another in a top view of a cross section through the measuring tube , wherein the at least one measuring electrode is arranged on a peripheral area of the circumferential wall of the measuring tube , and wherein the peripheral area is located between the first and the second coil of each of the at least n coil pairs characterized in that the first coil and the second coil of each of the at least n coil pairs are connected electrically in series.
An adhesive member comprising: a base material having an uneven shape on at least one surface, wherein the uneven shape is constituted by plural protrusions and recesses between two adjacent protrusions of the plural protrusions, and a bottom surface is present between two adjacent protrusions of the plural protrusions; and a surface layer covering at least a portion of the surface having the uneven shape on the base material, wherein: the surface layer is a continuous layer arranged over tips of plural protrusions on the base material and covers said plural protrusions, the bottom surface and a surface of the surface layer that is on the side facing the bottom surface have a space therebetween, a thickness of the surface layer is from 0.1 μm to 50 μm, and a ratio of a height of each protrusion on the base material with respect to the thickness of the surface layer (height of each protrusion/thickness of surface layer) is from 0.2 to 1,000, characterized in that the surface layer and the base material have a storage elastic modulus at 25°C of from 5 MPa to 1 GPa, measured according to the section "[Measurement of Storage Elastic Modulus E']" of the description. a base material having an uneven shape on at least one surface, wherein the uneven shape is constituted by plural protrusions and recesses between two adjacent protrusions of the plural protrusions, and a bottom surface is present between two adjacent protrusions of the plural protrusions; and a surface layer covering at least a portion of the surface having the uneven shape on the base material, wherein: the surface layer is a continuous layer arranged over tips of plural protrusions on the base material and covers said plural protrusions, the bottom surface and a surface of the surface layer that is on the side facing the bottom surface have a space therebetween, a thickness of the surface layer is from 0.1 μm to 50 μm, and a ratio of a height of each protrusion on the base material with respect to the thickness of the surface layer (height of each protrusion/thickness of surface layer) is from 0.2 to 1,000, characterized in that the surface layer and the base material have a storage elastic modulus at 25°C of from 5 MPa to 1 GPa, measured according to the section "[Measurement of Storage Elastic Modulus E']" of the description. the surface layer is a continuous layer arranged over tips of plural protrusions on the base material and covers said plural protrusions, the bottom surface and a surface of the surface layer that is on the side facing the bottom surface have a space therebetween, a thickness of the surface layer is from 0.1 μm to 50 μm, and a ratio of a height of each protrusion on the base material with respect to the thickness of the surface layer (height of each protrusion/thickness of surface layer) is from 0.2 to 1,000, characterized in that the surface layer and the base material have a storage elastic modulus at 25°C of from 5 MPa to 1 GPa, measured according to the section "[Measurement of Storage Elastic Modulus E']" of the description.
A subsea anchoring assembly, comprising: an anchor ; a locking head for connection of a mooring line to the anchor ; and a socket provided on the anchor and having a seat adapted to receive and seat the locking head within the socket ; the socket having a neck provided with a guide device to direct the locking head into alignment with the socket ; wherein the locking head and the socket can move between a first configuration in which the locking head and the socket are separate, and a second configuration in which the locking head and the socket are locked together; wherein the guide device comprises a pair of splayed arms , characterized by a landing enclosure with a substantially continuous boundary extending from one side of the neck to the other; and wherein the outer ends of the splayed arms extend so that they connect to one another to form the boundary. an anchor ; a locking head for connection of a mooring line to the anchor ; and a socket provided on the anchor and having a seat adapted to receive and seat the locking head within the socket ; the socket having a neck provided with a guide device to direct the locking head into alignment with the socket ; wherein the locking head and the socket can move between a first configuration in which the locking head and the socket are separate, and a second configuration in which the locking head and the socket are locked together; wherein the guide device comprises a pair of splayed arms , characterized by a landing enclosure with a substantially continuous boundary extending from one side of the neck to the other; and wherein the outer ends of the splayed arms extend so that they connect to one another to form the boundary.
A method for determining mechanical specific energy of a drill bit drilling a subsurface formation, the drill bit rotated by a drilling motor in a drilling assembly, the method comprising: measuring a parameter related to torque applied to the drill bit while drilling the subsurface formation; measuring a parameter related to rotational speed of the drill bit by analyzing frequency distribution of a measurement made in a bottom hole assembly (BHA) on a side of the drilling motor opposite to the drill bit while drilling the subsurface formation; determining a volumetric rate of penetration of the drill bit through the subsurface formation; and calculating the mechanical specific energy from the parameter related to torque, the parameter related to rotational speed and the volumetric rate of penetration. measuring a parameter related to torque applied to the drill bit while drilling the subsurface formation; measuring a parameter related to rotational speed of the drill bit by analyzing frequency distribution of a measurement made in a bottom hole assembly (BHA) on a side of the drilling motor opposite to the drill bit while drilling the subsurface formation; determining a volumetric rate of penetration of the drill bit through the subsurface formation; and calculating the mechanical specific energy from the parameter related to torque, the parameter related to rotational speed and the volumetric rate of penetration.