mhurhangee/ep-ind-claims huggingface dataset:
A turbine engine comprising: a compressor section having a first compressor portion and a second compressor portion, wherein the second compressor portion is a high pressure compressor relative to the first compressor portion; a combustor in fluid communication with the compressor section; a turbine section in fluid communication with the combustor; a gas path passing through each of said compressor section, said combustor, and said turbine section, the second compressor portion further including an exit guide vane at an aftmost edge, relative to gas flow through the gas path, of the second compressor portion; and an inner diffuser case including a diffuser case strut positioned in said gas path aft of said exit guide vane, wherein said diffuser case strut includes at least a first direct feed passage connected on a first end to a cooled air system and on a second end to a direct air feed, wherein said direct air feed delivers air to at least one of a compressor rim and an aftmost compressor stage of said second compressor portion, characterized by: said diffuser case strut further comprising a second direct feed passage including a first end opening to the cooled air system and a second end opening to a tangential onboard injection (TOBI) system. a compressor section having a first compressor portion and a second compressor portion, wherein the second compressor portion is a high pressure compressor relative to the first compressor portion; a combustor in fluid communication with the compressor section; a turbine section in fluid communication with the combustor; a gas path passing through each of said compressor section, said combustor, and said turbine section, the second compressor portion further including an exit guide vane at an aftmost edge, relative to gas flow through the gas path, of the second compressor portion; and an inner diffuser case including a diffuser case strut positioned in said gas path aft of said exit guide vane, wherein said diffuser case strut includes at least a first direct feed passage connected on a first end to a cooled air system and on a second end to a direct air feed, wherein said direct air feed delivers air to at least one of a compressor rim and an aftmost compressor stage of said second compressor portion, characterized by: said diffuser case strut further comprising a second direct feed passage including a first end opening to the cooled air system and a second end opening to a tangential onboard injection (TOBI) system.
A pharmaceutically acceptable salt of indoximod, having the structure of Formula 1a: wherein A -p is an anion selected from the group consisting of HPO 4 2- (hemi-phosphate), HSO 4 - (hydrogen sulfate), and CH 3 S(O 2)O - (mesylate), wherein the ionization state - p is -1 or -2 and the stoichiometric ratio n is 1 or 1⁄2, respectively, such that the stoichiometric conditions of charge neutrality are satisfied.
A method of data networking in a hybrid fiber coax network, comprising: receiving a forward baseband digital optical signal from an optical fiber at a forward baseband digital optical signal receiver; transforming the forward baseband digital signal to a forward analog electrical signal using a forward circuit (2100, 2110, 2120); transmitting the forward analog electrical signal on an electrical conductor using a forward analog electrical signal transmitter; receiving a reverse analog electrical signal on the electrical conductor using a reverse analog electrical signal receiver; converting the reverse analog electrical signal to a reverse digital baseband signal using a reverse circuit (2110, 2160, 2170); and transmitting the reverse digital baseband signal using a reverse baseband digital optical transmitter, characterized by i) baseband/wideband converting the forward baseband digital signal to the forward analog electrical signal in a plurality of frequency octaves and ii) combining a first sub-divided portion and a second subdivided portion from the forward baseband digital signal, wherein the forward digital bandwidth is reduced by processing at least one of the first sub-divided portion and the second subdivided portion by utilizing at least one of under sampling and space division multiplexing and wherein at least one of the first sub-divided portion and the second subdivided portion are equal to a bandwidth of the reverse digital baseband signal. receiving a forward baseband digital optical signal from an optical fiber at a forward baseband digital optical signal receiver; transforming the forward baseband digital signal to a forward analog electrical signal using a forward circuit (2100, 2110, 2120); transmitting the forward analog electrical signal on an electrical conductor using a forward analog electrical signal transmitter; receiving a reverse analog electrical signal on the electrical conductor using a reverse analog electrical signal receiver; converting the reverse analog electrical signal to a reverse digital baseband signal using a reverse circuit (2110, 2160, 2170); and transmitting the reverse digital baseband signal using a reverse baseband digital optical transmitter, characterized by i) baseband/wideband converting the forward baseband digital signal to the forward analog electrical signal in a plurality of frequency octaves and ii) combining a first sub-divided portion and a second subdivided portion from the forward baseband digital signal, wherein the forward digital bandwidth is reduced by processing at least one of the first sub-divided portion and the second subdivided portion by utilizing at least one of under sampling and space division multiplexing and wherein at least one of the first sub-divided portion and the second subdivided portion are equal to a bandwidth of the reverse digital baseband signal.
A method for depositing a material on a surface of a wafer, comprising: applying an electroless plating solution to the surface of the wafer, the electroless plating solution being maintained at a temperature at which a plating reaction does not readily occur; and exposing the surface of the wafer to radiant energy; and controlling a wavelength of the radiant energy to cause preferential excitation of atoms/molecules of a particular material at a surface of the wafer upon which the radiant energy is incident without exciting atoms/molecules of different surrounding materials, wherein selective absorption of the radiant energy by the particular material causes a temperature of the particular material to be increased to a state at which a plating reaction selectively occurs on the particular material without occurring on the different surrounding materials. applying an electroless plating solution to the surface of the wafer, the electroless plating solution being maintained at a temperature at which a plating reaction does not readily occur; and exposing the surface of the wafer to radiant energy; and controlling a wavelength of the radiant energy to cause preferential excitation of atoms/molecules of a particular material at a surface of the wafer upon which the radiant energy is incident without exciting atoms/molecules of different surrounding materials, wherein selective absorption of the radiant energy by the particular material causes a temperature of the particular material to be increased to a state at which a plating reaction selectively occurs on the particular material without occurring on the different surrounding materials.
Resist structure for producing an X-ray optical grating structure, comprising a substrate, a plurality of webs with a height h and a width b, as well as web gaps with a width b', and the bars stabilising the webs, with a circumcircle diameter d, wherein the webs and the bars stabilising the webs are arranged on the substrate, characterised in that the webs are arranged at an angle α on the substrate, and the bars stabilising the webs are arranged at an angle β, wherein the angles α and β are not the same, and in that in a web gap of the resist structure, and therefore in the later webs of the X-ray optical grating structure, which exhibit a grating height which corresponds to the height of a material to be cut off in the web gaps, the total height of the stabilising beams amounts to maximum 20% of the grating height, and in that each stabilising bar penetrates through at least two webs.
A heat resistant titanium alloy material for exhaust system parts which is excellent in oxidation resistance characterized by consisting of, by mass%, Cu: 0.5 to 1.5%, Sn: 0.5 to 1.5%, Si: over 0.1% to not more than 0.6%, and O: 0.1% or less, a total of the contents of Cu and Sn being 1.4 to 2.7%, and optionally Nb: 0.1 to 1.0%, and having a balance of Ti and unavoidable impurities.
A safety bottle filled with liquid substance,, for safe storing and applying of the liquid substance, comprising a bottle neck, a finishing edge as a bed for a sealing ring and a childproof closure with an outer cap and an inner cap, wherein the childproof closure is connected with a facility for applying the liquid substance and the safety bottle comprises a protective element in the form of a conical tube which into the direction of the bottom of the bottle is tapered and comprises a lower end, wherein the facility for applying the liquid substance passes through the protective element, wherein the liquid substance in the safety bottle is present in such an amount that independent of the orientation of the safety bottle in the space the filling level is always below the lower end of the protective element, characterized in that the liquid substance is an etching substance, namely an acid or a base.
A building material formulation used to form a building product, comprising: an hydraulic binder, wherein the hydraulic binder comprises 28.7% of the formulation by weight and wherein the hydraulic binder is Portland cement; an aggregate, wherein the aggregate comprises 50.3% of the formulation by weight and wherein the aggregate is a silica aggregate; cellulose fibers, wherein the cellulose fibers comprise 7.0% of the formulation by weight; an additive, wherein the additive comprises 4.0% of the formulation by weight and wherein the additive is a metal hydroxide; and hollow ceramic microspheres at 10.0% of the formulation by weight, wherein the microspheres lower the density of the material to 1.16 g/cm 3 and wherein the microspheres reduce moisture expansion of the material by about 5% or more as compared with a similar formulation without microspheres. an hydraulic binder, wherein the hydraulic binder comprises 28.7% of the formulation by weight and wherein the hydraulic binder is Portland cement; an aggregate, wherein the aggregate comprises 50.3% of the formulation by weight and wherein the aggregate is a silica aggregate; cellulose fibers, wherein the cellulose fibers comprise 7.0% of the formulation by weight; an additive, wherein the additive comprises 4.0% of the formulation by weight and wherein the additive is a metal hydroxide; and hollow ceramic microspheres at 10.0% of the formulation by weight, wherein the microspheres lower the density of the material to 1.16 g/cm 3 and wherein the microspheres reduce moisture expansion of the material by about 5% or more as compared with a similar formulation without microspheres.
An optical circuit comprising: a transparent plate which is light-transmittable; and a light shielding plate which has an opening through which incident light passes, characterized in that the light shielding plate has, on the side opposite to the transparent plate, projections in an overhang shape toward the center of the opening in the opening; and in that the light shielding plate is adhered to the transparent plate with an adhesive. a transparent plate which is light-transmittable; and a light shielding plate which has an opening through which incident light passes, the light shielding plate has, on the side opposite to the transparent plate, projections in an overhang shape toward the center of the opening in the opening; and in that the light shielding plate is adhered to the transparent plate with an adhesive.
A pilot burner for a combustor, the pilot burner comprising: an inner conduit configured to deliver a fuel; an outer conduit concentric with the inner conduit and configured to deliver air; an end plate including a plurality of openings (260, 262, 264) in fluid communication with a burner interior; an inner wall defining an inner plenum; a partition wall radially outward of the inner wall and defining an intermediate plenum with at least a portion of the inner wall, the inner wall including a plurality of exit passages for fluidly coupling the inner plenum to the intermediate plenum; an outer wall defining an outer plenum with at least a portion of the partition wall; a crossover section in fluid communication with the inner and outer conduit (222, 224), the crossover section including a first plurality of passages fluidly coupling the inner conduit to the outer plenum and a second plurality of passages fluidly coupling the outer conduit to the inner plenum; and wherein the plurality of openings (260, 262, 264) of the end plate include a set of fuel exit openings in fluid communication with the outer plenum, a set of air exit openings (262A, 262A-B) adjacent the set of fuel exit openings and in fluid communication with the intermediate plenum, and a set of cooling openings in fluid communication with the inner plenum. an inner conduit configured to deliver a fuel; an outer conduit concentric with the inner conduit and configured to deliver air; an end plate including a plurality of openings (260, 262, 264) in fluid communication with a burner interior; an inner wall defining an inner plenum; a partition wall radially outward of the inner wall and defining an intermediate plenum with at least a portion of the inner wall, the inner wall including a plurality of exit passages for fluidly coupling the inner plenum to the intermediate plenum; an outer wall defining an outer plenum with at least a portion of the partition wall; a crossover section in fluid communication with the inner and outer conduit (222, 224), the crossover section including a first plurality of passages fluidly coupling the inner conduit to the outer plenum and a second plurality of passages fluidly coupling the outer conduit to the inner plenum; and wherein the plurality of openings (260, 262, 264) of the end plate include a set of fuel exit openings in fluid communication with the outer plenum, a set of air exit openings (262A, 262A-B) adjacent the set of fuel exit openings and in fluid communication with the intermediate plenum, and a set of cooling openings in fluid communication with the inner plenum.
A vehicle seat with a side airbag apparatus, comprising: an outer side frame disposed in an outer side portion on a seat back in a vehicle-width direction, the outer side frame including a side wall portion extending in a vehicle front-rear direction; an inflator attached to the outer side frame; and a side airbag that stores the inflator, wherein: the side airbag includes a partition portion that partitions the side airbag into a front chamber and a rear chamber; the partition portion includes a communication port; characterized in that the inflator is stored in the rear chamber such that the rear chamber is configured to inflate and deploy faster at a higher pressure than the front chamber; the side airbag is stored in the side portion in a state in which the side airbag straddles the outer side frame from a vehicle front side in the vehicle-width direction and a portion of the side airbag including the front chamber is folded outward of the outer side frame in the vehicle-width direction; and the inflator is attached to the outer side frame on a seated occupant side in the vehicle-width direction and is disposed inward of the side wall portion in the seat width direction. an outer side frame disposed in an outer side portion on a seat back in a vehicle-width direction, the outer side frame including a side wall portion extending in a vehicle front-rear direction; an inflator attached to the outer side frame; and a side airbag that stores the inflator, wherein: the side airbag includes a partition portion that partitions the side airbag into a front chamber and a rear chamber; the partition portion includes a communication port; characterized in that the inflator is stored in the rear chamber such that the rear chamber is configured to inflate and deploy faster at a higher pressure than the front chamber; the side airbag is stored in the side portion in a state in which the side airbag straddles the outer side frame from a vehicle front side in the vehicle-width direction and a portion of the side airbag including the front chamber is folded outward of the outer side frame in the vehicle-width direction; and the inflator is attached to the outer side frame on a seated occupant side in the vehicle-width direction and is disposed inward of the side wall portion in the seat width direction. the side airbag includes a partition portion that partitions the side airbag into a front chamber and a rear chamber; the partition portion includes a communication port; characterized in that the inflator is stored in the rear chamber such that the rear chamber is configured to inflate and deploy faster at a higher pressure than the front chamber; the side airbag is stored in the side portion in a state in which the side airbag straddles the outer side frame from a vehicle front side in the vehicle-width direction and a portion of the side airbag including the front chamber is folded outward of the outer side frame in the vehicle-width direction; and the inflator is attached to the outer side frame on a seated occupant side in the vehicle-width direction and is disposed inward of the side wall portion in the seat width direction.
A robotic manipulator, comprising: a base; a first segment; a first joint operatively coupling the base and the first segment, wherein the first joint is configured to rotate the first segment about at least two axes of rotation with respect to the base; a second segment; and a second joint operatively coupling the first segment and the second segment, wherein the second joint is configured to rotate the second segment about at least one axis of rotation with respect to the first segment; wherein at least one of the first segment or the second segment has a curved shape, characterised in that the first joint and the second joint are continuous rotation joints. a base; a first segment; a first joint operatively coupling the base and the first segment, wherein the first joint is configured to rotate the first segment about at least two axes of rotation with respect to the base; a second segment; and a second joint operatively coupling the first segment and the second segment, wherein the second joint is configured to rotate the second segment about at least one axis of rotation with respect to the first segment; wherein at least one of the first segment or the second segment has a curved shape, characterised in that the first joint and the second joint are continuous rotation joints.
A method for image processing, comprising the following steps of: receiving an image and a specification of a spatially varying distribution of a noise signal level across different locations in the image; segmenting the image for a model, wherein the segmentation step includes an iteration to iteratively adapt the model to different image locations to obtain, during the course of the iteration, a plurality of differently adapted models, wherein the model adaptation is controlled by the noise signal level at the different image locations; outputting one of the differently adapted models, the output model outlining a segmentation of the image, characterized in that the controlling of the iterative model adaptation includes deflecting a model point towards said different image locations, wherein a strength of the respective deflection action varies inversely with the local noise signal level at the different locations. receiving an image and a specification of a spatially varying distribution of a noise signal level across different locations in the image; segmenting the image for a model, wherein the segmentation step includes an iteration to iteratively adapt the model to different image locations to obtain, during the course of the iteration, a plurality of differently adapted models, wherein the model adaptation is controlled by the noise signal level at the different image locations; outputting one of the differently adapted models, the output model outlining a segmentation of the image, characterized in that the controlling of the iterative model adaptation includes deflecting a model point towards said different image locations, wherein a strength of the respective deflection action varies inversely with the local noise signal level at the different locations.
Screen construction comprising a roof structure, a supporting structure for this roof structure, and at least one roll-up/roll-down screen on a screen roller which comprises an essentially horizontally extending bottom lath, in which the roof structure comprises at least two lateral guides in which the ends of the bottom lath can be guided, whereby said lateral guides comprise one or more lath guides for retaining and guiding the bottom lath in the lath guides during the roll-up and roll-down movement of the screen and in that a water-draining duct is connected to or forms part of the bottom lath by means of which water of precipitation can be drained away in the direction of at least one of said lateral guides, characterized in that said lateral guides further comprise one or more screen guides for guiding the lateral sides of the screen during the roll-up/roll-down movement thereof.
A method comprising: at a fault-tolerant enterprise object storage system configured to synthesize parity data in order to protect stored data from loss, the fault-tolerant enterprise object storage system including a plurality of storage entities each configured to store data on a block basis and one or more processors: writing a first object into an aggregate object that is distributed across the plurality of storage entities (110, 120), wherein a first size of the first object is at least an order of magnitude less than a second size of the aggregate object and within the same order of magnitude of a block unit addressable within each of the storage entities; updating, based on the first object, parity data associated with the aggregate object in response to writing the first object into the aggregate object, wherein the parity data is stored at one or more parity storage entities; and updating a processed data end offset indicator by determining the first size of the first object and incrementing a value of the processed data end offset indicator by the first size, wherein the processed data end offset indicator indicates that the parity data for the aggregate object includes valid data up to and including the first object, and the value of the processed data end offset indicator indicates a size of the aggregate object. writing a first object into an aggregate object that is distributed across the plurality of storage entities (110, 120), wherein a first size of the first object is at least an order of magnitude less than a second size of the aggregate object and within the same order of magnitude of a block unit addressable within each of the storage entities; updating, based on the first object, parity data associated with the aggregate object in response to writing the first object into the aggregate object, wherein the parity data is stored at one or more parity storage entities; and updating a processed data end offset indicator by determining the first size of the first object and incrementing a value of the processed data end offset indicator by the first size, wherein the processed data end offset indicator indicates that the parity data for the aggregate object includes valid data up to and including the first object, and the value of the processed data end offset indicator indicates a size of the aggregate object.