mhurhangee/ep-ind-claims huggingface dataset:
A cable assembly comprising: a common figure-8 outer jacket comprising a first lobe and a second lobe, an electric core, two strength members and a first extruded inner sheath housing said electric core and said strength members, wherein the first lobe surrounds the first extruded inner sheath, wherein said first extruded inner sheath annularly surrounds the strength members and wherein the strength members are laid parallel to the first lobe longitudinal axis, and an optical core and a second extruded inner sheath housing said optical core, wherein the second lobe surrounds the second extruded inner sheath, wherein the common figure-8 outer jacket adheres to the first extruded inner sheath and to the second extruded inner sheath and is configured to be readily detachable from the first and second extruded inner sheaths (15,25) to free a self standing electrical cable, formed by the first extruded inner sheath and what the first extruded inner sheath houses, and a self standing optical cable, formed by the second extruded inner sheath and what the second extruded inner sheath houses. a common figure-8 outer jacket comprising a first lobe and a second lobe, an electric core, two strength members and a first extruded inner sheath housing said electric core and said strength members, wherein the first lobe surrounds the first extruded inner sheath, wherein said first extruded inner sheath annularly surrounds the strength members and wherein the strength members are laid parallel to the first lobe longitudinal axis, and an optical core and a second extruded inner sheath housing said optical core, wherein the second lobe surrounds the second extruded inner sheath, wherein the common figure-8 outer jacket adheres to the first extruded inner sheath and to the second extruded inner sheath and is configured to be readily detachable from the first and second extruded inner sheaths (15,25) to free a self standing electrical cable, formed by the first extruded inner sheath and what the first extruded inner sheath houses, and a self standing optical cable, formed by the second extruded inner sheath and what the second extruded inner sheath houses.
An ignition system for a rocket propellant charge, comprising: - an enclosure in which the propellant charge is present, the enclosure comprising a bottom and an exhaust outlet facing the bottom; and - a pyrotechnic igniter attached to the bottom of the enclosure, the igniter comprising a body delimiting an initiation chamber in which a pyrotechnic charge, an initiator suitable for initiating said charge and a wedging element configured to maintain the pyrotechnic charge in a predetermined position relative to the initiator are present, the igniter being able to eject the gases resulting from the combustion of the pyrotechnic charge toward the rocket propellant charge in order to ignite it; characterized in that the igniter further comprises a diffuser provided with vents for ejecting the gases resulting from the combustion of the pyrotechnic charge toward the rocket propellant charge. - an enclosure in which the propellant charge is present, the enclosure comprising a bottom and an exhaust outlet facing the bottom; and - a pyrotechnic igniter attached to the bottom of the enclosure, the igniter comprising a body delimiting an initiation chamber in which a pyrotechnic charge, an initiator suitable for initiating said charge and a wedging element configured to maintain the pyrotechnic charge in a predetermined position relative to the initiator are present, the igniter being able to eject the gases resulting from the combustion of the pyrotechnic charge toward the rocket propellant charge in order to ignite it;
A compound having the structural formula: wherein R 1 is selected from hydrogen, C 1 -C 6 unsubstituted alkyl, OR', COOR' and CONR'R"; each R 3 is independently selected from hydrogen, C 1 -C 6 unsubstituted alkyl, OR', COOR' and CONR'R"; R 4 is a group selected from hydrogen, halogen, CN, C 1 -C 6 unsubstituted alkyl, OR', and NHR'; wherein, preferably, R 4 is H; R 5 is R x or NR x R y, wherein each of R x and R y is independently selected from H, alkyl, cycloalkyl, heterocycloalkyl, aryl, heteroaryl and R x and R y may together form a 3- to 7-membered ring, and each of R x and R y is optionally substituted with one or more of halogen, CN, OR', NR'R", alkyl, haloalkyl, cyanoalkyl, hydroxyalkyl and alkoxyalkyl; provided that when R 5 is R x, R x is not H; wherein alkyl is selected from C 1 -C 10 alkyls; cycloalkyl is selected from cycloalkyls having from 3 to 13 ring atoms; heterocycloalkyl is selected from C 2 -C 9 heterocycloalkyls; aryl is selected from aryls having 6 to 14 ring atoms; heteroaryl is selected from heteroaryls having a 5-18 membered monocyclic or polycyclic aromatic ring having ring carbon atoms and 1-6 ring heteroatoms provided in the aromatic ring system, wherein each heteroatom is independently selected from nitrogen, oxygen, phosphorous and sulfur; each R L is independently (CH 2) m and m is 1, 2 or 3; each R' and R" is independently selected from hydrogen and C 1 -C 6 unsubstituted alkyl and R' and R" may together form a 3- to 7-membered ring; and n is 1 or 2, preferably 1; or a pharmaceutically acceptable salt, ester, hydrate, solvate, stereoisomer, or isotopically labelled derivate thereof. R 1 is selected from hydrogen, C 1 -C 6 unsubstituted alkyl, OR', COOR' and CONR'R"; each R 3 is independently selected from hydrogen, C 1 -C 6 unsubstituted alkyl, OR', COOR' and CONR'R"; R 4 is a group selected from hydrogen, halogen, CN, C 1 -C 6 unsubstituted alkyl, OR', and NHR'; wherein, preferably, R 4 is H; R 5 is R x or NR x R y, wherein each of R x and R y is independently selected from H, alkyl, cycloalkyl, heterocycloalkyl, aryl, heteroaryl and R x and R y may together form a 3- to 7-membered ring, and each of R x and R y is optionally substituted with one or more of halogen, CN, OR', NR'R", alkyl, haloalkyl, cyanoalkyl, hydroxyalkyl and alkoxyalkyl; provided that when R 5 is R x, R x is not H; wherein alkyl is selected from C 1 -C 10 alkyls; cycloalkyl is selected from cycloalkyls having from 3 to 13 ring atoms; heterocycloalkyl is selected from C 2 -C 9 heterocycloalkyls; aryl is selected from aryls having 6 to 14 ring atoms; heteroaryl is selected from heteroaryls having a 5-18 membered monocyclic or polycyclic aromatic ring having ring carbon atoms and 1-6 ring heteroatoms provided in the aromatic ring system, wherein each heteroatom is independently selected from nitrogen, oxygen, phosphorous and sulfur; each R L is independently (CH 2) m and m is 1, 2 or 3; each R' and R" is independently selected from hydrogen and C 1 -C 6 unsubstituted alkyl and R' and R" may together form a 3- to 7-membered ring; and n is 1 or 2, preferably 1;
A tissue holder assembly comprising: a base, the base comprising a bottom member, a central hub extending upwardly from the bottom member, and a circumferential sidewall extending upwardly from the bottom member radially spaced apart from the hub, the circumferential sidewall surrounding the hub and defining an interior region configured for accommodating a cylindrical tissue holder; the base further comprising a raised platform spaced upwardly apart from the bottom member, an upper portion of the central hub extending through a central opening of the platform, wherein the hub is configured for supporting the tissue holder; the bottom member, the hub and the circumferential sidewall collectively defining an annular fluid channel underlying the platform, the fluid channel being in fluid communication with a platform opening; wherein the fluid channel extends around the hub from the platform opening to a fluid exit port in the circumferential sidewall; and characterized in that the base further comprises a flow comb underlying the platform opening and extending into the fluid channel. a base, the base comprising a bottom member, a central hub extending upwardly from the bottom member, and a circumferential sidewall extending upwardly from the bottom member radially spaced apart from the hub, the circumferential sidewall surrounding the hub and defining an interior region configured for accommodating a cylindrical tissue holder; the base further comprising a raised platform spaced upwardly apart from the bottom member, an upper portion of the central hub extending through a central opening of the platform, wherein the hub is configured for supporting the tissue holder; the bottom member, the hub and the circumferential sidewall collectively defining an annular fluid channel underlying the platform, the fluid channel being in fluid communication with a platform opening; wherein the fluid channel extends around the hub from the platform opening to a fluid exit port in the circumferential sidewall; and characterized in that the base further comprises a flow comb underlying the platform opening and extending into the fluid channel.
A multilayer structure comprising: a single crystal silicon wafer handle substrate comprising two major, generally parallel surfaces, one of which is a front surface of the single crystal silicon wafer handle substrate and the other of which is a back surface of the single crystal silicon wafer handle substrate, a circumferential edge joining the front and back surfaces of the single crystal silicon wafer handle substrate, and a central plane of the single crystal silicon wafer handle substrate between the front and back surfaces of the single crystal silicon wafer handle substrate, wherein the single crystal silicon wafer handle substrate has a bulk resistivity of at least about 7,500 ohm-cm; a trap rich layer in interfacial contact with the front surface of the single crystal silicon wafer handle substrate; a dielectric layer in interfacial contact with the trap rich layer; and a single crystal semiconductor device layer in interfacial contact with the dielectric layer, characterised in that the single crystal silicon wafer handle substrate comprises a silicon wafer sliced from a single crystal silicon ingot grown by the float zone method and has an interstitial oxygen concentration of less than about 1×10 16 atoms/cm 3, a nitrogen concentration of at least about 1×10 13 atoms/cm 3 and a concentration of excess thermal donors of less than 1×10 11 donors/cm 3, wherein excess thermal donors are thermal donors that are formed when the wafer handle substrate is heated into the 450°C - 650°C range, and dissociate at a temperature above about 1050°C - 1100°C. a single crystal silicon wafer handle substrate comprising two major, generally parallel surfaces, one of which is a front surface of the single crystal silicon wafer handle substrate and the other of which is a back surface of the single crystal silicon wafer handle substrate, a circumferential edge joining the front and back surfaces of the single crystal silicon wafer handle substrate, and a central plane of the single crystal silicon wafer handle substrate between the front and back surfaces of the single crystal silicon wafer handle substrate, wherein the single crystal silicon wafer handle substrate has a bulk resistivity of at least about 7,500 ohm-cm; a trap rich layer in interfacial contact with the front surface of the single crystal silicon wafer handle substrate; a dielectric layer in interfacial contact with the trap rich layer; and a single crystal semiconductor device layer in interfacial contact with the dielectric layer, characterised in that the single crystal silicon wafer handle substrate comprises a silicon wafer sliced from a single crystal silicon ingot grown by the float zone method and has an interstitial oxygen concentration of less than about 1×10 16 atoms/cm 3, a nitrogen concentration of at least about 1×10 13 atoms/cm 3 and a concentration of excess thermal donors of less than 1×10 11 donors/cm 3, wherein excess thermal donors are thermal donors that are formed when the wafer handle substrate is heated into the 450°C - 650°C range, and dissociate at a temperature above about 1050°C - 1100°C.
An apparatus for carrying out at least one examination on the breast of a patient, comprising an analysis head provided with at least one radiation detection device, configured to receive and detect on a detection plane the radiation passing through the patient's breast, said apparatus comprising: - a first frame provided with floor support means; - a second frame supporting the analysis head; - a third frame which supports the second frame and is connected to the first frame so that it can be moved from a substantially horizontal position, in which an operator can carry out an examination on the patient's breast, and a substantially vertical position, in which an operator can carry out an examination on the patient's breast; - means for movement of the third frame with respect to the first frame from the horizontal position to the vertical position, the apparatus being characterized in that; - the floor support means comprise a telescopic type column, the third frame being hinged to the first frame around a horizontal axis from the horizontal position to the vertical position, wherein said second frame is rotatingly supported by the third frame to allow rotation of the second frame with respect to the third frame around an axis at right angles to the horizontal axis. - a first frame provided with floor support means; - a second frame supporting the analysis head; - a third frame which supports the second frame and is connected to the first frame so that it can be moved from a substantially horizontal position, in which an operator can carry out an examination on the patient's breast, and a substantially vertical position, in which an operator can carry out an examination on the patient's breast; - means for movement of the third frame with respect to the first frame from the horizontal position to the vertical position, the apparatus being characterized in that; - the floor support means comprise a telescopic type column, the third frame being hinged to the first frame around a horizontal axis from the horizontal position to the vertical position, wherein said second frame is rotatingly supported by the third frame to allow rotation of the second frame with respect to the third frame around an axis at right angles to the horizontal axis.
A gas-to-liquids plant for treating natural gas, wherein the natural gas is subjected to expansion through a flow restrictor so as to undergo cooling through the Joule Thomson effect, followed by separation of resulting longer-chain hydrocarbon liquid from remaining natural gas, wherein the plant further comprises means to process the remaining natural gas to form a synthesis gas containing excess hydrogen and a separator to remove hydrogen from the synthesis gas, and a Fischer-Tropsch reactor to which the synthesis gas is provided, and means to separate hydrocarbon product, tail gas and aqueous phase from the output of the Fischer-Tropsch reactor, and means for steam stripping to separate oxygenates from the aqueous phase and means to introduce the oxygenates into the natural gas stream upstream of the flow restrictor.
Injection system for compression-ignition diesel engines for the controlled injection of fuels by means of injection nozzles into a combustion chamber of a cylinder and to a piston with controllable inlet and outlet valves, wherein an injection nozzle is arranged approximately centrally above the combustion chamber, characterized in that an additional, independently controllable injection nozzle is arranged with an injection angle for a supply of fuel (121, 122) into an upper wall or delimiting region (103, 115) of the combustion chamber with a prevailing component temperature higher than the boiling temperature of the fuel, in that, by means of the additional injection nozzle, which is directed toward a flame ring, it is firstly the case that, below an auto-ignition threshold, a homogenous mixture is formed, and in that after a change of state in terms of temperature and pressure within the cylinder, an amount of fuel can be introduced, as an ignition injection, by means of the further injection nozzle.
A menstrual tampon comprising: an elongate body comprising an outer surface, an insertion end and a removal end opposite the insertion end, a longitudinal axis of the elongate body extending through the insertion end and the removal end; a flow path configured to direct menses across the elongate body, the flow path having at least one complete turn about the longitudinal axis of the elongate body; a plurality of secondary flow paths spaced apart from each other around a circumference of the elongate body, each of the secondary flow paths extending closer to a longitudinal direction than the at least one complete turn of the flow path; and a removal string extending from a removal end of the elongate body. an elongate body comprising an outer surface, an insertion end and a removal end opposite the insertion end, a longitudinal axis of the elongate body extending through the insertion end and the removal end; a flow path configured to direct menses across the elongate body, the flow path having at least one complete turn about the longitudinal axis of the elongate body; a plurality of secondary flow paths spaced apart from each other around a circumference of the elongate body, each of the secondary flow paths extending closer to a longitudinal direction than the at least one complete turn of the flow path; and a removal string extending from a removal end of the elongate body.
A data transmission method in a Long Term Evolution, LTE, system based on unequal error protection performed by a base station, the method comprising: • determining a segment quantity C ' according to a formula C ′ = Q m 2 ∗ ⌈ B Z − L ∗ Q m / 2 ⌉, wherein Z represents a maximum value of a code block size, B represents a magnitude of an input bit stream corresponding to the code block, L represents a magnitude of cyclic redundancy check, CRC, parity bits and Q m is a number of symbol bits in a constellation diagram (step 301), • segmenting the code block according to the segment quantity C ' (step 302), • turbo encoding the segmented code blocks to obtain encoded code blocks (step 303), • performing interleaving processing separately on the encoded code blocks by using an interleaver, to obtain interleaved encoded code blocks (step 304), • performing rate matching on the interleaved encoded code blocks to obtain output code blocks (step 305), • using every Q m /2 output code blocks as a code block group, and sorting the output code blocks in each code block group according to importance of the data in each output code block (step 306), • for each code block group: separately obtaining one bit from each sorted output code block of the code block group and cascading the obtained bits, and repeating this operation until Q m bits are cascaded, thereby obtaining cascaded code blocks (step 307), • sending all cascaded code blocks to a terminal device (step 310). • determining a segment quantity C ' according to a formula C ′ = Q m 2 ∗ ⌈ B Z − L ∗ Q m / 2 ⌉, wherein Z represents a maximum value of a code block size, B represents a magnitude of an input bit stream corresponding to the code block, L represents a magnitude of cyclic redundancy check, CRC, parity bits and Q m is a number of symbol bits in a constellation diagram (step 301), • segmenting the code block according to the segment quantity C ' (step 302), • turbo encoding the segmented code blocks to obtain encoded code blocks (step 303), • performing interleaving processing separately on the encoded code blocks by using an interleaver, to obtain interleaved encoded code blocks (step 304), • performing rate matching on the interleaved encoded code blocks to obtain output code blocks (step 305), • using every Q m /2 output code blocks as a code block group, and sorting the output code blocks in each code block group according to importance of the data in each output code block (step 306), • for each code block group: separately obtaining one bit from each sorted output code block of the code block group and cascading the obtained bits, and repeating this operation until Q m bits are cascaded, thereby obtaining cascaded code blocks (step 307), • sending all cascaded code blocks to a terminal device (step 310).
A method of making a superabrasive compact, comprising: providing a substrate attached to a superabrasive volume formed by a powder of a plurality of diamond particles; and subjecting the substrate and the superabrasive volume of the powder to conditions of elevated temperature and pressure suitable for producing the polycrystalline superabrasive compact; characterised in that: prior to said steps of providing the substrate attached to the superabrasive volume and subjecting the substrate and the superabrasive volume to conditions of elevated temperature and pressure, heat treating the powder of the plurality of diamond particles at a temperature from 550°C to 700 °C in flowing air or flowing oxygen for 0.5 to 3 hours to form said treated diamond particles with a nano-scale or sub-micron surface texture. providing a substrate attached to a superabrasive volume formed by a powder of a plurality of diamond particles; and subjecting the substrate and the superabrasive volume of the powder to conditions of elevated temperature and pressure suitable for producing the polycrystalline superabrasive compact; characterised in that: prior to said steps of providing the substrate attached to the superabrasive volume and subjecting the substrate and the superabrasive volume to conditions of elevated temperature and pressure, heat treating the powder of the plurality of diamond particles at a temperature from 550°C to 700 °C in flowing air or flowing oxygen for 0.5 to 3 hours to form said treated diamond particles with a nano-scale or sub-micron surface texture.
A dental bar for accurately determining the separation and relative orientation of two coping cylinders projecting from dental implants in a patient's mouth to receive a prosthesis, the dental bar comprising two sockets, for fitting over and securing to the two coping cylinders, connected to one another by a limb formed of telescopically collapsible sections (16, 18) of which the end sections are formed integrally with, or permanently secured to, the two sockets in predetermined positions, wherein, within each pair of adjacent sections of the limb, one is a shaft and the other is a tubular housing within which the shaft is slidably received, the exterior of the shaft and the interior of the housing having different cross-sectional shapes, at least one of the cross-sectional shapes being a polygon, so as to define at least one empty volume therebetween, and wherein a port is provided in each housing for injecting a bonding material into the or each volume in order to lock all the limb sections permanently relative to one another.