mhurhangee/ep-ind-claims huggingface dataset:
A computer implemented method for using change tracking in system recovery, the method comprising: receiving a request to write to non-volatile electronic storage; identifying an electronic storage region in the non-volatile electronic storage associated with the write request; setting a region indicator in volatile electronic storage identifying the electronic storage region as dirty; wherein the region indicator is at one level of a plurality of levels of region indicators, wherein the plurality of levels of region indicators provide a subdivision of change tracking of the non-volatile electronic storage into multiple layers of regions of the non-volatile electronic storage; setting a region indicator in non-volatile storage identifying the electronic storage region as dirty; and setting one or more portion indicators identifying one or more dirty portions of the electronic storage region. receiving a request to write to non-volatile electronic storage; identifying an electronic storage region in the non-volatile electronic storage associated with the write request; setting a region indicator in volatile electronic storage identifying the electronic storage region as dirty; wherein the region indicator is at one level of a plurality of levels of region indicators, wherein the plurality of levels of region indicators provide a subdivision of change tracking of the non-volatile electronic storage into multiple layers of regions of the non-volatile electronic storage; setting a region indicator in non-volatile storage identifying the electronic storage region as dirty; and setting one or more portion indicators identifying one or more dirty portions of the electronic storage region.
A computer-implemented method of producing a filtered reconstructed frame, comprising: applying, using a deblocking filter, first filter parameters to a reconstructed frame to produce a first filtered frame, wherein the first filter parameters are defined based on adaptive quantization field data associated with the reconstructed frame, wherein the adaptive quantization field data includes values indicative of quantization levels used to encode different areas of the reconstructed frame; using a psychovisual model to determine that a number of blocking artifacts within the first filtered frame exceeds a maximum number of visually perceptible blocking artifacts allowed within the first filtered frame; responsive to determining that the number of blocking artifacts exceeds the number of visually perceptible blocking artifacts, adjusting the first filter parameters to produce second filter parameters, wherein the adjusting includes increasing or decreasing at least one value of the adaptive quantization field data; applying, using the deblocking filter, the second filter parameters to the first filtered frame to produce a second filtered frame; and outputting or storing the second filtered frame. applying, using a deblocking filter, first filter parameters to a reconstructed frame to produce a first filtered frame, wherein the first filter parameters are defined based on adaptive quantization field data associated with the reconstructed frame, wherein the adaptive quantization field data includes values indicative of quantization levels used to encode different areas of the reconstructed frame; using a psychovisual model to determine that a number of blocking artifacts within the first filtered frame exceeds a maximum number of visually perceptible blocking artifacts allowed within the first filtered frame; responsive to determining that the number of blocking artifacts exceeds the number of visually perceptible blocking artifacts, adjusting the first filter parameters to produce second filter parameters, wherein the adjusting includes increasing or decreasing at least one value of the adaptive quantization field data; applying, using the deblocking filter, the second filter parameters to the first filtered frame to produce a second filtered frame; and outputting or storing the second filtered frame.
A method for displaying aircraft information, the method comprising: detecting a selection of a piece of dynamic information about an aircraft on a first display on a user interface, wherein the piece of dynamic information is used to operate the aircraft and changes during operation of the aircraft; adding the piece of dynamic information selected from the first display to a custom display on the user interface; displaying the custom display on the user interface on a display system for the aircraft; determining whether a number of selected events have occurred, wherein the number of selected events includes at least one of a selected speed for the aircraft, a beginning of a selected phase of flight for the aircraft, an alert being generated, a notification being received from a ground station, or landing gear being deployed; and generating and storing a screenshot of the custom display during the operation of the aircraft if the number of selected events has occurred. detecting a selection of a piece of dynamic information about an aircraft on a first display on a user interface, wherein the piece of dynamic information is used to operate the aircraft and changes during operation of the aircraft; adding the piece of dynamic information selected from the first display to a custom display on the user interface; displaying the custom display on the user interface on a display system for the aircraft; determining whether a number of selected events have occurred, wherein the number of selected events includes at least one of a selected speed for the aircraft, a beginning of a selected phase of flight for the aircraft, an alert being generated, a notification being received from a ground station, or landing gear being deployed; and generating and storing a screenshot of the custom display during the operation of the aircraft if the number of selected events has occurred.
Method of converting at least an alcohol into light olefins in a dehydration process to make an olefin having the same number of carbon atoms as the alcohol using a catalyst which comprises a phosphorus modified zeolite and is made by a method comprising the following steps in this order, a) providing a zeolite comprising at least one ten members ring in the structure, optionally steaming said zeolite, b) mixing said zeolite of step a) with at least a component selected among one or more binders and shaping additives, then shaping said mixture, c) optionally making a ion-exchange, d) steaming the shaped catalyst, optionally before step c), e) introducing phosphorus on the catalyst to introduce at least 0.1 wt% of phosphorus, said introduction being made by impregnation or chemical vapor deposition, f) optionally introducing a alkaline earth or rare earth metal in the form of an oxide, optionally simultaneously with step e), g) optionally washing the catalyst, h) optionally calcinating the catalyst, i) steaming the catalyst, also referred to as the equilibration step. a) providing a zeolite comprising at least one ten members ring in the structure, optionally steaming said zeolite, b) mixing said zeolite of step a) with at least a component selected among one or more binders and shaping additives, then shaping said mixture, c) optionally making a ion-exchange, d) steaming the shaped catalyst, optionally before step c), e) introducing phosphorus on the catalyst to introduce at least 0.1 wt% of phosphorus, said introduction being made by impregnation or chemical vapor deposition, f) optionally introducing a alkaline earth or rare earth metal in the form of an oxide, optionally simultaneously with step e), g) optionally washing the catalyst, h) optionally calcinating the catalyst, i) steaming the catalyst, also referred to as the equilibration step.
Position determining system comprising a sensor unit (LK1a, LK1b, LK2, LK3) and a transmitter unit (GK1, GK2), wherein the sensor unit (LK1a, LK1b, LK2, LK3) comprises a first RFID transponder reader unit (LR1, LR2), a first induction detector unit, and an evaluating unit connected with the RFID transponder reader unit (LR1, LR2) and with the induction detector unit, the transmitter unit (GK1, GK2) comprises an RFID transponder (G1 - GN) and a sub-transmitter unit (GM1 - GMN-1) consisting of a metallic material, the sensor unit (LK1a, LK1b, LK2, LK3) is displaceable relative to the transmitter unit (GK1, GK2), the RFID transponder reader unit (LR1, LR2) is arranged for absolute positional determination and outputs a first position value, the induction detector unit is arranged for absolute positional determination and outputs a second position value, and the evaluating unit is arranged to determine from the data ascertained by the transmitter unit (GK1, GK2) an absolute position of the sensor unit (LK1a, LK1b, LK2, LK3) from the first position value and the second position value.
Implement for handling bales, having at least one receiver and a gripper, wherein the gripper has prongs (54, 54a, 54b) and a cutting installation, and the prongs at least in regions protrude beyond the cutting installation, wherein the gripper is provided so as to be movable in relation to the receiver, and the gripper has two support arms which on the right side and the left side are in each case pivotably connected to the receiver by way of an articulation, wherein, in a region facing away from the respective articulation, the support arms are connected by way of a crossbeam in such a manner that said support arms conjointly with the crossbeam form a pivoting frame, and a plurality of the prongs, which from the crossbeam extend approximately perpendicularly in the direction of the receiver and taper so as to form a point in an end region facing away from the crossbeam, are provided so as to be uniformly spaced apart on the crossbeam, characterized in that the support arms have in each case one correspondingly configured prong, the latter being spaced apart from the crossbeam.
A mower unit comprising: a blade (21, 22, 23) which cuts grass or lawn while rotating; and a guide (31, 32, 33) which is formed along a rotational locus of the blade and is disposed at a fore side of the rotational locus of the blade (21, 22, 23), characterized in that a lower end position of a part of the guide (31L-31a, 32b-32a, 33b-33a) is constructed more highly than a tip position of the blade (21, 22, 23), the part of the guide (31L-31a, 32b-32a, 33b-33a) corresponding to a first region that is a part of the rotational locus, which exists within such a range from a position where a tip of the blade (21, 22, 23) moves in a progressing direction of the mower unit and in parallel with the progressing direction, to another position where the tip of the blade (21, 22, 23) moves in an orthogonal direction which intersects orthogonally with the progressing direction of the mower unit, and the guide (31, 32, 33) is constructed so that a height of the lower end position of the part of the guide (31L-31a, 32b-32a, 33b-33a) becomes low gradually along a rotational direction of the blade. a blade (21, 22, 23) which cuts grass or lawn while rotating; and a guide (31, 32, 33) which is formed along a rotational locus of the blade and is disposed at a fore side of the rotational locus of the blade (21, 22, 23), characterized in that a lower end position of a part of the guide (31L-31a, 32b-32a, 33b-33a) is constructed more highly than a tip position of the blade (21, 22, 23), the part of the guide (31L-31a, 32b-32a, 33b-33a) corresponding to a first region that is a part of the rotational locus, which exists within such a range from a position where a tip of the blade (21, 22, 23) moves in a progressing direction of the mower unit and in parallel with the progressing direction, to another position where the tip of the blade (21, 22, 23) moves in an orthogonal direction which intersects orthogonally with the progressing direction of the mower unit, and the guide (31, 32, 33) is constructed so that a height of the lower end position of the part of the guide (31L-31a, 32b-32a, 33b-33a) becomes low gradually along a rotational direction of the blade.
A railway vehicle disk brake pad comprising a base plate; a number of supporting plates fitted to the base plate; and a number of friction members fixed to said supporting plates; said base plate comprising a number of perforated drawing portions, each of which comprises a projection on which a respective supporting plate rests directly, thus forming a gap between the base plate and the supporting plate; said pad being characterized in that said projection has a centre hole engaged by a respective rivet for securing the respective supporting plate to the base plate.
A percussive drill bit comprising: - a drill bit body with an impact face, the drill bit body having a longitudinal axis of rotation, - an internal conduit for supplying pressurised fluid to the impact face, - at least one exhaust port in the impact face and in fluid communication with the internal conduit, - and a wear shield adjacent to each exhaust port, wherein the wear shield is located only on a trailing side of each exhaust port, defined with respect to the direction of rotation. - a drill bit body with an impact face, the drill bit body having a longitudinal axis of rotation, - an internal conduit for supplying pressurised fluid to the impact face, - at least one exhaust port in the impact face and in fluid communication with the internal conduit, - and a wear shield adjacent to each exhaust port, wherein the wear shield is located only on a trailing side of each exhaust port, defined with respect to the direction of rotation.
A stretched film containing 0.5 to 15 parts by weight of a compound represented by Formula per 100 parts by weight of a polyamide resin, wherein the polyamide resin is composed of a structural unit derived from diamine and a structural unit derived from dicarboxylic acid; 50% by mole or more of the structural unit derived from diamine is derived from xylylenediamine, and 50% by mole or more of the structural unit derived from dicarboxylic acid is derived from a straight-chain aliphatic α,ω-dicarboxylic acid having 4 to 20 carbon atoms: wherein R 1 represents an alkyl group having 1 to 10 carbon atoms, R 2 represents an alkyl group having 2 to 12 carbon atoms, and n represents an integer of 1 to 3.
Porous trimanganese tetraoxide particles comprising agglomerated trimanganese tetraoxide primary particles having an average primary particle size of at most 2 μm, the pore volume of pores being at least 0.5 mL/g as measured by a mercury intrusion technique.
A rivet connection arrangement comprising a rivet element (6, 6a - 6d) and at least two workpieces (2, 3) connected by means of the rivet element (6, 6a - 6d) via a rivet connection, wherein the rivet element (6, 6a - 6d) is configured at least in two parts and comprises at least one rivet shaft section (6.1, 6.1a - 6.1d) which is configured at least in sections as a hollow rivet, and a rivet flange (6.2, 6.2a - 6.2d) adjoining thereto along the longitudinal axis of the rivet element (6, 6a - 6d) and which is formed by a nut element (7, 7a - 7d), wherein in the established rivet connection the rivet shaft section (6.1, 6.1a - 6.1d) is led at least in sections through two perforations (4, 5) in the workpieces (2, 3) and is deformed into a rivet collar (6.3, 6.3a - 6.3d) and the two workpieces (2, 3) are clamped between the rivet collar (6.3, 6.3a - 6.3d) and the rivet flange (6.2, 6.2a - 6.2d), characterized in that the rivet element is formed by a blind rivet nut element or a blind rivet screw element, wherein the nut element (7, 7a - 7d) forming the rivet flange (6.2, 6.2a - 6.2d) is releasably connected directly to a first free end of the blind rivet nut element or the blind rivet screw element.
A cartridge configured to be inserted into a meter, the cartridge comprising: a housing having at least two electrical contacts disposed on an inner surface of a wall of the housing and at least two electrical contacts disposed on an outer surface of the wall of the housing, wherein a conductive path is provided between corresponding ones of the at least two electrical contacts on the inner and outer surfaces; and at least one testing member supported within the housing, each testing member having at least two contact pads configured to engage with the at least two electrical contacts disposed on the inner surface of the housing wall when that testing member is moved into a measurement position, wherein the at least two electrical contacts disposed on the outer surface of the housing wall are configured to provide a conductive connection between the testing member and the meter. a housing having at least two electrical contacts disposed on an inner surface of a wall of the housing and at least two electrical contacts disposed on an outer surface of the wall of the housing, wherein a conductive path is provided between corresponding ones of the at least two electrical contacts on the inner and outer surfaces; and at least one testing member supported within the housing, each testing member having at least two contact pads configured to engage with the at least two electrical contacts disposed on the inner surface of the housing wall when that testing member is moved into a measurement position, wherein the at least two electrical contacts disposed on the outer surface of the housing wall are configured to provide a conductive connection between the testing member and the meter.
A three-dimensional fabric item, e.g. useable as a reinforcement for a composite material, comprising at least one, and preferably at least two, complementary fabric(s) (CF; CF1, CF2) and at least one, and preferably at least two, interacting woven fabric(s) (A; A1, A2), wherein the interacting woven fabric comprises interlaced warps and wefts, wherein at least some of the warps and/or wefts of the interacting woven fabric penetrate through the complementary fabric (CF; CF1, CF2) in the thickness direction, whereby the complementary fabric (CF; CF1, CF2) and interacting woven fabric (A; A1, A2) are connected to each other at their intersecting junction forming a three-dimensional fabric item a structural architecture of said at least one interacting woven fabric (A; A1; A2) being individual single woven layer(s), characterized in that the complementary fabric (CF; CF1, CF2) is a pre-produced, in itself structurally stable, fabric, and in that said at least one complementary fabric (CF; CF1, CF2) and at least one interacting woven fabric (A; A1, A2) have relatively different structural architectures, the structural architecture of said at least one complementary fabric (CF; CF1, CF") comprising at least one of woven 2.5D fabric, wherein constituent yarns are disposed in two mutually perpendicular planes, woven 3D fabric, wherein constituent yarns are disposed in three mutually perpendicular planes, knitted, braided, any type of non-woven fabric, laced, embroidered, non-crimp fabric, unidirectional, net and pile type fabric.
A method of production of a thermoelectric micro-cooler, comprising - forming on a first ceramic wafer a first conductive layer containing conductive traces, - soldering legs (3, 4) of thermoelectric material to the conductive traces of the first conductive layer, - forming on a temporary wafer a second conductive layer containing conductive traces, - soldering the conductive traces of the second conductive layer to legs (3, 4) of thermoelectric material, - applying a protective coating onto the legs (3, 4) of thermoelectric material and soldered joints, - removing the temporary wafer via etching, - applying an elastic conductive adhesive layer onto a second ceramic wafer, - adhering the second ceramic wafer to the conductive traces of the second conductive layer. - forming on a first ceramic wafer a first conductive layer containing conductive traces, - soldering legs (3, 4) of thermoelectric material to the conductive traces of the first conductive layer, - forming on a temporary wafer a second conductive layer containing conductive traces, - soldering the conductive traces of the second conductive layer to legs (3, 4) of thermoelectric material, - applying a protective coating onto the legs (3, 4) of thermoelectric material and soldered joints, - removing the temporary wafer via etching, - applying an elastic conductive adhesive layer onto a second ceramic wafer, - adhering the second ceramic wafer to the conductive traces of the second conductive layer.
A method comprising: i) controlling a set of transducers to create an acoustic field exhibiting desired amplitude at a plurality of control points so as to generate haptic feedback in midair; ii) encoding a dominant eigenvector of an eigensystem that describes an effect that one control point of given phase and amplitude has on other control points of given phases and amplitudes to approximate a basis vector of a set of linear modifications that have different overall effects on constructive and destructive interference across the control points; and characterized by, iii) creating a synchronized pseudo-random binary sequence that only requires communication between the transducers to initialize and synchronize; and, iv) once initialized, applying a pseudorandom phase walk approach to each control point, whereby transducers contributing to the same control point produce the same pseudo-random phase walk, so as to reduce communication between the transducers to be able to contribute to the same control point in the acoustic field. i) controlling a set of transducers to create an acoustic field exhibiting desired amplitude at a plurality of control points so as to generate haptic feedback in midair; ii) encoding a dominant eigenvector of an eigensystem that describes an effect that one control point of given phase and amplitude has on other control points of given phases and amplitudes to approximate a basis vector of a set of linear modifications that have different overall effects on constructive and destructive interference across the control points; and characterized by, iii) creating a synchronized pseudo-random binary sequence that only requires communication between the transducers to initialize and synchronize; and, iv) once initialized, applying a pseudorandom phase walk approach to each control point, whereby transducers contributing to the same control point produce the same pseudo-random phase walk, so as to reduce communication between the transducers to be able to contribute to the same control point in the acoustic field.