mhurhangee/ep-ind-claims huggingface dataset:
A compressor component of a compressor, said compressor having a compressor body and a pulley mechanism transmitting a driving force to said compressor body, said compressor component is at least one of a member having a rolling contact surface and a rolling element (33, 33a, 2a, 2b), a piston rod, a piston, a power transmitting member, and a compressor bearing (401 - 404), wherein the member having the rolling contact surface is one of a main shaft, a pulley, a swash plate, a rotating member, a pulley bearing support member, an outer ring (31, 31a, 31b) included in the compressor bearing, an inner ring (32, 32a, 32b) included in the compressor bearing, and said compressor component is located in said compressor body and said compressor component has a hydrogen content of at most 0.5 ppm, wherein the hydrogen content is the hydrogen content of non-diffusible hydrogen determined by thermal conductimetry.
A method of growing a nitride semiconductor layer, the method comprising: (a) preparing a nitride substrate by growing a gallium nitride crystal on plural seed substrates using hydride vapor phase epitaxy, HVPE, followed by slicing the gallium nitride crystal; (b) growing a gallium nitride-based defect dispersion suppressing layer on the gallium nitride substrate formed in step (a) using metal organic chemical vapor deposition; and (c) growing a gallium nitride semiconductor layer on the defect dispersion suppressing layer, wherein the gallium nitride-based defect dispersion suppressing layer is a gallium nitride layer grown at a temperature in the range of 900°C to 1000°C and grown at a pressure in a range from 100 torr to 400 torr, wherein the growth temperature of the defect dispersion suppressing layer is lower than the growth temperature of the gallium nitride semiconductor layer formed in step (c), and at a growth rate which is slower than the gallium-nitride semi-conductor layer in step (c) and which is in the range from 1.5 μm/hr. to 2.5 μm/hr. (a) preparing a nitride substrate by growing a gallium nitride crystal on plural seed substrates using hydride vapor phase epitaxy, HVPE, followed by slicing the gallium nitride crystal; (b) growing a gallium nitride-based defect dispersion suppressing layer on the gallium nitride substrate formed in step (a) using metal organic chemical vapor deposition; and (c) growing a gallium nitride semiconductor layer on the defect dispersion suppressing layer,
A fluid treatment system comprising: an inlet; an outlet; a fluid treatment zone disposed between the inlet and the outlet, the fluid treatment zone comprising a first wall surface and a second wall surface opposed to the first wall surface; characterized by the following features: a first radiation source assembly comprising a radiation source having a first longitudinal axis transverse to a direction of fluid flow through the fluid treatment zone; a first fluid receptacle portion disposed in the first wall surface to define a first junction of two defined where the wall surface meets the first fluid receptacle portion along a normal to the direction of fluid flow disposed in the first wall, the first fluid receptacle portion having a partially circular cross-section, a rectangular cross-section, a triangular-shaped cross-section or a bilaterally symmetrical trapazoid-shaped cross-section and comprising a first apex portion disposed midway between the two junctions, wherein: a first ratio of (i) a first distance between a first centerpoint of the first radiation source and the first apex portion, to (ii) a second distance between the first centerpoint and the first junction is greater than or equal to 1; the first distance is measured along a first line orthogonal to the direction of fluid flow through the fluid treatment zone; the first centerpoint being in spaced relation toward a center region of the fluid treatment zone with respect to a line intersecting the junctions and the first radiation source assembly is on the side of the line closer to the fluid treatment zone than to the receptacle. an inlet; an outlet; a fluid treatment zone disposed between the inlet and the outlet, the fluid treatment zone comprising a first wall surface and a second wall surface opposed to the first wall surface; a first radiation source assembly comprising a radiation source having a first longitudinal axis transverse to a direction of fluid flow through the fluid treatment zone; a first fluid receptacle portion disposed in the first wall surface to define a first junction of two defined where the wall surface meets the first fluid receptacle portion along a normal to the direction of fluid flow disposed in the first wall, the first fluid receptacle portion having a partially circular cross-section, a rectangular cross-section, a triangular-shaped cross-section or a bilaterally symmetrical trapazoid-shaped cross-section and comprising a first apex portion disposed midway between the two junctions, wherein: a first ratio of (i) a first distance between a first centerpoint of the first radiation source and the first apex portion, to (ii) a second distance between the first centerpoint and the first junction is greater than or equal to 1; the first distance is measured along a first line orthogonal to the direction of fluid flow through the fluid treatment zone; the first centerpoint being in spaced relation toward a center region of the fluid treatment zone with respect to a line intersecting the junctions and the first radiation source assembly is on the side of the line closer to the fluid treatment zone than to the receptacle.
A seeker comprising: a single antenna channel radio frequency receiver configured to receive a plurality of signals comprising mutually orthogonal transmitted waveforms (110, 250, 260) from a respective plurality of transmitting sources, both directly from the transmitting sources and indirectly from reflections off a target; and a processor configured to separate the mutually orthogonal transmitted waveforms received directly from the transmitting sources to track the seeker's location relative to the transmitting sources, and to separate the mutually orthogonal transmitted waveforms received indirectly from reflections off a target to track the target's location and motion relative to the seeker. a single antenna channel radio frequency receiver configured to receive a plurality of signals comprising mutually orthogonal transmitted waveforms (110, 250, 260) from a respective plurality of transmitting sources, both directly from the transmitting sources and indirectly from reflections off a target; and a processor configured to separate the mutually orthogonal transmitted waveforms received directly from the transmitting sources to track the seeker's location relative to the transmitting sources, and to separate the mutually orthogonal transmitted waveforms received indirectly from reflections off a target to track the target's location and motion relative to the seeker.
A compound comprising a triphenylene containing benzo-fused thiophene or benzo-fused furan, wherein the compound is represented by the structure of Formula: wherein X is S or O; wherein R 1 and R 2 are unfused substituents independently selected from the group consisting of C n H 2n+1, OC n H 2n+1, OAr 1, C≡C-C n H 2n+1, Ar 1, Ar 1 -Ar 2, C n H 2n- Ar 1, or no substitution, and wherein each of R 1 and R 2 may represent mono, di, tri, or tetra substitutions; wherein n is 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; wherein Ar 1 and Ar 2 are independently selected from the group consisting of benzene, biphenyl, naphthalene, triphenylene, carbazole, and heteroaromatic analogs thereof; and wherein at least one of R 1 and R 2 includes a triphenylene group. wherein X is S or O; wherein R 1 and R 2 are unfused substituents independently selected from the group consisting of C n H 2n+1, OC n H 2n+1, OAr 1, C≡C-C n H 2n+1, Ar 1, Ar 1 -Ar 2, C n H 2n- Ar 1, or no substitution, and wherein each of R 1 and R 2 may represent mono, di, tri, or tetra substitutions; wherein n is 1, 2, 3, 4, 5, 6, 7, 8, 9, or 10; wherein Ar 1 and Ar 2 are independently selected from the group consisting of benzene, biphenyl, naphthalene, triphenylene, carbazole, and heteroaromatic analogs thereof; and wherein at least one of R 1 and R 2 includes a triphenylene group.
Coupling with face toothing for transmitting torques and/or transverse forces between a first part, which is provided with a first face toothing system (1, 1a), and a second part which is provided with a second face toothing system (1, 1b) which is complementary to said first face toothing system, wherein at least one of the parts is, in particular, a shaft, an axle, a bolt or a flange and wherein the first face toothing system (1, 1a) can be brought into engagement with the second face toothing system (1, 1b) in a form-locking manner, characterised in that at least one of the face toothing systems (1, 1a, 1b) comprises at least one groove of constant width, the longitudinal centre line of the groove forming, in at least one section of said groove, a semicircular arc with a first circle centre-point and, in at least one other section of said groove, a semicircular arc with a second circle centre-point.
A vehicle comprising a front seat airbag device (10, 60) and a front seat, the front seat airbag device (10, 60) comprising: an inflator (12, 62) configured to generate gas when a frontal collision of a vehicle is detected or predicted; and an airbag (14, 64) including a main chamber (16, 66) configured to be stored in front of the front seat in the vehicle, the main chamber (16, 66) being configured to inflate and deploy to a position facing the front seat by the gas supplied from the inflator (12, 62), and a parietal chamber (18, 68) configured to inflate and deploy upward and rearward from an upper end portion of the main chamber (16, 66), characterized by the front seat being rotatable between a forward position at which an occupant faces the front of the vehicle, and a rearward position at which the occupant faces the rear of the vehicle. an inflator (12, 62) configured to generate gas when a frontal collision of a vehicle is detected or predicted; and an airbag (14, 64) including a main chamber (16, 66) configured to be stored in front of the front seat in the vehicle, the main chamber (16, 66) being configured to inflate and deploy to a position facing the front seat by the gas supplied from the inflator (12, 62), and a parietal chamber (18, 68) configured to inflate and deploy upward and rearward from an upper end portion of the main chamber (16, 66), a main chamber (16, 66) configured to be stored in front of the front seat in the vehicle, the main chamber (16, 66) being configured to inflate and deploy to a position facing the front seat by the gas supplied from the inflator (12, 62), and a parietal chamber (18, 68) configured to inflate and deploy upward and rearward from an upper end portion of the main chamber (16, 66), characterized by the front seat being rotatable between a forward position at which an occupant faces the front of the vehicle, and a rearward position at which the occupant faces the rear of the vehicle.
A method for manufacturing a mono cell in which a sheet-like separator is disposed between a sheet-like positive electrode and a sheet-like negative electrode, said negative electrode being formed larger than said positive electrode, wherein the method comprises: bonding one surface of the separator to the negative electrode through adhesives (14A, 14B, 14C) disposed at a plurality of respective points on the negative electrode; and bonding the other surface of the separator to the positive electrode through adhesives (20A, 20B, 20C) disposed at a plurality of respective points on the positive electrode, characterized in that when viewed in a lamination direction of the mono cell, the adhesives (14A, 14B, 14C, 20A, 20B, 20C) are disposed such that the adhesives (14A, 14B, 14C) of the negative electrode do not overlap the adhesives (20A, 20B, 20C) of the positive electrode, and the adhesives (14A, 14B, 14C) disposed at corresponding ones of peripheral edge portions (16, 17, 31, 32) of the negative electrode are positioned more on an outer side than the adhesives (20A, 20B, 20C) disposed at corresponding ones of peripheral edge portions (27, 28, 33, 34) of the positive electrode. bonding one surface of the separator to the negative electrode through adhesives (14A, 14B, 14C) disposed at a plurality of respective points on the negative electrode; and bonding the other surface of the separator to the positive electrode through adhesives (20A, 20B, 20C) disposed at a plurality of respective points on the positive electrode, characterized in that when viewed in a lamination direction of the mono cell, the adhesives (14A, 14B, 14C, 20A, 20B, 20C) are disposed such that the adhesives (14A, 14B, 14C) of the negative electrode do not overlap the adhesives (20A, 20B, 20C) of the positive electrode, and the adhesives (14A, 14B, 14C) disposed at corresponding ones of peripheral edge portions (16, 17, 31, 32) of the negative electrode are positioned more on an outer side than the adhesives (20A, 20B, 20C) disposed at corresponding ones of peripheral edge portions (27, 28, 33, 34) of the positive electrode.
A boiler drying, igniting and combusting refuse and producing steam (2, 2a) by heat exchange with flue gases, said flue gases are the results of incineration of said refuse, the refuse being transported within the boiler by means of reciprocable grates, the refuse being conveyed from the left to the right, i.e. when following the process of refuse-incineration, starting with the flue gases, proceeding to a corrosive gas flow and ending at a less-corrosive gas flow is the result, said boiler defining a main flow direction of gases, said boiler comprising an end superheater, characterised in that said boiler comprises a separator element being adapted for separating said flue gases into streams of the less-corrosive gas flow and the corrosive gas flow, said separator element being located substantially in and along said main flow direction, said end superheater being located in proximity to said separator element and in the flow of said less corrosive gas, and in that said separator element comprises a pipe having one or more nozzles adapted to blow cool recirculated cleaned flue gas following the main flow direction in between the less-corrosive gas flow and the corrosive gas flow, whereby these gas flows (6, 7) continue in two separated streams in the main flow direction.
A drainage apparatus for providing a transition from a first surface to a second surface, the apparatus comprising: a drainage channel to be positioned between the first surface and the second surface; and a grate for covering said drainage channel, said grate having one or more openings (30, 35) structured to allow a liquid to pass therethrough and into said drainage channel, wherein said grate comprises a first planar portion, a second planar portion being in use position horizontal, and a generally vertical third portion joining said first planar portion and said second planar portion, said grate being structured so that said first planar portion of said grate in use is positioned at a first level substantially flush with the first surface, and so that said second planar portion of said grate in use is positioned at a second level substantially flush with the second surface, and wherein said second level is displaced vertically from and lower than said first level, and wherein at least one of the first, second and third portions (24, 26, 22) of said grate further comprises one or more openings (30, 35) therethrough structured to allow a liquid to pass therethrough, characterised in that the first planar portion is in use position horizontal. a drainage channel to be positioned between the first surface and the second surface; and a grate for covering said drainage channel, said grate having one or more openings (30, 35) structured to allow a liquid to pass therethrough and into said drainage channel, wherein said grate comprises a first planar portion, a second planar portion being in use position horizontal, and a generally vertical third portion joining said first planar portion and said second planar portion, said grate being structured so that said first planar portion of said grate in use is positioned at a first level substantially flush with the first surface, and so that said second planar portion of said grate in use is positioned at a second level substantially flush with the second surface, and wherein said second level is displaced vertically from and lower than said first level, and wherein at least one of the first, second and third portions (24, 26, 22) of said grate further comprises one or more openings (30, 35) therethrough structured to allow a liquid to pass therethrough, characterised in that the first planar portion is in use position horizontal.
A system for manipulating magnetic beads for processes involving molecular manipulations, comprising: a housing receiving a vessel containing a fluid sample and a plurality of magnetic beads therein, the housing having a circumference and a height perpendicular to the circumference; a first plurality of electromagnets (106A-106F) spaced evenly around the circumference of the housing at a height h 1; a second plurality of electromagnets spaced evenly around the circumference of the housing at a height h 2, the second plurality of electromagnets being equal in number to the first plurality of electromagnets, the electromagnets of the second plurality offset from the electromagnets of the first plurality around the circumference of the housing; a controller for selectively energizing electromagnets of the first and second pluralities in sequence causing the magnetic beads to circulate in the vessel; characterised in that the system comprises an optical scattering sensor for measuring magnetic bead density in a target location within the vessel and providing the measured bead density to the controller to enable modification of the sequence of selective energizing of the electromagnets (106A-106F). a housing receiving a vessel containing a fluid sample and a plurality of magnetic beads therein, the housing having a circumference and a height perpendicular to the circumference; a first plurality of electromagnets (106A-106F) spaced evenly around the circumference of the housing at a height h 1; a second plurality of electromagnets spaced evenly around the circumference of the housing at a height h 2, the second plurality of electromagnets being equal in number to the first plurality of electromagnets, the electromagnets of the second plurality offset from the electromagnets of the first plurality around the circumference of the housing; a controller for selectively energizing electromagnets of the first and second pluralities in sequence causing the magnetic beads to circulate in the vessel; characterised in that the system comprises an optical scattering sensor for measuring magnetic bead density in a target location within the vessel and providing the measured bead density to the controller to enable modification of the sequence of selective energizing of the electromagnets (106A-106F).
A crane apparatus comprising: a first truss assembly comprising a first main truss having a longitudinal axis, the first main truss being coupled to a first rail car end assembly at a first end of the first main truss; a second truss assembly comprising a second main truss spaced apart from and extending approximately parallel to the longitudinal axis, the second main truss being coupled to the first rail car end assembly at a first end of the second main truss, the first main truss and the second main truss spaced apart from one another to define an interior space; and characterized in that the crane apparatus further comprises a truss extension (20, 22) pivotally coupled to the first end of the first truss assembly and rotatable between a deployed configuration and a stowed configuration, wherein the truss extension extends coaxially with the longitudinal axis in the deployed configuration and wherein the truss extension is contained within the interior space and extends approximately parallel to and spaced apart from the longitudinal axis in the stowed configuration. a first truss assembly comprising a first main truss having a longitudinal axis, the first main truss being coupled to a first rail car end assembly at a first end of the first main truss; a second truss assembly comprising a second main truss spaced apart from and extending approximately parallel to the longitudinal axis, the second main truss being coupled to the first rail car end assembly at a first end of the second main truss, the first main truss and the second main truss spaced apart from one another to define an interior space; and characterized in that the crane apparatus further comprises a truss extension (20, 22) pivotally coupled to the first end of the first truss assembly and rotatable between a deployed configuration and a stowed configuration, wherein the truss extension extends coaxially with the longitudinal axis in the deployed configuration and wherein the truss extension is contained within the interior space and extends approximately parallel to and spaced apart from the longitudinal axis in the stowed configuration.
A device for processing a bulk liquid comprising particles, the particles in the bulk liquid being at a first concentration, and the device comprising: a vessel having at least one wall; a rotating strainer surface disposed within said vessel, said rotating strainer surface being mounted in and protruding from said at least one wall, said rotating strainer surface having one or more openings disposed on a circumference thereof, the openings configured to allow an extracted liquid included in the bulk liquid to pass through the strainer surface while preventing particles from passing through the strainer surface, such that a concentration of particles in the extracted liquid is less than the first concentration; an extracted liquid outflow port which outputs the extracted liquid from an interior region of the rotating strainer surface; and a motor configured to rotate the strainer surface at a speed sufficient to generate a centrifugal force or turbulence at the openings sufficient to prevent the particles from clogging the openings, wherein the device is configured to rotate the strainer surface and output the extracted liquid through the extracted liquid outflow port when the strainer surface is fully submerged in the bulk liquid. a vessel having at least one wall; a rotating strainer surface disposed within said vessel, said rotating strainer surface being mounted in and protruding from said at least one wall, said rotating strainer surface having one or more openings disposed on a circumference thereof, the openings configured to allow an extracted liquid included in the bulk liquid to pass through the strainer surface while preventing particles from passing through the strainer surface, such that a concentration of particles in the extracted liquid is less than the first concentration; an extracted liquid outflow port which outputs the extracted liquid from an interior region of the rotating strainer surface; and a motor configured to rotate the strainer surface at a speed sufficient to generate a centrifugal force or turbulence at the openings sufficient to prevent the particles from clogging the openings, wherein the device is configured to rotate the strainer surface and output the extracted liquid through the extracted liquid outflow port when the strainer surface is fully submerged in the bulk liquid.
An acid resistant banding or sealing composition for acid resistant two piece hard capsules, comprising at least one acid resistant polymer, at least one alkaline material, an organic solvent, and water wherein the weight ratio of organic solvent to water is from greater than 60:40 to 100:0, wherein the at least one acid resistant polymer is hydroxypropyl methylcellulose acetate succinate (HPMCAS), and the organic solvent is ethanol.