mhurhangee/ep-ind-claims huggingface dataset:
An improved elastomer covered feed roll assembly, comprising: a roll core having a cylindrical surface with at least one longitudinally extending keyway configured as a locking slot; at least a first replaceable flexible feed cover section incorporating a flexible backing carrying an elastomeric coating or layer defining an elastomer gripping surface; and first and second locking components (74, 76) on opposite ends (70, 72) of the replaceable flexible feed cover section configured to be releasably affixed to and engage a corresponding locking slot to mount and removably secure the replaceable flexible feed cover section on the cylindrical surface of the roll core; characterised in that said roll core incorporates a plurality of longitudinally spaced and circumferentially offset locking slots (80, 82, 84,) for mounting and securing a corresponding plurality of side-by-side replaceable flexible feed cover sections (52, 54, 56) on said roll core. a roll core having a cylindrical surface with at least one longitudinally extending keyway configured as a locking slot; at least a first replaceable flexible feed cover section incorporating a flexible backing carrying an elastomeric coating or layer defining an elastomer gripping surface; and first and second locking components (74, 76) on opposite ends (70, 72) of the replaceable flexible feed cover section configured to be releasably affixed to and engage a corresponding locking slot to mount and removably secure the replaceable flexible feed cover section on the cylindrical surface of the roll core; characterised in that said roll core incorporates a plurality of longitudinally spaced and circumferentially offset locking slots (80, 82, 84,) for mounting and securing a corresponding plurality of side-by-side replaceable flexible feed cover sections (52, 54, 56) on said roll core.
A method for performing a group communication in an interworking system of an Instant Messaging and Presence Services, IMPS, system and a Session Initiation Protocol for Instant Messaging and Presence Leveraging Extensions Instant Messaging, SIMPLE IM, system, the method by Interworking Function, IWF, connected to the IMPS system and the SIMPLE IM system comprising: receiving, from a client (10, 70) which is currently connected to one of the IMPS system and the SIMPLE IM system, a request (331, 381) for setting of group properties of a group included in the other system to which the client is not connected; converting the request into a protocol format supported by the other system; forwarding the converted request to the other system; receiving, from the other system, a response including setting result according to the request; converting the response into a protocol format supported by the currently connected system; and forwarding the converted response to the currently connected system, wherein the currently connected system forwards (337, 339, 341, 387, 389, 391) the converted response to the client. receiving, from a client (10, 70) which is currently connected to one of the IMPS system and the SIMPLE IM system, a request (331, 381) for setting of group properties of a group included in the other system to which the client is not connected; converting the request into a protocol format supported by the other system; forwarding the converted request to the other system; receiving, from the other system, a response including setting result according to the request; converting the response into a protocol format supported by the currently connected system; and forwarding the converted response to the currently connected system,
Structured packing of a fluid exchange column defining an exchange surface for at least one liquid phase intended to be placed in intimate contact with at least one ascending gaseous phase, said packing comprising a stack of plates having triangular undulations, each plate being contained between two parallel planes (L1, L2) at a distance of a value (h) between 5 and 50 mm, said undulations forming a series of channels which have wings contained between said two parallel planes, each of said wings being composed of a strip punched out in one of said channels according to two grooves and, the width of the strip being between 2 and 20 mm, the strip being fixed to the plate by its two ends (E1, E2) and the strip being triangle shaped in such a fashion to obtain a triangular form more or less symmetrical to the initial form with respect to a central plane of said two planes (L1, L2) and in such a fashion as to create an orifice forming a discontinuity on the surface of the plate, the adjacent wings located on two contiguous channels and consisting of deformed strips in opposite directions relative to the central plane being separated by a space, said space is measured in the direction of the channels, and the grooves and of the wings are oriented along an angle comprised between 20° and 90° relative to the direction of the channels.
A pipe-laying vessel including a pipe-laying tower extending upwardly from the vessel, the vessel comprising: a welding station for joining a new pipestring to an end of the pipeline (P1, P) held by the tower, a clamp assembly on the tower for engaging a pipestring with a lower end adjacent to the end of the pipeline (P1, P)held by the tower and with the pipestring extending upwardly from its lower end alongside the tower, wherein the clamp assembly comprises a pipestring clamp that serves both the function of a transfer clamp for transferring the pipestring from a position alongside the tower but displaced from the pipe-laying path to a position approximately aligned with the pipe-laying path, and the function of a line-up clamp for lining up the pipestring with the end of the pipeline, characterised in that the orientation of the pipestring clamp is adjustable through pivoting movement about two mutually perpendicular axes that are themselves perpendicular to the longitudinal axis of the tower. a welding station for joining a new pipestring to an end of the pipeline (P1, P) held by the tower, a clamp assembly on the tower for engaging a pipestring with a lower end adjacent to the end of the pipeline (P1, P)held by the tower and with the pipestring extending upwardly from its lower end alongside the tower, wherein the clamp assembly comprises a pipestring clamp that serves both the function of a transfer clamp for transferring the pipestring from a position alongside the tower but displaced from the pipe-laying path to a position approximately aligned with the pipe-laying path, and the function of a line-up clamp for lining up the pipestring with the end of the pipeline, characterised in that the orientation of the pipestring clamp is adjustable through pivoting movement about two mutually perpendicular axes that are themselves perpendicular to the longitudinal axis of the tower.
A variable diffuser comprising: a passage defined between opposing faces of a hub and a tip; at least two vanes within the passage, each of said vanes comprising a vane body having a leading edge and a trailing edge, the vane body extending between the hub face and the tip face; at least two rotatable pennies, each of said pennies disposed in an aperture in the hub face and coupled to a respective vane body and an actuator, wherein each penny is coupled to a respective vane body near an edge of the penny via a second pin extending from the vane body, and having a drive shaft extending from a side opposite the side coupled to the vane, such that each penny is rotatable about an axis defined by the drive shaft; wherein rotation of at least one penny changes an orientation of the respective vane relative to the hub face; and wherein a slot is defined in the hub face, and a first pin proximate the leading edge extends from the vane body into the slot, such that each vane is coupled to the hub face in two locations. a passage defined between opposing faces of a hub and a tip; at least two vanes within the passage, each of said vanes comprising a vane body having a leading edge and a trailing edge, the vane body extending between the hub face and the tip face; at least two rotatable pennies, each of said pennies disposed in an aperture in the hub face and coupled to a respective vane body and an actuator, wherein each penny is coupled to a respective vane body near an edge of the penny via a second pin extending from the vane body, and having a drive shaft extending from a side opposite the side coupled to the vane, such that each penny is rotatable about an axis defined by the drive shaft; wherein rotation of at least one penny changes an orientation of the respective vane relative to the hub face; and wherein a slot is defined in the hub face, and a first pin proximate the leading edge extends from the vane body into the slot, such that each vane is coupled to the hub face in two locations.
Chassis structure for a motor vehicle made of metal, comprising two side members (11, 12) connected by crossmembers (14, 15), the chassis structure comprising a rigid metal crosspiece connecting two adjacent crossmembers (14, 15), said rigid crosspiece comprising two intersecting rectilinear arms (21, 22) and four free ends (23a-23d), two of the free ends (23a, 23b) being rigidly attached to one of said two adjacent crossmembers, the other two free ends (23c, 23d) being rigidly attached to the other of said two adjacent crossmembers, characterized in that said rigid crosspiece is arranged such that the point of intersection of its two arms (21, 22) is located on a central longitudinal line of the chassis structure or at a short distance from this central longitudinal line perpendicular thereto.
A method of preparing colloidally stable polymeric particles comprising a block copolymer of Formula B: wherein P 1 represents a polymeric component derived from a monomer M 1 and P 2 represents a substantially aqueously insoluble polymeric component derived from an aqueously soluble monomer M 2, or P 1 is a copolymer comprising a monomer M 1 with a monomer M 2 provided that the polymer P 1 remains aqueously soluble; the method comprising forming a block copolymer of Formula B in an aqueous based medium by admixing: (a) an aqueously soluble polymer including moieties of Formula A where X represents a terminal group of P 1, at least some of the groups X being a chain transfer agent terminal group, with (b) monomer M 2 and initiating an aqueous dispersion-type radical addition fragmentation chain transfer (RAFT) polymerisation, to provide the block copolymer of Formula B, wherein each monomer M 1 is selected from a monomer of the Formula M 1A, M 1B and/or M 1C: where R 1, R 10 and R 11 represent a substituent of M 1A or M 1C which allows P 1 to be at least partially aqueously soluble, R 2 represents H, CH 3 or CN, R S represents one or more substituents of the aromatic ring effective to allow P 1 to be least partially aqueously soluble, and each monomer M 2 is selected from a monomer of the Formulae M 2A and/or M 2B: where R 3 is a substituent of M 2 which allows P 2 to be substantially aqueously insoluble, and R 4 and R 6 independently represent H or methyl; wherein monomer M 2 has a water solubility between 5 and 30% w/v or is a monomer M 2 selected from: or (a) an aqueously soluble polymer including moieties of Formula A where X represents a terminal group of P 1, at least some of the groups X being a chain transfer agent terminal group, with (b) monomer M 2 and initiating an aqueous dispersion-type radical addition fragmentation chain transfer (RAFT) polymerisation, to provide the block copolymer of Formula B, wherein each monomer M 1 is selected from a monomer of the Formula M 1A, M 1B and/or M 1C: where R 1, R 10 and R 11 represent a substituent of M 1A or M 1C which allows P 1 to be at least partially aqueously soluble, R 2 represents H, CH 3 or CN, R S represents one or more substituents of the aromatic ring effective to allow P 1 to be least partially aqueously soluble, and each monomer M 2 is selected from a monomer of the Formulae M 2A and/or M 2B: where R 3 is a substituent of M 2 which allows P 2 to be substantially aqueously insoluble, and R 4 and R 6 independently represent H or methyl; wherein monomer M 2 has a water solubility between 5 and 30% w/v or is a monomer M 2 selected from: or where R 1, R 10 and R 11 represent a substituent of M 1A or M 1C which allows P 1 to be at least partially aqueously soluble, R 2 represents H, CH 3 or CN, R S represents one or more substituents of the aromatic ring effective to allow P 1 to be least partially aqueously soluble, where R 3 is a substituent of M 2 which allows P 2 to be substantially aqueously insoluble, and R 4 and R 6 independently represent H or methyl; wherein monomer M 2 has a water solubility between 5 and 30% w/v or is a monomer M 2 selected from: or
A method of hot-forming a steel blank into an article comprising the steps of: (c) forming a heated steel blank in a hot forming tool into an article and simultaneously quenching it from a temperature T2 to a temperature T3 in a time period t3, wherein the hot forming tool applies pressure on the steel blank, wherein T3 is in the range of 400-600 °C, and wherein T2 is above the chemistry specific Ar1 temperature, (d) cooling the article in the hot forming tool from temperature T3 to a temperature T4 in a time period t4, wherein the hot forming tool does not apply any pressure on the steel blank, (e) quenching the article in the hot forming tool from temperature T4 to a temperature T5 in a time period t5, wherein the hot forming tool applies pressure on the steel blank, wherein t3 is equal or less than 10 s, and wherein the quenching rate between temperature T2 and T3 is equal or more than 50 °C/s, wherein T4 is in the range of 200-400 °C, and wherein the time period t4 is in the range of 60-180 s, wherein the cooling rate between temperature T3 and T4 is in the range of 2-10 °C/s, wherein T5 is in the range of 20-200 °C, and the time period t5 is equal or less than 8 s, and wherein the steel the steel blank comprises, in weight %, wt%, following elements C: 0.05-0.50, Mn: 0.05-3.00, Si: ≤2.0, Al: ≤2.0, P: ≤0.17, S: ≤ 0.002, B: ≤0.01, N: ≤0.01, Nb: ≤0.1, Ti: ≤0.1, Cr: ≤1.0, and optionally one or more of the elements selected from V, Mo, Co, W, and other microalloy rare earth elements, REM, in a total amount of equal or less than 1.0 wt%, the remainder being Fe and unavoidable impurities. (c) forming a heated steel blank in a hot forming tool into an article and simultaneously quenching it from a temperature T2 to a temperature T3 in a time period t3, wherein the hot forming tool applies pressure on the steel blank, wherein T3 is in the range of 400-600 °C, and wherein T2 is above the chemistry specific Ar1 temperature, (d) cooling the article in the hot forming tool from temperature T3 to a temperature T4 in a time period t4, wherein the hot forming tool does not apply any pressure on the steel blank, (e) quenching the article in the hot forming tool from temperature T4 to a temperature T5 in a time period t5, wherein the hot forming tool applies pressure on the steel blank, wherein t3 is equal or less than 10 s, and wherein the quenching rate between temperature T2 and T3 is equal or more than 50 °C/s, wherein T4 is in the range of 200-400 °C, and wherein the time period t4 is in the range of 60-180 s, wherein the cooling rate between temperature T3 and T4 is in the range of 2-10 °C/s, wherein T5 is in the range of 20-200 °C, and the time period t5 is equal or less than 8 s, and wherein the steel the steel blank comprises, in weight %, wt%, following elements C: 0.05-0.50, Mn: 0.05-3.00, Si: ≤2.0, Al: ≤2.0, P: ≤0.17, S: ≤ 0.002, B: ≤0.01, N: ≤0.01, Nb: ≤0.1, Ti: ≤0.1, Cr: ≤1.0, and optionally one or more of the elements selected from V, Mo, Co, W, and other microalloy rare earth elements, REM, in a total amount of equal or less than 1.0 wt%, the remainder being Fe and unavoidable impurities.
A method for metering a granular calcium-based feed additive in stalls for poultry, particularly laying hens, feed being conveyed from a silo, optionally via an intermediate container, via a feed conveying line to a feed chain, characterized in that the calcium-based feed additive by means of a metering device - is metered directly onto the feed chain regardless of the metering of the feed, and/or - is metered to the feed, wherein the calcium-based feed additive is added after the intermediate container for the feed into the feed conveying line, in which the feed is conveyed directly to the feed chain, whereby the poultry on the feed chain are alternately administered feed with and without calcium-based feed additive, wherein the metering device comprises a storage container for the calcium-based feed additive having a first, upper opening and a second, lower opening, and - a stirring element, - an outlet valve, - a conveying element, and optionally at least one guide element. - is metered directly onto the feed chain regardless of the metering of the feed, and/or - is metered to the feed, wherein the calcium-based feed additive is added after the intermediate container for the feed into the feed conveying line, in which the feed is conveyed directly to the feed chain, - a stirring element, - an outlet valve, - a conveying element,
A method of operating a transport climate control system (100, 124, 135) used to provide climate control within a climate control space (106, 122, 132, 160) of a transport unit (105, 120, 130), the method comprising: setting a mean kinetic temperature setpoint to control the transport climate control system(100, 124, 135); determining, using a controller (107, 129, 145), a mean kinetic temperature in the climate controlled space (106, 122, 132, 160); determining, using the controller (107, 129, 145), a difference between the mean kinetic temperature setpoint and the mean kinetic temperature in the climate controlled space (106, 122, 132, 160); and controlling the transport climate control system (100, 124, 135) based on at least the difference between the mean kinetic temperature setpoint and the mean kinetic temperature in the climate controlled space (106, 122, 132, 160) to regulate the mean kinetic temperature in the climate controlled space (106, 122, 132, 160). setting a mean kinetic temperature setpoint to control the transport climate control system(100, 124, 135); determining, using a controller (107, 129, 145), a mean kinetic temperature in the climate controlled space (106, 122, 132, 160); determining, using the controller (107, 129, 145), a difference between the mean kinetic temperature setpoint and the mean kinetic temperature in the climate controlled space (106, 122, 132, 160); and controlling the transport climate control system (100, 124, 135) based on at least the difference between the mean kinetic temperature setpoint and the mean kinetic temperature in the climate controlled space (106, 122, 132, 160) to regulate the mean kinetic temperature in the climate controlled space (106, 122, 132, 160).
Food article comprising at least one cheese and one packaging, closed, surrounding said cheese, said cheese being whole, not sliced, soft and blue and with a blooming crust, said blooming crust covering substantially all of the cheese, said packaging being hermetically closed, characterised in that said packaging has at least one wall (21, 26, 31) with selective oxygen and/or carbon dioxide and/or steam permeability, so as to control the respiration of said cheese, said wall (21, 26, 31) with selective permeability having a thickness of between 550μm and 1050μm, the packaging comprising a body, referred to as receptacle, and a film, referred to as cover, the receptacle and the cover being hermetically sealed together, in particular hot-sealed, said receptacle being formed of walls (21, 26) with selective permeability of which the thicknesses are of between 550μm and 1050μm.
An enteric coated pellet, comprising: (a) a pellet core containing orbitazine fumarate, (b) an isolation layer, and (c) an enteric layer, wherein the enteric layer comprises an enteric coating material, which is hydroxypropyl methylcellulose acetate succinate, or hydroxypropyl methylcellulose phthalate.
Dosage form obtainable by a process comprising the steps i) providing siponimod, ii) pre-blending the compound of step i) with moisture protective agent and optionally pharmaceutical excipient, iii) blending the mixture of step ii) with pharmaceutical excipient(s), iv) processing the mixture of step iii) to a dosage form, v) optionally, film-coating the dosage form. i) providing siponimod, ii) pre-blending the compound of step i) with moisture protective agent and optionally pharmaceutical excipient, iii) blending the mixture of step ii) with pharmaceutical excipient(s), iv) processing the mixture of step iii) to a dosage form, v) optionally, film-coating the dosage form.
A method for aligning components in a virtual reality environment comprising: detecting a first input from a handheld controller (112, 300) of a virtual reality system comprising a head-mounted display (110, 200); responsive to detecting the first input: communicatively coupling the handheld controller to the head-mounted display; instructing a user to orient the handheld controller in a designated direction (430, 1005), the movement and / or rotational changes being measured detecting a second input from the handheld controller; responsive to detecting the second input, determining a controller orientation of the handheld controller; determining a display orientation of the head-mounted display, the movement and / or rotational changes being measured independently from the handheld controller; and storing alignment data representative of an alignment of the handheld controller; the alignment data comprises storing data representative of an offset between the determined handheld controller orientation and the determined head-mounted display orientation. detecting a first input from a handheld controller (112, 300) of a virtual reality system comprising a head-mounted display (110, 200); responsive to detecting the first input: communicatively coupling the handheld controller to the head-mounted display; instructing a user to orient the handheld controller in a designated direction (430, 1005), the movement and / or rotational changes being measured detecting a second input from the handheld controller; responsive to detecting the second input, determining a controller orientation of the handheld controller; determining a display orientation of the head-mounted display, the movement and / or rotational changes being measured independently from the handheld controller; and storing alignment data representative of an alignment of the handheld controller; the alignment data comprises storing data representative of an offset between the determined handheld controller orientation and the determined head-mounted display orientation. communicatively coupling the handheld controller to the head-mounted display; instructing a user to orient the handheld controller in a designated direction (430, 1005), the movement and / or rotational changes being measured detecting a second input from the handheld controller; responsive to detecting the second input, determining a controller orientation of the handheld controller; determining a display orientation of the head-mounted display, the movement and / or rotational changes being measured independently from the handheld controller; and storing alignment data representative of an alignment of the handheld controller; the alignment data comprises storing data representative of an offset between the determined handheld controller orientation and the determined head-mounted display orientation.