mhurhangee/ep-ind-claims huggingface dataset:
A method for providing an estimate of absolute time based on time information from a plurality of communication systems, comprising: receiving, at a user terminal, absolute time information (t abs1) from a first communication system; receiving, at the user terminal, relative time information from a first transmitter in a second communication system, wherein said relative time information from said first transmitter provides an amount of time that has elapsed between receipt, at the user terminal, of a first signalling message and a subsequent signalling message from said first transmitter; receiving, at the user terminal, relative time information from a second transmitter in the second communication system, wherein said relative time information from said second transmitter provides an amount of time that has elapsed between receipt, at the user terminal, of a first signalling message and a subsequent signalling message from said second transmitter; and providing, at the user terminal, an estimate of absolute time (t abs2) at a designated time instant (T 6) based on the absolute time information from the first communication system and the relative time information from the first and second transmitters (120a, 120b) in the second communication system. receiving, at a user terminal, absolute time information (t abs1) from a first communication system; receiving, at the user terminal, relative time information from a first transmitter in a second communication system, wherein said relative time information from said first transmitter provides an amount of time that has elapsed between receipt, at the user terminal, of a first signalling message and a subsequent signalling message from said first transmitter; receiving, at the user terminal, relative time information from a second transmitter in the second communication system, wherein said relative time information from said second transmitter provides an amount of time that has elapsed between receipt, at the user terminal, of a first signalling message and a subsequent signalling message from said second transmitter; and providing, at the user terminal, an estimate of absolute time (t abs2) at a designated time instant (T 6) based on the absolute time information from the first communication system and the relative time information from the first and second transmitters (120a, 120b) in the second communication system.
A sod roll picker, comprising: a pair of right facing spear bar assemblies and a pair of left facing spear bar assemblies, each of the right and left facing spear bar assemblies including: a spear bar; a plurality of spears secured to the spear bar; and a guide roller disposed on each end of the spear bar assembly; characterized by a base frame including a pair of sidewalls connected by a pair of end walls, each end wall including a pair of right guide paths configured to receive the guide rollers of the right facing spear bar assemblies and a pair of left guide paths configured to receive the guide rollers of the left facing spear bar assemblies. a pair of right facing spear bar assemblies and a pair of left facing spear bar assemblies, each of the right and left facing spear bar assemblies including: a spear bar; a plurality of spears secured to the spear bar; and a guide roller disposed on each end of the spear bar assembly; characterized by a spear bar; a plurality of spears secured to the spear bar; and a guide roller disposed on each end of the spear bar assembly; a base frame including a pair of sidewalls connected by a pair of end walls, each end wall including a pair of right guide paths configured to receive the guide rollers of the right facing spear bar assemblies and a pair of left guide paths configured to receive the guide rollers of the left facing spear bar assemblies.
An injection nozzle assembly for a turbomachine, the injection nozzle assembly being operatively connected to a combustor, and comprising: a cap member including a first surface that extends to a second surface; and a plurality of bundled mini-tube assemblies detachably mounted in respective ones of the plurality of openings in the cap member, each of the plurality of bundled mini-tube assemblies including a main body section including a first end section and a second end section, a fluid plenum arranged within the main body section, and a plurality of mini tubes extending between the first and second end sections (113, 114), each of the plurality of mini tubes including at least one opening (130, 134, 135) fluidly connected to the fluid plenum; characterized by a plurality of openings extending through the cap member, wherein the plurality of bundled mini-tube assemblies are detachably mounted in respective ones of the plurality of openings. a cap member including a first surface that extends to a second surface; and a plurality of bundled mini-tube assemblies detachably mounted in respective ones of the plurality of openings in the cap member, each of the plurality of bundled mini-tube assemblies including a main body section including a first end section and a second end section, a fluid plenum arranged within the main body section, and a plurality of mini tubes extending between the first and second end sections (113, 114), each of the plurality of mini tubes including at least one opening (130, 134, 135) fluidly connected to the fluid plenum; characterized by a plurality of openings extending through the cap member, wherein the plurality of bundled mini-tube assemblies are detachably mounted in respective ones of the plurality of openings.
A method comprising: - determining within an image a caption color, said caption color being the color most frequently present in said image; - generating a text string; and - displaying said image and said text string wherein said text string is displayed in said caption color over a portion of said image wherein said portion of said image has a color different from said caption color. - determining within an image a caption color, said caption color being the color most frequently present in said image; - generating a text string; and - displaying said image and said text string wherein said text string is displayed in said caption color over a portion of said image wherein said portion of said image has a color different from said caption color.
A unit-type strain wave gearing (1; 20; 40) comprising: a rigid internally toothed gear; a flexible externally toothed gear meshing with the internally toothed gear; a wave generator that causes the flexible externally toothed gear to flex into a non-circular shape and partially mesh with the internally toothed gear; a cylindrical unit housing to which a first gear is attached, the first gear being either one of the internally toothed gear and the externally toothed gear; an output member to which a second gear is attached, the second gear being the other one of the internally toothed gear and the externally toothed gear; and a sliding bearing (8, 9; 28, 29) that supports a fixed-side member and a rotating-side member so as to be capable of relative rotation, the fixed-side member comprising the unit housing and the first gear, and the rotating-side member comprising the output member and the second gear, the sliding bearing (8, 9; 28, 29) being provided with a fixed-side sliding bearing surface (8b, 9b; 28b, 29b) formed on the fixed-side member and a rotating-side sliding bearing surface (8c, 9c; 28c, 29c) that is formed on the rotating-side member and slidably contacts the fixed-side sliding bearing surface (8b, 9b; 28b, 29b); characterized in that the fixed-side sliding bearing surface (8b, 9b; 28b, 29b) is defined by a conic surface of which a center line is a center axis line of the unit housing; and the rotating-side sliding bearing surface (8c, 9c; 28c, 29c) is defined by a conic surface oriented in reverse of the fixed-side sliding bearing surface (8b, 9b; 28b, 29b). a rigid internally toothed gear; a flexible externally toothed gear meshing with the internally toothed gear; a wave generator that causes the flexible externally toothed gear to flex into a non-circular shape and partially mesh with the internally toothed gear; a cylindrical unit housing to which a first gear is attached, the first gear being either one of the internally toothed gear and the externally toothed gear; an output member to which a second gear is attached, the second gear being the other one of the internally toothed gear and the externally toothed gear; and a sliding bearing (8, 9; 28, 29) that supports a fixed-side member and a rotating-side member so as to be capable of relative rotation, the fixed-side member comprising the unit housing and the first gear, and the rotating-side member comprising the output member and the second gear, the sliding bearing (8, 9; 28, 29) being provided with a fixed-side sliding bearing surface (8b, 9b; 28b, 29b) formed on the fixed-side member and a rotating-side sliding bearing surface (8c, 9c; 28c, 29c) that is formed on the rotating-side member and slidably contacts the fixed-side sliding bearing surface (8b, 9b; 28b, 29b); characterized in that the fixed-side sliding bearing surface (8b, 9b; 28b, 29b) is defined by a conic surface of which a center line is a center axis line of the unit housing; and the rotating-side sliding bearing surface (8c, 9c; 28c, 29c) is defined by a conic surface oriented in reverse of the fixed-side sliding bearing surface (8b, 9b; 28b, 29b).
A dust collector, comprising: a housing configured to form an outer appearance of the dust collector; a cyclone formed inside the housing to cause a swirling flow to separate dust from air introduced into the housing; axial inlet type swirl tubes configured to receive air and fine dust that have passed through the cyclone, and cause a swirling flow to separate the fine dust from the air; and a mesh configured to surround an outside of the axial inlet type swirl tubes to form a boundary between the cyclone and the axial inlet type swirl tubes, wherein the axial inlet type swirl tubes are stacked in multiple stages, and the axial inlet type swirl tubes in each stage are radially arranged such that the inlet faces an inner surface of the mesh and the outlet faces the center of a region defined by the housing. a housing configured to form an outer appearance of the dust collector; a cyclone formed inside the housing to cause a swirling flow to separate dust from air introduced into the housing; axial inlet type swirl tubes configured to receive air and fine dust that have passed through the cyclone, and cause a swirling flow to separate the fine dust from the air; and a mesh configured to surround an outside of the axial inlet type swirl tubes to form a boundary between the cyclone and the axial inlet type swirl tubes, wherein the axial inlet type swirl tubes are stacked in multiple stages, and the axial inlet type swirl tubes in each stage are radially arranged such that the inlet faces an inner surface of the mesh and the outlet faces the center of a region defined by the housing.
A compound of Formula (Villa), or a pharmaceutically acceptable salt thereof: wherein: R is hydrogen, hydrocarbyl or substituted hydrocarbyl; R 1, R 2, R 3, and R 4 independently are hydrogen, halogen, OR 15, NO 2, NR 15 R 16, cyano, thiol, hydrocarbyl, substituted hydrocarbyl, or together R 2 and R 3 form {-}O(CH 2) n O{-}; R 5, R 7, and R 8, independently are hydrogen, halogen, OR 15, NO 2, NR 15 R 16, cyano, thiol, hydrocarbyl, or substituted hydrocarbyl; R 0, R 9, R 10, R 11, and R 12 independently are hydrogen, halogen, hydrocarbyl, or substituted hydrocarbyl; R 15 and R 16 independently are hydrogen, hydrocarbyl, or substituted hydrocarbyl; and n is an integer from 1 to 3. R is hydrogen, hydrocarbyl or substituted hydrocarbyl; R 1, R 2, R 3, and R 4 independently are hydrogen, halogen, OR 15, NO 2, NR 15 R 16, cyano, thiol, hydrocarbyl, substituted hydrocarbyl, or together R 2 and R 3 form {-}O(CH 2) n O{-}; R 5, R 7, and R 8, independently are hydrogen, halogen, OR 15, NO 2, NR 15 R 16, cyano, thiol, hydrocarbyl, or substituted hydrocarbyl; R 0, R 9, R 10, R 11, and R 12 independently are hydrogen, halogen, hydrocarbyl, or substituted hydrocarbyl; R 15 and R 16 independently are hydrogen, hydrocarbyl, or substituted hydrocarbyl; and n is an integer from 1 to 3.
A window leaf or door leaf having a glass element which comprises at least two glass panes held together by a spacer (17a, 17b) while forming an intermediate space (18a, 18b) between the panes, wherein means (37, 39, 40, 41, 45) for filling the intermediate space (18a, 18b) between the panes with a fluid and/or for draining a fluid from the intermediate space (18a, 18b) between the panes are provided at the spacer (17a, 17b) and at least one fluid refill container (37, 39) is provided which can be brought into fluid communication with the intermediate space (18a, 18b) between the panes and which includes a colored gas, characterized in that the fluid refill container (37, 39) is fastened to the spacer (17a, 17b).
Sheet-like construction element composed of composite material, comprising two metallic outer layers, a rigid polyurethane foam layer, and a compact polyurethane layer which comprises microcapsules with a capsule core composed of latent-heat-accumulator material, where the capsule wall of the microcapsules is composed of from 30 to 100% by weight of one or more monomers (monomers I) from the group comprising C 1 -C 24 -alkyl esters of acrylic and/or methacrylic acid, acrylic acid, methacrylic acid, and maleic acid, from 0 to 70% by weight of one or more bi- or polyfunctional monomers (monomers II) which have no or little solubility in water, and from 0 to 40% by weight of one or more other monomers (monomers III), based in each case on the total weight of the monomers.
A beamforming processing apparatus (202, 302, 1201) for a radio transmitter or receiver (200, 300) comprising an antenna array (215, 316), the beamforming processing apparatus (202, 302, 1201) comprising means for performing: maintaining (401, 701, 801), in a database, information on radiation properties of the antenna array (215, 316) and information on a probability density function for each of one or more positions of one or more target devices, wherein the radiation properties of the antenna array (215, 316) comprise sets of values of one or more beam parameters defining a shape of each beam producible by the antenna array (215, 316) and a two-dimensional or three-dimensional beam gain function defined to depend on the one or more beam parameters; characterized by: calculating (402, 703, 804), for each set of values of the one or more beam parameters, one or more cumulative distribution functions of a beam gain based on the one or more probability density functions and the beam gain function; and calculating (403, 704, 805) one or more optimal values of the one or more beam parameters defining an optimal beam by maximizing a first optimization parameter defined based on the one or more cumulative distribution functions subject to a pre-defined minimum value of a second optimization parameter. maintaining (401, 701, 801), in a database, information on radiation properties of the antenna array (215, 316) and information on a probability density function for each of one or more positions of one or more target devices, wherein the radiation properties of the antenna array (215, 316) comprise sets of values of one or more beam parameters defining a shape of each beam producible by the antenna array (215, 316) and a two-dimensional or three-dimensional beam gain function defined to depend on the one or more beam parameters; characterized by: calculating (402, 703, 804), for each set of values of the one or more beam parameters, one or more cumulative distribution functions of a beam gain based on the one or more probability density functions and the beam gain function; and calculating (403, 704, 805) one or more optimal values of the one or more beam parameters defining an optimal beam by maximizing a first optimization parameter defined based on the one or more cumulative distribution functions subject to a pre-defined minimum value of a second optimization parameter. calculating (402, 703, 804), for each set of values of the one or more beam parameters, one or more cumulative distribution functions of a beam gain based on the one or more probability density functions and the beam gain function; and calculating (403, 704, 805) one or more optimal values of the one or more beam parameters defining an optimal beam by maximizing a first optimization parameter defined based on the one or more cumulative distribution functions subject to a pre-defined minimum value of a second optimization parameter.
A ceiling mounted SCARA robot comprising: a first member; an articulated arm comprising - a first arm portion that is turnably provided on the first member via a first joint portion, and - a second arm portion that is turnably provided on the first arm portion via a second joint portion; and a relay cable that is inserted into the first armportion and the second arm portion; characterized in that the robot further includes a plurality of connector portions (31a, 31b) that are electrically connected to the relay cable, wherein a first connector portion is provided on a side surface of the second arm portion, and a second connector portion is provided on a bottom surface of the second arm portion in the direction of gravity, wherein the first connector portion is configured to be connected to a first external device provided on the articulated arm, and the second connector portion is configured to be connected to a second external device provided on the articulated arm. a first member; an articulated arm comprising - a first arm portion that is turnably provided on the first member via a first joint portion, and - a second arm portion that is turnably provided on the first arm portion via a second joint portion; and - a first arm portion that is turnably provided on the first member via a first joint portion, and - a second arm portion that is turnably provided on the first arm portion via a second joint portion; and a relay cable that is inserted into the first armportion and the second arm portion; characterized in that the robot further includes a plurality of connector portions (31a, 31b) that are electrically connected to the relay cable, wherein a first connector portion is provided on a side surface of the second arm portion, and a second connector portion is provided on a bottom surface of the second arm portion in the direction of gravity, wherein the first connector portion is configured to be connected to a first external device provided on the articulated arm, and the second connector portion is configured to be connected to a second external device provided on the articulated arm.
Patch panel, comprising a box-shaped structure made up of a lower wall, an upper wall, and two side walls, comprising a sliding tray along said lower wall of said box-shaped structure, a front panel suited to be secured to said sliding tray characterized in that said front panel consists of an L-shaped profile having two orthogonal walls (C1, C2) which join together along a common longer edge (Cm), and where on each of said two walls (C1, C2) of said front panel there are holes or openings (Cv', Cv") for screws (Va, Vb) or other elements to secure it to said tray and to the side walls of the box-shaped structure, and where on each of the two walls (C1, C2) of said front panel there are holes or openings (Cp', Cp") suited to house sockets and/or adapters, and where said front panel can be secured to said sliding tray so that one of the walls (C1, C2) of said front panel is adherent to said sliding tray and the other of the walls (C2, C1) of said front panel is orthogonal to the sliding tray and closes the front opening of the box structure when said sliding tray is completely inserted in the box-shaped structure, and wherein said front panel is selectively installable in two different positions, where one of said wall or the other of said wall is arranged orthogonal to the sliding tray.
A thermoplastic elastomer composition comprising 10 to 80 parts by mass of polyolefin resin, 10 to 80 parts by mass of styrene-based thermoplastic elastomer, and 1 to 20 parts by mass of at least partially crosslinked rubber (with the total amount of the components, and being 100 parts by mass), wherein the composition has a type D hardness (i.e., the instantaneous value) of 35 or more and 70 or less in accordance with JIS K6253.
An insulated wire, comprising: a conductor; and a cover layer arranged around the conductor, wherein the cover layer comprises a semiconducting layer, a high-electrical insulating layer and a flame-retardant layer, wherein the semiconducting layer is arranged around the conductor and comprises a polymer composition comprising a conductive agent and having a volume resistivity of not more than 1x10 9 Ωcm, wherein the high-electrical insulating layer is arranged around the semiconducting layer and comprises a polymer composition having a volume resistivity of not less than 1x10 16 Ωcm, wherein the flame-retardant layer is arranged at least around the high-electrical insulating layer and comprises a polymer composition comprising a flame retardant, and wherein the thickness of the high-electrical insulating layer and the thickness of the semiconducting layer are each smaller than the thickness of the flame-retardant layer. a conductor; and a cover layer arranged around the conductor, wherein the cover layer comprises a semiconducting layer, a high-electrical insulating layer and a flame-retardant layer, wherein the semiconducting layer is arranged around the conductor and comprises a polymer composition comprising a conductive agent and having a volume resistivity of not more than 1x10 9 Ωcm, wherein the high-electrical insulating layer is arranged around the semiconducting layer and comprises a polymer composition having a volume resistivity of not less than 1x10 16 Ωcm, wherein the flame-retardant layer is arranged at least around the high-electrical insulating layer and comprises a polymer composition comprising a flame retardant, and wherein the thickness of the high-electrical insulating layer and the thickness of the semiconducting layer are each smaller than the thickness of the flame-retardant layer.