mhurhangee/ep-ind-claims huggingface dataset:
A method for simulating a design logic comprising: receiving a first clock signal and a second clock signal, the first and second clock signals being asynchronous to each other and having a first phase relationship at a first time wherein the first and the second clock signals are received by a circuitry including a design logic and a replicated design logic to provide initial condition signals for simulation; receiving the first and second clock signals, and multiplexing an input signal and a delayed input signal, wherein the delayed input signal is the input signal delayed by a selected number of cycles of the first clock signal; providing an output signal and a delayed output signal from the additional logic through a demultiplexer to provide the initial condition signals; sampling the second clock signal with the first clock signal to obtain samples of the second clock signal; storing the samples of the second clock signal; analyzing the samples of the second clock signal to ascertain the first phase relationship and provide a representation of the first phase relationship; determining that a trigger condition has occurred; and in response to determining that the trigger condition has occurred, preventing the second clock signal from advancing in replicated logic. receiving a first clock signal and a second clock signal, the first and second clock signals being asynchronous to each other and having a first phase relationship at a first time wherein the first and the second clock signals are received by a circuitry including a design logic and a replicated design logic to provide initial condition signals for simulation; receiving the first and second clock signals, and multiplexing an input signal and a delayed input signal, wherein the delayed input signal is the input signal delayed by a selected number of cycles of the first clock signal; providing an output signal and a delayed output signal from the additional logic through a demultiplexer to provide the initial condition signals; sampling the second clock signal with the first clock signal to obtain samples of the second clock signal; storing the samples of the second clock signal; analyzing the samples of the second clock signal to ascertain the first phase relationship and provide a representation of the first phase relationship; determining that a trigger condition has occurred; and in response to determining that the trigger condition has occurred, preventing the second clock signal from advancing in replicated logic.
A catheter (1, 1D, 1E) characterized by comprising: a catheter main body which forms a lengthy shape and also includes a lumen extending along the longitudinal direction; a guide wire insertion portion which is placed on the distal side of the catheter main body and forms a tubular shape through which a guide wire is insertable, and which includes a distal opening portion and a proximal opening portion; and a reinforcement portion (22, 22A, 22B, 22C, 22D, 22E) provided with a coil portion (221, 221A, 221B, 221C, 221D, 221E) in which at least a portion thereof is arranged on the proximal side away from the proximal opening portion and is wound by using an element wire, characterised in that said reinforcing portion further comprises an extension portion (222, 222A, 222B 1, 222B2, 222C, 222D, 222E) formed by being expanded from the element wire of the coil portion (221, 221A, 221B, 221C, 221D, 221E) to the distal side away from the proximal opening portion, wherein the reinforcement portion (22, 22A, 22B, 22C, 22D, 22E) is positioned between the inner surface and the outer surface of a tube wall defining the lumen of the catheter main body. a catheter main body which forms a lengthy shape and also includes a lumen extending along the longitudinal direction; a guide wire insertion portion which is placed on the distal side of the catheter main body and forms a tubular shape through which a guide wire is insertable, and which includes a distal opening portion and a proximal opening portion; and a reinforcement portion (22, 22A, 22B, 22C, 22D, 22E) provided with a coil portion (221, 221A, 221B, 221C, 221D, 221E) in which at least a portion thereof is arranged on the proximal side away from the proximal opening portion and is wound by using an element wire, characterised in that said reinforcing portion further comprises an extension portion (222, 222A, 222B 1, 222B2, 222C, 222D, 222E) formed by being expanded from the element wire of the coil portion (221, 221A, 221B, 221C, 221D, 221E) to the distal side away from the proximal opening portion, wherein the reinforcement portion (22, 22A, 22B, 22C, 22D, 22E) is positioned between the inner surface and the outer surface of a tube wall defining the lumen of the catheter main body.
A textile sleeve for protecting elongate members against abrasion and EMI, comprising: a wall (12, 12') having opposite edges (14, 16) extending lengthwise in generally parallel relation with a longitudinal axis between opposite ends (20, 22), said opposite edges (14, 16) being configured to overlap one another to bound an enclosed cavity extending between said opposite ends (20, 22), said wall having warp filaments extending generally parallel to said longitudinal axis woven with weft filaments extending generally transversely to said warp filaments, said warp filaments including substantially electrically non-conductive multifilaments woven in a plain weave pattern with said weft filaments and electrically conductive members woven with said weft filaments, wherein said electrically conductive members form a plurality of floats, with each of said floats extending over at least two adjacent ones of said weft filaments; characterized in that said substantially electrically non-conductive multifilaments and said electrically conductive members are staggered with one another in alternating relation. a wall (12, 12') having opposite edges (14, 16) extending lengthwise in generally parallel relation with a longitudinal axis between opposite ends (20, 22), said opposite edges (14, 16) being configured to overlap one another to bound an enclosed cavity extending between said opposite ends (20, 22), said wall having warp filaments extending generally parallel to said longitudinal axis woven with weft filaments extending generally transversely to said warp filaments, said warp filaments including substantially electrically non-conductive multifilaments woven in a plain weave pattern with said weft filaments and electrically conductive members woven with said weft filaments, wherein said electrically conductive members form a plurality of floats, with each of said floats extending over at least two adjacent ones of said weft filaments; characterized in that said substantially electrically non-conductive multifilaments and said electrically conductive members are staggered with one another in alternating relation.
A prilling tower for producing urea, comprising: a casing extending along and about an axis and provided with an inner treatment chamber; a sprayer device arranged at a top axial end of the casing for supplying a liquid phase of molten urea in the chamber; windows set at a bottom axial end of the casing for supplying air inside the chamber; and a conveying structure arranged at the bottom axial end of the casing below the windows for collecting a solid product formed in the chamber in form of prills and conveying said prills towards a bottom outlet; the conveying structure comprising a plurality of flared sectors, coaxial and aligned to one another along the axis and arranged in series along the axis and converging downwards and towards the axis the conveying structure comprises a top sector, set at the top end of the conveying structure, a bottom sector, set at the bottom end of the conveying structure, and at least one intermediate sector arranged between the top sector and the bottom sector; the prilling tower being characterized in that the conveying structure has no mechanical scrapers and the sectors are partially inserted inside one another both axially and radially and each pair of sectors consecutive along the axis is formed by two sectors having respective peripheral edges (21, 22) inserted one inside the other; the upper sector of the pair, arranged above the other along the axis, having a peripheral bottom edge arranged below and radially inside a top peripheral edge of the sector beneath; the sectors having respective inner lateral surfaces slanted so as to cause the prills, deposited on the inner lateral surfaces, to slide for the sole effect of gravity towards the bottom outlet, the sectors having respective lateral walls having an inclination with respect to a horizontal plane greater than 45°.
Filler neck of a container for a vehicle, wherein the filler neck comprises an upper part, a support and a magnet, wherein the upper part has a first opening for receiving a fluid to be poured into the container and a second opening for discharging the fluid into the container, wherein the upper part and the support are configured in order to insert the magnet together with the support from the second opening into the upper part, and wherein an annular outer wall of the upper part is present in a direction radially outwards directly next to the magnet, and an annular inner wall of the support is present radially inwards directly next to the magnet, wherein the support has a base which is connected to the inner wall and extends radially outwards from the inner wall, in that the magnet is annular, wherein the magnet is arranged on the base of the support, and therefore the inner wall of the support extends through the annular magnet, in that the filler neck comprises a lower part, wherein the lower part comprises an annular outer wall, the inner diameter of which is larger than an inner diameter of the upper part, and wherein the lower part comprises a projection which extends inwards from the outer wall of the lower part in order to support a base of the support, characterized in that the upper part is welded to the lower part in such a manner that sealing of the magnet is ensured and a firm fit of the support occurs.
A method of decoding mode information of a current block of a current slice of an image, the method comprising: decoding first information that indicates whether the current block is encoded in a first encoding mode; determining whether the current block is encoded in the first encoding mode based on the decoded first information; in response to determining that the current block is not encoded in the first encoding mode, decoding second information that indicates an encoding mode of the current block from among a second encoding mode and a third encoding mode; and determining a decoding mode to be used to decode the current block, based on at least one of the decoded first information and the decoded second information, wherein the first encoding mode indicates that the current block is identical to a second block in the current slice that is encoded prior to the current block, characterized in that the current block being adjacent to the second block, wherein the second encoding mode is an encoding mode that encodes the current block based on discrete cosine transformation, and wherein the third encoding mode is an encoding mode that encodes the current block based on a plurality of bit planes of pixel values. decoding first information that indicates whether the current block is encoded in a first encoding mode; determining whether the current block is encoded in the first encoding mode based on the decoded first information; in response to determining that the current block is not encoded in the first encoding mode, decoding second information that indicates an encoding mode of the current block from among a second encoding mode and a third encoding mode; and determining a decoding mode to be used to decode the current block, based on at least one of the decoded first information and the decoded second information, wherein the first encoding mode indicates that the current block is identical to a second block in the current slice that is encoded prior to the current block, characterized in that the current block being adjacent to the second block, wherein the second encoding mode is an encoding mode that encodes the current block based on discrete cosine transformation, and wherein the third encoding mode is an encoding mode that encodes the current block based on a plurality of bit planes of pixel values.
A food preparation apparatus comprising a food preparation chamber and a pressure chamber for generating steam coupled to the food preparation chamber through a conduit, wherein: the pressure chamber comprises a heating element for converting water into steam; and the conduit comprises an auto-relief valve arranged to release the steam at a set pressure above atmospheric pressure from the pressure chamber into the food preparation chamber, characterized in that, the set pressure of the auto-relief valve is adjustable. the pressure chamber comprises a heating element for converting water into steam; and the conduit comprises an auto-relief valve arranged to release the steam at a set pressure above atmospheric pressure from the pressure chamber into the food preparation chamber, characterized in that, the set pressure of the auto-relief valve is adjustable.
An oil-in-water emulsion composition, comprising: dispersed particles containing from 0.05% by mass to 2.5% by mass of lycopene relative to the total mass of the oil-phase; and a carbamic acid ester compound. dispersed particles containing from 0.05% by mass to 2.5% by mass of lycopene relative to the total mass of the oil-phase; and a carbamic acid ester compound.
A mobile object control system comprising: an SfM unit (2; 101) for detecting distance to an object imaged by a monocular camera which captures forward images in a movement direction of a mobile object by using an SfM algorithm; a first-stop-position output unit (3; 104) for outputting a first stop position satisfying a predetermined safety criterion; a second-stop-position calculating unit (4; 105) for calculating a second stop position closer by a predetermined distance than the first stop position; and a control unit (5; 106) for controlling travel of the mobile object, wherein the control unit (5; 106) controls so that the mobile object stops at the second stop position and, when a predetermined starting condition is satisfied, controls so that the mobile object starts from the second stop position, wherein the SfM unit (2; 101) detects distance to the object by using an image captured by the monocular camera after the mobile object starts from the second stop position, and wherein when a detection result of the distance of the object by the SfM unit (2; 101) is obtained, the control unit (5; 106) uses the detection result for control of travel of the mobile object, characterized in that: the predetermined distance is a predetermined movement distance that will be required by the SfM algorithm if the mobile object in a stopped state starts again and moves in order that the SfM algorithm becomes able to detect a distance to a stationary object. an SfM unit (2; 101) for detecting distance to an object imaged by a monocular camera which captures forward images in a movement direction of a mobile object by using an SfM algorithm; a first-stop-position output unit (3; 104) for outputting a first stop position satisfying a predetermined safety criterion; a second-stop-position calculating unit (4; 105) for calculating a second stop position closer by a predetermined distance than the first stop position; and a control unit (5; 106) for controlling travel of the mobile object, wherein the control unit (5; 106) controls so that the mobile object stops at the second stop position and, when a predetermined starting condition is satisfied, controls so that the mobile object starts from the second stop position, wherein the SfM unit (2; 101) detects distance to the object by using an image captured by the monocular camera after the mobile object starts from the second stop position, and wherein when a detection result of the distance of the object by the SfM unit (2; 101) is obtained, the control unit (5; 106) uses the detection result for control of travel of the mobile object, characterized in that: the predetermined distance is a predetermined movement distance that will be required by the SfM algorithm if the mobile object in a stopped state starts again and moves in order that the SfM algorithm becomes able to detect a distance to a stationary object.
A compound selected from a group consisting of: 2-Methyl-2-{2-[3-(trans-4-methyl-cyclohexyl)-3-(4-phenyl-butyl)-ureido]-thiazol-5-ylsulfanyl}-propionic acid; and 2-{2-[3-[2-(3,4-Dimethoxy-phenyl)-ethyl]-3-(trans-4-methyl-cyclohexyl)-ureido]-thiazol-5-ylsulfanyl}-2-methyl-propionic acid or a pharmaceutically acceptable salt thereof. 2-Methyl-2-{2-[3-(trans-4-methyl-cyclohexyl)-3-(4-phenyl-butyl)-ureido]-thiazol-5-ylsulfanyl}-propionic acid; and 2-{2-[3-[2-(3,4-Dimethoxy-phenyl)-ethyl]-3-(trans-4-methyl-cyclohexyl)-ureido]-thiazol-5-ylsulfanyl}-2-methyl-propionic acid
A computer-implemented method for consistency checking of data files, in a distributed database system, that represent a table, comprising: receiving an ordered sequence of event records associated with the table, each event record in the ordered sequence including an operation type identifying a type of operation represented by the event record, a set of input data file identifiers identifying data files acted on by the particular operation, and a set of output data file identifiers identifying data files generated by the particular operation; characterized by: processing each first event record in a plurality of first event records in the ordered sequence, in an order specified by the ordered sequence, by: maintaining, in a valid data file set, data file identifiers corresponding to data files on which subsequent operations may operate; maintaining, in an invalid data file set, data file identifiers corresponding to data files that should not be used by subsequent operations; determining whether the operation associated with the first event record was successfully committed; and in response to determining that the operation associated with the first event record was successfully committed, moving any data file identifier in the set of input data file identifiers of the first event record from the valid data file set to the invalid data file set; and performing for a second event record in the ordered sequence that follows at least one of the first event records in the ordered sequence: determining that a data inconsistency exists with respect to the table based on at least one of the valid data file set or the invalid data file set, and at least one of the set of input data file identifiers associated with the second event record or the set of output data file identifiers associated with the second event record. maintaining, in a valid data file set, data file identifiers corresponding to data files on which subsequent operations may operate; maintaining, in an invalid data file set, data file identifiers corresponding to data files that should not be used by subsequent operations; determining whether the operation associated with the first event record was successfully committed; and in response to determining that the operation associated with the first event record was successfully committed, moving any data file identifier in the set of input data file identifiers of the first event record from the valid data file set to the invalid data file set; and
Interference pigments based on multicoated flake-form substrates, characterised in that the flake-form substrates are natural or synthetic mica, glass flakes, Al 2 O 3 flakes, SiO 2 flakes or TiO 2 flakes and they have on the surface of the substrate a layer sequence comprising optionally a highly refractive coating consisting of a layer of TiO 2, a highly refractive coating consisting of a mixture of TiO 2 and Fe 2 O 3, where the TiO 2 to Fe 2 O 3 mixing ratio is 10:1 to 1:3, which may optionally be doped with one or more further oxides from the group Al 2 O 3, Ce 2 O 3, B 2 O 3, ZrO 2, SnO 2, a highly refractive layer consisting of SnO 2, a highly refractive coating which absorbs in the visible wavelength region, where coating is - a TiO 2 layer followed by an Fe 2 O 3 layer, or - an Fe 2 O 3 layer, or - a layer consisting of a mixture of TiO 2 and Fe 2 O 3, or - a TiO 2 layer followed by a layer of Carmine Red, or - a TiO 2 layer followed by a layer of Berlin Blue, and optionally an outer protective layer. optionally a highly refractive coating consisting of a layer of TiO 2, a highly refractive coating consisting of a mixture of TiO 2 and Fe 2 O 3, where the TiO 2 to Fe 2 O 3 mixing ratio is 10:1 to 1:3, which may optionally be doped with one or more further oxides from the group Al 2 O 3, Ce 2 O 3, B 2 O 3, ZrO 2, SnO 2, a highly refractive layer consisting of SnO 2, a highly refractive coating which absorbs in the visible wavelength region, where coating is - a TiO 2 layer followed by an Fe 2 O 3 layer, or - an Fe 2 O 3 layer, or - a layer consisting of a mixture of TiO 2 and Fe 2 O 3, or - a TiO 2 layer followed by a layer of Carmine Red, or - a TiO 2 layer followed by a layer of Berlin Blue, - a TiO 2 layer followed by an Fe 2 O 3 layer, or - an Fe 2 O 3 layer, or - a layer consisting of a mixture of TiO 2 and Fe 2 O 3, or - a TiO 2 layer followed by a layer of Carmine Red, or - a TiO 2 layer followed by a layer of Berlin Blue, an outer protective layer.
A multiple vascular access port assembly comprising: a base assembly configured to receive multiple, self-contained vascular access ports, the base assembly including: a first base surface and an opposing second base surface; multiple port receiving areas on the first base surface, each port receiving area configured to receive and attach to the base assembly one self-contained vascular access port, characterized in that each port receiving area includes: multiple port couplings extending from the first base surface, and along a periphery thereof, each port coupling including an extending portion and a coupling portion, where the extending portion extends vertically from and substantially perpendicular to the first base surface and the coupling portion extends from and substantially perpendicular to the extending portion, the coupling portion extending in a direction radially inward of the port receiving area, where an inside height of each extending portion corresponds to a thickness height of a peripheral flange of a respective, self-contained vascular access port. a first base surface and an opposing second base surface; multiple port receiving areas on the first base surface, each port receiving area configured to receive and attach to the base assembly one self-contained vascular access port, characterized in that each port receiving area includes: multiple port couplings extending from the first base surface, and along a periphery thereof, each port coupling including an extending portion and a coupling portion, where the extending portion extends vertically from and substantially perpendicular to the first base surface and the coupling portion extends from and substantially perpendicular to the extending portion, the coupling portion extending in a direction radially inward of the port receiving area, where an inside height of each extending portion corresponds to a thickness height of a peripheral flange of a respective, self-contained vascular access port.