mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal comprising: a body; a display coupled to the body to vary a display region viewed from a front of the body according to switching between an enlarged display mode and a reduced display mode; an input unit configured to sense user input; and a controller, wherein the controller is configured to: output a navigation bar on the display in the enlarged display mode, the navigation bar including at least one indicator, control a first application among at least one application which is being output in the enlarged display mode according to an input signal of selecting the indicator, control change of a layout of the at least one application (1320, 1330, 1340) which is being output in the enlarged display mode according to an input signal of selecting a first indicator, and control output of a focusing indicator (1110, 1360) by applying the changed layout to the focusing indicator (1110, 1360) based on change of the layout of the at least one application. a body; a display coupled to the body to vary a display region viewed from a front of the body according to switching between an enlarged display mode and a reduced display mode; an input unit configured to sense user input; and a controller, wherein the controller is configured to: output a navigation bar on the display in the enlarged display mode, the navigation bar including at least one indicator, control a first application among at least one application which is being output in the enlarged display mode according to an input signal of selecting the indicator, control change of a layout of the at least one application (1320, 1330, 1340) which is being output in the enlarged display mode according to an input signal of selecting a first indicator, and control output of a focusing indicator (1110, 1360) by applying the changed layout to the focusing indicator (1110, 1360) based on change of the layout of the at least one application. output a navigation bar on the display in the enlarged display mode, the navigation bar including at least one indicator, control a first application among at least one application which is being output in the enlarged display mode according to an input signal of selecting the indicator, control change of a layout of the at least one application (1320, 1330, 1340) which is being output in the enlarged display mode according to an input signal of selecting a first indicator, and control output of a focusing indicator (1110, 1360) by applying the changed layout to the focusing indicator (1110, 1360) based on change of the layout of the at least one application.
A pharmaceutical composition comprising cancer cells secreting a modified heat shock protein for use in the treatment of cancer in a subject, wherein the cancer cells are allogeneic to the subject, wherein the modified heat shock protein has been modified to at least remove a domain of native gp96 that contains a retention signal for endoplasmic reticulum, and wherein the composition is to be administered to the subject: (i) as a dosage at least once per week, at least nine times over a period from one to six months; and (ii) following (i), administering the subject a booster of the composition at least once per month for one to two years.
An apparatus comprising: an elongated assembly, at least a portion of which is sized, shaped, or otherwise configured to be inserted into a human body to measure a pressure at an internal location within the body, wherein the elongated assembly includes: a guidewire (1302; 1402); an optical fiber (1304; 1404), extending longitudinally along the guidewire, the optical fiber configured to communicate light between a location outside of the body and a portion of the optical fiber that is to be located at or near the internal location within the body at which the pressure is to be measured and at least one optical fiber pressure sensor configured to be located on the elongated assembly to allow positioning at or near the internal location within the body at which pressure is to be measured, the optical fiber being attached to the optical fiber pressure sensor; wherein at least a portion of the guidewire defines a longitudinal optical fiber carrier that extends longitudinally along at least a portion of the length of the guidewire, wherein the optical fiber carrier is a groove (1306; 1406) in the guidewire; the optical fiber being disposed in the groove. a guidewire (1302; 1402); an optical fiber (1304; 1404), extending longitudinally along the guidewire, the optical fiber configured to communicate light between a location outside of the body and a portion of the optical fiber that is to be located at or near the internal location within the body at which the pressure is to be measured and at least one optical fiber pressure sensor configured to be located on the elongated assembly to allow positioning at or near the internal location within the body at which pressure is to be measured, the optical fiber being attached to the optical fiber pressure sensor; wherein at least a portion of the guidewire defines a longitudinal optical fiber carrier that extends longitudinally along at least a portion of the length of the guidewire, wherein the optical fiber carrier is a groove (1306; 1406) in the guidewire; the optical fiber being disposed in the groove.
Process for manufacturing a powder of mixed yttrium and titanium oxide, the process comprising the following successive steps: a) agitating a precursor solution to obtain a sol-gel solution; the precursor solution comprising a precursor of yttrium, a precursor of titanium and at least one additional compound acting as absorbent of laser radiation and/or solvent; the precursors being such that at least one thereof contains the element oxygen and they are contained in the precursor solution in a concentration such that the molar ratio between the yttrium and titanium elements corresponds to the stoichiometric ratio of these elements in said mixed oxide powder; b) laser pyrolysis of the sol-gel solution to obtain a carbon powder comprising grains of mixed ytrrium and titanium oxide coated with a carbon layer; c) additional heat treatment of said carbon powder in an carbon-oxidizing atmosphere, to remove the carbon layer and obtain said mixed oxide powder. a) agitating a precursor solution to obtain a sol-gel solution; the precursor solution comprising a precursor of yttrium, a precursor of titanium and at least one additional compound acting as absorbent of laser radiation and/or solvent; the precursors being such that at least one thereof contains the element oxygen and they are contained in the precursor solution in a concentration such that the molar ratio between the yttrium and titanium elements corresponds to the stoichiometric ratio of these elements in said mixed oxide powder; b) laser pyrolysis of the sol-gel solution to obtain a carbon powder comprising grains of mixed ytrrium and titanium oxide coated with a carbon layer; c) additional heat treatment of said carbon powder in an carbon-oxidizing atmosphere, to remove the carbon layer and obtain said mixed oxide powder.
A production method of a lipophilic bioactive substance, comprising mixing an aqueous suspension of microbial cells containing a lipophilic bioactive substance or a microbial cell homogenate thereof with an organic solvent in the presence of at least one kind of non-ionic surfactant selected from the group consisting of polyoxyethylene-polyoxypropylene block copolymer surfactants, sucrose fatty acid esters, glycerol fatty acid esters, sorbitan fatty acid esters, polyetherpolyol surfactants, polyoxyethylene alkyl ether surfactants and alkylether surfactants, and extracting the lipophilic bioactive substance, wherein the amount of the non-ionic surfactant to be added is within the range of 0.01 - 10 wt% of the aqueous suspension of the microbial cell or microbial cell homogenate, wherein the lipophilic bioactive substance is selected from coenzyme Qs, vitamins, carotenoids, liposoluble polyphenols, flavonoids, sterols, α-lipoic acid and L-carnitine, and wherein the organic solvent is a solvent containing a hydrophobic organic solvent or a hydrophobic organic solvent.
A mobile working machine, in particular an automotive concrete pump, having a carrying structure, which is fixed to a vehicle, in particular for a concrete distributor boom, and at least two support legs that are hinge-jointed to the carrying structure via a respective hinge point, wherein each hinge point comprises two bearing plates made from solid material, each provided with a bearing bore and projecting in a forked manner at a lateral distance from each other over the edge of a delimiting wall of the carrying structure, and a hinge pin extending vertically through the mutually aligned bearing bores, wherein the delimiting wall facing toward the hinge pin has a greater distance from the axis of the hinge pin in its middle region, between the bearing plates, than in its edge regions that are adjacent to the bearing plates, characterized in that the delimiting wall has two wall parts (32', 32") that taper toward each other at an obtuse angle, wherein the wall parts delimit a free space that is triangular in cross-section.
A method for producing composite elements comprising the application of liquid reaction mixtures to an outer layer by means of an applicator, the outer layer being continuously moved and the applicator comprising at least one pipe a), which is provided with a feed for the liquid reaction mixture and openings b) in the direction of the outer layer and which is provided above the outer layer parallel to the plane of the outer layer and at right angles to the direction of movement of the outer layer, wherein the outer 1 to 4 openings b), which are located above the edge of the outer layer, are provided at an angle of 1 to 50° in the direction of the edge of the outer layer.
A saddle hanger for connecting at least one bracing member to a truss chord, the saddle hanger comprising: a base having a first end portion sized and shaped for receiving an end of a bracing member thereon, and an adjacent portion sized and shaped for receiving the truss chord thereon, the base having opposite side edges extending along the first end portion and the adjacent portion, the first end portion having a transverse edge remote from the adjacent portion and extending between the side edges; and a plurality of flanges extending upward from the side edges of the base, at least some of the flanges defining with the base a channel (44, 46) for receiving one of the truss chord and bracing member; characterized by a projecting element having a width less than a distance between the opposite side edges at the first end portion and projecting outward from the remainder of the transverse edge of the first end portion. a base having a first end portion sized and shaped for receiving an end of a bracing member thereon, and an adjacent portion sized and shaped for receiving the truss chord thereon, the base having opposite side edges extending along the first end portion and the adjacent portion, the first end portion having a transverse edge remote from the adjacent portion and extending between the side edges; and a plurality of flanges extending upward from the side edges of the base, at least some of the flanges defining with the base a channel (44, 46) for receiving one of the truss chord and bracing member; characterized by a projecting element having a width less than a distance between the opposite side edges at the first end portion and projecting outward from the remainder of the transverse edge of the first end portion.
A method for an operating environment, the operating environment comprising a server and an archive, the server having implemented a reconciliation agent and a journaling agent, the method comprising: receiving, by the reconciliation agent, a copy of a journal report from the journaling agent, the copy of the journal report comprising a message to be reconciled corresponding to a message sent by the journaling agent to the archive for storage; categorizing, by the reconciliation agent, the received message for reconciliation based on a plurality of time intervals, wherein the time intervals comprise one or more of a time interval corresponding to a latency associated with the archive, a time interval when a copy of the message to be reconciled is available in a local cache, and a time interval for resolving message delays; and issuing, by the reconciliation agent, a delivery confirmation query to the archive according to categorization of the message for reconciliation, wherein the delivery confirmation query is issued when the latency associated with the archive has elapsed and during the time interval while the copy of the message is available from the cache, and wherein when a negative response is received, delaying a retry query until the time interval for resolving message delays has elapsed; the method further comprising: maintaining the message to be reconciled in a local message store; and deleting the message to be reconciled from the local message store after receiving a positive response to the delivery confirmation query. receiving, by the reconciliation agent, a copy of a journal report from the journaling agent, the copy of the journal report comprising a message to be reconciled corresponding to a message sent by the journaling agent to the archive for storage; categorizing, by the reconciliation agent, the received message for reconciliation based on a plurality of time intervals, wherein the time intervals comprise one or more of a time interval corresponding to a latency associated with the archive, a time interval when a copy of the message to be reconciled is available in a local cache, and a time interval for resolving message delays; and issuing, by the reconciliation agent, a delivery confirmation query to the archive according to categorization of the message for reconciliation, wherein the delivery confirmation query is issued when the latency associated with the archive has elapsed and during the time interval while the copy of the message is available from the cache, and wherein when a negative response is received, delaying a retry query until the time interval for resolving message delays has elapsed; the method further comprising: maintaining the message to be reconciled in a local message store; and deleting the message to be reconciled from the local message store after receiving a positive response to the delivery confirmation query. maintaining the message to be reconciled in a local message store; and deleting the message to be reconciled from the local message store after receiving a positive response to the delivery confirmation query.
A fluid jet system (200, 500, 600, 700), comprising: a high-pressure body (202, 602) including a high-pressure bore (308, 508, 608) having an upstream portion (312, 512) axially positioned and a downstream portion (314, 514) coaxially positioned with the upstream portion; and a downstream fluid jet passageway (208, 528, 628) coaxially positioned with the high-pressure bore; and an orifice mount assembly (206, 506, 706) comprising an orifice mount including an upstream surface having a recess; and an orifice mounted in the recess, the orifice including an orifice opening, the orifice opening located proximate the downstream portion of the high-pressure bore when the orifice mount assembly is positioned in the mounting chamber, and furthermore comprising a mounting chamber (216, 616) positioned between the downstream portion (314, 514) of the high-pressure bore and the downstream fluid jet passageway (208, 528, 628), and wherein the orifice mount assembly further comprises a fluid jet passageway (412, 416) configured to extend between the orifice opening and the downstream fluid jet passageway (208, 528, 628) when the orifice mount assembly (206, 506, 706) is positioned in the mounting chamber (216, 616), characterized in that the mounting chamber is configured to laterally receive the orifice mount assembly (206, 506, 706) without application of a torque. a high-pressure body (202, 602) including a high-pressure bore (308, 508, 608) having an upstream portion (312, 512) axially positioned and a downstream portion (314, 514) coaxially positioned with the upstream portion; and a downstream fluid jet passageway (208, 528, 628) coaxially positioned with the high-pressure bore; and an orifice mount assembly (206, 506, 706) comprising an orifice mount including an upstream surface having a recess; and an orifice mounted in the recess, the orifice including an orifice opening, the orifice opening located proximate the downstream portion of the high-pressure bore when the orifice mount assembly is positioned in the mounting chamber, and furthermore comprising a mounting chamber (216, 616) positioned between the downstream portion (314, 514) of the high-pressure bore and the downstream fluid jet passageway (208, 528, 628), and wherein the orifice mount assembly further comprises a fluid jet passageway (412, 416) configured to extend between the orifice opening and the downstream fluid jet passageway (208, 528, 628) when the orifice mount assembly (206, 506, 706) is positioned in the mounting chamber (216, 616), characterized in that the mounting chamber is configured to laterally receive the orifice mount assembly (206, 506, 706) without application of a torque.
A system for depositing a layer on a substrate, the system comprising: a processing chamber defining a gas inlet for introducing gas into the processing chamber and a gas outlet to allow the gas to exit the processing chamber; a substrate support positioned within the processing chamber and configured to receive a substrate; and an upper window comprising: a frame for attaching the window to the processing chamber; and a transparent body connected to the frame, the body extending between a convex first face and an opposed second face, the first face including a radially outer surface and a radially inner surface circumscribed within the outer surface, the outer surface extending radially from the frame to the inner surface and the inner surface extending radially inward from the outer surface to a radial center of the window, characterized in that the outer surface having a first radius of curvature and the inner surface having a second radius of curvature different from the first radius of curvature, the convex first face being spaced from the substrate support to define an air gap therebetween, and the upper window being positioned within the processing chamber to direct the gas from the gas inlet, through the air gap, and to the gas outlet. a processing chamber defining a gas inlet for introducing gas into the processing chamber and a gas outlet to allow the gas to exit the processing chamber; a substrate support positioned within the processing chamber and configured to receive a substrate; and an upper window comprising: a frame for attaching the window to the processing chamber; and a transparent body connected to the frame, the body extending between a convex first face and an opposed second face, the first face including a radially outer surface and a radially inner surface circumscribed within the outer surface, the outer surface extending radially from the frame to the inner surface and the inner surface extending radially inward from the outer surface to a radial center of the window, characterized in that the outer surface having a first radius of curvature and the inner surface having a second radius of curvature different from the first radius of curvature, a frame for attaching the window to the processing chamber; and a transparent body connected to the frame, the body extending between a convex first face and an opposed second face, the first face including a radially outer surface and a radially inner surface circumscribed within the outer surface, the outer surface extending radially from the frame to the inner surface and the inner surface extending radially inward from the outer surface to a radial center of the window, characterized in that the outer surface having a first radius of curvature and the inner surface having a second radius of curvature different from the first radius of curvature, the convex first face being spaced from the substrate support to define an air gap therebetween, and the upper window being positioned within the processing chamber to direct the gas from the gas inlet, through the air gap, and to the gas outlet.
An automatic dishwashing detergent composition, which comprises: - a polyalkyleneimine and/or a salt or derivative thereof, wherein the polyalkyleneimine comprises a polyethyleneimine; and - at least one amphoteric polymer, wherein the at least one amphoteric polymer is a hydrophilic polymer, wherein the hydrophilic polymer is an aqueous based acrylic acid amine-functional polymer. - a polyalkyleneimine and/or a salt or derivative thereof, wherein the polyalkyleneimine comprises a polyethyleneimine; and - at least one amphoteric polymer, wherein the at least one amphoteric polymer is a hydrophilic polymer, wherein the hydrophilic polymer is an aqueous based acrylic acid amine-functional polymer.
Method for the handling and / or marketing of item that are delivered by at least one first actor, such as supplier, to a receiving unit of a warehouse, wherein an individual identification is assigned to the item, wherein the item, using a handling system integrated in the warehouse, is automatically receive through the receiving unit and stored in a storage area of the warehouse and wherein the item, after entering the individual identification by at least one second actor or after identification of the at least one second actor, is automatically delivered from the storage area by means of the handling system to a discharge unit and is take out from the warehouse by the at least one second actor, such as a taker or customer, characterized in, that the assignment of the individual identification to the item occurs by recording the item or a coding of the item during the automated receiving, by an input from the first actor or by generating from the warehouse, wherein the item is assigned via the individual identification an information about a storage temperature, that a warehouse is used in which the storage area has different air conditioning zones, one of the air conditioning zones is a deep-freeze zone, that the item is automatically stored by means of a storage robot of the handling system according to the storage temperature assigned to the item in one of the air conditioning zones of the storage area and that the item via the individual identification information about a best before date or expiry date is assigned, wherein the item is relocated using the storage robot automatically according to previously defined process steps in the deep-freeze zone before the expiry date or expiry date expires.