mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for use in performing centrifugation on a liquid including solids, comprising: a container including an interior compartment for receiving the liquid and solids, said container being capable of rotating to urge the solids toward the periphery of the interior compartment; a fixed extraction conduit (O) for extracting at least a portion of the solids from adjacent the periphery of the interior compartment of the container ; and a motive device for forming a non-contact coupling with the container , whereby the apparatus comprises a vessel for receiving the container , the vessel including an inlet (I) for introducing the liquid and solids to the container and a drain (D) for draining at least liquid from the vessel . a container including an interior compartment for receiving the liquid and solids, said container being capable of rotating to urge the solids toward the periphery of the interior compartment; a fixed extraction conduit (O) for extracting at least a portion of the solids from adjacent the periphery of the interior compartment of the container ; and a motive device for forming a non-contact coupling with the container , whereby the apparatus comprises a vessel for receiving the container , the vessel including an inlet (I) for introducing the liquid and solids to the container and a drain (D) for draining at least liquid from the vessel .
A buoyancy clamp assembly, the clamp assembly including a clamping arrangement , which arrangement includes three or more profiled arcuate members engageable together to clamp onto a pipe , each of the arcuate members including a plurality of discrete resilient members on their inner faces which are deformably engageable against a pipe when the clamping arrangement is clamped onto the pipe , the discrete resilient members diverging in profile away from the arcuate members , wherein the discrete resilient members have a solid profiled head , characterised in that the solid profiled head extends from a hollow base , wherein the solid profiled head diverges both longitudinally and laterally from the hollow base , and in a relaxed condition presents a concave engagement face engageable with a pipe .
A separation device for pre-cleaning wastewater in a building prior to discharging into a sewer system, particularly for businesses processing food products, having a screen unit comprising a wastewater inlet , a screen for retaining coarse materials present in the in-fed wastewater, a convoying screw corresponding to the screen such that the coarse materials retained by the screen can be transported into a first collection container , and a screw motor for rotating the convoying screw , having a fat separation unit connected downstream of the screen unit in the flow direction of the wastewater and comprising a separation tank for receiving the wastewater screened by the screen unit , a skimmer by means of which the fat accumulating on the wastewater surface in the separation tank is taken up and can be transported into a second collection container , and a wastewater outlet , wherein the skimmer comprises an annularly closed fat receiving element for immersing in the wastewater present in the separation tank , and a skimmer motor for driving the fat receiving element , and having a control unit for controlling the separation device , characterized in that the simmer comprises a wiper corresponding to the annularly closed fat receiving element for wiping off the fat taken up on the surface of the fat receiving element , and that the skimmer is a tube or belt skimmer and that the control unit is implemented such that said control unit switches the screw motor and/or the skimmer motor on or off depending on deposited time intervals and/or depending on at least one sensor signal. having a screen unit comprising a wastewater inlet , a screen for retaining coarse materials present in the in-fed wastewater, a convoying screw corresponding to the screen such that the coarse materials retained by the screen can be transported into a first collection container , and a screw motor for rotating the convoying screw , having a fat separation unit connected downstream of the screen unit in the flow direction of the wastewater and comprising a separation tank for receiving the wastewater screened by the screen unit , a skimmer by means of which the fat accumulating on the wastewater surface in the separation tank is taken up and can be transported into a second collection container , and a wastewater outlet , wherein the skimmer comprises an annularly closed fat receiving element for immersing in the wastewater present in the separation tank , and a skimmer motor for driving the fat receiving element , and having a control unit for controlling the separation device , characterized in that the simmer comprises a wiper corresponding to the annularly closed fat receiving element for wiping off the fat taken up on the surface of the fat receiving element , and that the skimmer is a tube or belt skimmer and that the control unit is implemented such that said control unit switches the screw motor and/or the skimmer motor on or off depending on deposited time intervals and/or depending on at least one sensor signal.
A system for forming a composite stiffener , the system comprising: a composite sheet ; a support surface configured to support the composite sheet ; a sheet-locating device configured to selectively locate the composite sheet such that a first sheet-portion of the composite sheet is supported on the support surface and a second sheet-portion of the composite sheet extends beyond the support surface ; a separation device configured to separate the second sheet-portion from the first sheet-portion to at least partially form a composite charge ; a layup tool comprising a longitudinal tool-axis and a layup surface configured to receive the composite charge , wherein the layup surface comprises a curvature along the longitudinal tool-axis ; a compaction device configured to compact the composite charge on the layup surface ; and a tool-positioning device coupled to the layup tool and configured to selectively position of the layup tool such that a compaction force , applied to the composite charge by the compaction device , is normal to the layup surface . a composite sheet ; a support surface configured to support the composite sheet ; a sheet-locating device configured to selectively locate the composite sheet such that a first sheet-portion of the composite sheet is supported on the support surface and a second sheet-portion of the composite sheet extends beyond the support surface ; a separation device configured to separate the second sheet-portion from the first sheet-portion to at least partially form a composite charge ; a layup tool comprising a longitudinal tool-axis and a layup surface configured to receive the composite charge , wherein the layup surface comprises a curvature along the longitudinal tool-axis ; a compaction device configured to compact the composite charge on the layup surface ; and a tool-positioning device coupled to the layup tool and configured to selectively position of the layup tool such that a compaction force , applied to the composite charge by the compaction device , is normal to the layup surface .
A bone implant, comprising a ceramic body formed on the basis of yttrium-stabilised and/or aluminium-oxide-stabilised zirconium oxide, the surface of said ceramic body being provided, at least in a partial region, with a structure having nanoscopic pores or being otherwise formed nanoscopically, and said surface having a depletion zone having a reduced yttrium or aluminium oxide content in comparison to the inner volume, wherein the depletion zone is arranged in a part of the ceramic body that can be inserted into a bone.
A porous ceramic body, comprising: an interconnected bead microstructure comprising: bead portions; bead connection portions, wherein adjacent bead portions are connected by the bead connection portions; a bead overlap of less than 0.2, bead overlap being fraction of radial interference between adjacent connected bead portions; and a porosity (P) as a fraction in a range of 0.3 to 0.7; a permeability factor PQ > 0.025, wherein PQ is (K bulk )/(P·d 50 2 ), K bulk being bulk permeability in Darcy, and dso being the mean pore size in micrometers (μm); a tortuosity in a range of 1.8 to 3; and a median pore size diameter dso in a range of 10 μm to 25 μm. an interconnected bead microstructure comprising: bead portions; bead connection portions, wherein adjacent bead portions are connected by the bead connection portions; a bead overlap of less than 0.2, bead overlap being fraction of radial interference between adjacent connected bead portions; and bead portions; bead connection portions, wherein adjacent bead portions are connected by the bead connection portions; a bead overlap of less than 0.2, bead overlap being fraction of radial interference between adjacent connected bead portions; and a porosity (P) as a fraction in a range of 0.3 to 0.7; a permeability factor PQ > 0.025, wherein PQ is (K bulk )/(P·d 50 2 ), K bulk being bulk permeability in Darcy, and dso being the mean pore size in micrometers (μm); a tortuosity in a range of 1.8 to 3; and a median pore size diameter dso in a range of 10 μm to 25 μm.
A method of controlling at least part of a start-up or re-light process of a gas turbine engine , the method comprising: controlling ignition within a combustion chamber of the gas turbine engine ; controlling rotation of a low pressure compressor using a first electrical machine , and controlling rotation of a high pressure compressor using a second electrical machine , the combustion chamber downstream of the low pressure compressor and high pressure compressor ; determining if an exit pressure of the high pressure compressor is equal to or greater than a self-sustaining threshold pressure; and in response to determining that the exit pressure of the high pressure compressor is equal to or greater than the self-sustaining threshold pressure, ceasing controlling rotation of the low pressure compressor using the first electrical machine , and/or the high pressure compressor using a second electrical machine , such that operation of the gas turbine engine is sustained by air drawn through the gas turbine engine . controlling ignition within a combustion chamber of the gas turbine engine ; controlling rotation of a low pressure compressor using a first electrical machine , and controlling rotation of a high pressure compressor using a second electrical machine , the combustion chamber downstream of the low pressure compressor and high pressure compressor ; determining if an exit pressure of the high pressure compressor is equal to or greater than a self-sustaining threshold pressure; and in response to determining that the exit pressure of the high pressure compressor is equal to or greater than the self-sustaining threshold pressure, ceasing controlling rotation of the low pressure compressor using the first electrical machine , and/or the high pressure compressor using a second electrical machine , such that operation of the gas turbine engine is sustained by air drawn through the gas turbine engine .
An in vitro method for constructing in a host cell a regulatable expression system on a synthetic chromosome comprising multiple copies of a site-specific recombination site, said method comprising using an integrase and a delivery vector to integrate two or more genes controlled by two or more different regulatory control systems into said chromosome via one or more of said site-specific recombination sites, wherein the expression of the two or more genes produces gene products that act in concert in a biological circuit.
A crystal of a monovalent cation salt of 3-hydroxyisovaleric acid, wherein: (i) the monovalent cation salt is a sodium salt, wherein in powder X-ray diffraction, the crystal has peaks at diffraction angles (2θ) of 8.4±0.2°, 6.6±0.2°, 19.7±0.2°, 13.3±0.2°, and 29.4±0.2°; or (ii) the monovalent cation salt is a sodium salt, wherein in powder X-ray diffraction, the crystal has peaks at diffraction angles (2θ) of 6.7±0.2°, 13.3±0.2°, and 20.0±0.2°; or (iii) the monovalent cation salt is a potassium salt, wherein in powder X-ray diffraction, the crystal has peaks at diffraction angles (2θ) of 9.0±0.2°, 27.1±0.2°, 23.8±0.2°, 16.1±0.2°, and 22.9±0.2°; or (iv) the monovalent cation salt is an ammonium salt, wherein in powder X-ray diffraction, the crystal has peaks at diffraction angles (2θ) of 19.9±0.2°, 21.1±0.2°, 29.9±0.2°, 17.3±0.2°, and 18.0±0.2°. (i) the monovalent cation salt is a sodium salt, wherein in powder X-ray diffraction, the crystal has peaks at diffraction angles (2θ) of 8.4±0.2°, 6.6±0.2°, 19.7±0.2°, 13.3±0.2°, and 29.4±0.2°; or (ii) the monovalent cation salt is a sodium salt, wherein in powder X-ray diffraction, the crystal has peaks at diffraction angles (2θ) of 6.7±0.2°, 13.3±0.2°, and 20.0±0.2°; or (iii) the monovalent cation salt is a potassium salt, wherein in powder X-ray diffraction, the crystal has peaks at diffraction angles (2θ) of 9.0±0.2°, 27.1±0.2°, 23.8±0.2°, 16.1±0.2°, and 22.9±0.2°; or (iv) the monovalent cation salt is an ammonium salt, wherein in powder X-ray diffraction, the crystal has peaks at diffraction angles (2θ) of 19.9±0.2°, 21.1±0.2°, 29.9±0.2°, 17.3±0.2°, and 18.0±0.2°.
A panel processing method of processing a panel that uses a honeycomb core , comprising: - placing a bottom plate on a bottom portion of an embedding hole which is a hole formed in the honeycomb core and in which an insert is to be embedded, - applying a sealer for closing a gap between a side portion of the bottom plate and a wall surface of the honeycomb core to an upper surface of the bottom plate , and - pressing a pushing plate against the sealer so that the sealer protrudes into the gap, - applying a temporary fixing adhesive to an upper surface of the pushing plate , - inserting an insert in the embedded hole , - injecting a filler from an upper portion of the insert , wherein the filler is an adhesive utilised for fixing the insert to the embedding hole . - placing a bottom plate on a bottom portion of an embedding hole which is a hole formed in the honeycomb core and in which an insert is to be embedded, - applying a sealer for closing a gap between a side portion of the bottom plate and a wall surface of the honeycomb core to an upper surface of the bottom plate , and - pressing a pushing plate against the sealer so that the sealer protrudes into the gap, - applying a temporary fixing adhesive to an upper surface of the pushing plate , - inserting an insert in the embedded hole , - injecting a filler from an upper portion of the insert , wherein the filler is an adhesive utilised for fixing the insert to the embedding hole .
An optical lens comprising a substrate having a front main face and a rear main face, the rear main face of which being successively coated with: - an abrasion and/or scratch resistant coating, - (A) a first high refractive index sheet having a refractive index higher than 1.55, which does not comprise any Ta 2 O 5 layer, - (B) a second low refractive index sheet having a refractive index of 1.55 or less in direct contact with the former sheet, - (C) a third high refractive index sheet having a refractive index higher than 1.55 in direct contact with the former sheet, - a monolayer sub-layer having a thickness higher than or equal to 100 nm in direct contact with the former sheet (C), - a multilayer interferential coating comprising a stack of at least one high refractive index layer having a refractive index higher than 1.55 and at least one low refractive index layer having a refractive index of 1.55 or less, and the mean reflection factor Ruv on said rear main face between 280 nm and 380 nm, weighted by the function W(λ) defined in the ISO 13666:1998 standard, is lower than 10 %, for an angle of incidence of 35°. - an abrasion and/or scratch resistant coating, - (A) a first high refractive index sheet having a refractive index higher than 1.55, which does not comprise any Ta 2 O 5 layer, - (B) a second low refractive index sheet having a refractive index of 1.55 or less in direct contact with the former sheet, - (C) a third high refractive index sheet having a refractive index higher than 1.55 in direct contact with the former sheet, - a monolayer sub-layer having a thickness higher than or equal to 100 nm in direct contact with the former sheet (C), - a multilayer interferential coating comprising a stack of at least one high refractive index layer having a refractive index higher than 1.55 and at least one low refractive index layer having a refractive index of 1.55 or less,
A retainer sleeve configured for use in a retainer system for a ground engaging tool, the retainer sleeve comprising: a plurality of plate-like sections , each section being flexibly joined with an adjacent section along either a radially inner edge or a portion of a radially outer edge ; the radially inner edges of the plurality of sections forming part of a segmented inner surface configured for engagement with an outer surface of a locking member of the retainer system , the inner surface extending partially around a central axis of the retainer sleeve to form a substantially C-shaped retainer sleeve having opposite circumferential ends that are spaced from each other; characterized in that the radially outer edges of the plurality of sections form part of a segmented, frustoconical outer surface configured for engagement in an internal lock cavity of a ground engaging tool tip . a plurality of plate-like sections , each section being flexibly joined with an adjacent section along either a radially inner edge or a portion of a radially outer edge ; the radially inner edges of the plurality of sections forming part of a segmented inner surface configured for engagement with an outer surface of a locking member of the retainer system , the inner surface extending partially around a central axis of the retainer sleeve to form a substantially C-shaped retainer sleeve having opposite circumferential ends that are spaced from each other; characterized in that the radially outer edges of the plurality of sections form part of a segmented, frustoconical outer surface configured for engagement in an internal lock cavity of a ground engaging tool tip .
A method for wireless communication, comprising: identifying , by a base station, a resource allocation for a device, the resource allocation being associated with wireless communication in an unlicensed radio frequency spectrum band for use of a semi-static allocation for the device to support autonomous uplink transmissions from the device, wherein autonomous uplink transmissions allow the device to make unscheduled uplink transmissions in the unlicensed radio frequency spectrum; generating a message comprising an indication of the resource allocation; and providing the message for transmission to the device. identifying , by a base station, a resource allocation for a device, the resource allocation being associated with wireless communication in an unlicensed radio frequency spectrum band for use of a semi-static allocation for the device to support autonomous uplink transmissions from the device, wherein autonomous uplink transmissions allow the device to make unscheduled uplink transmissions in the unlicensed radio frequency spectrum; generating a message comprising an indication of the resource allocation; and providing the message for transmission to the device.
A gain-equalized few-mode fiber amplifier, comprising: a fiber, comprising: a raised-index core having a radius a 1 = 8μm; a raised-index cladding surrounding the raised-index core , the raised-index cladding having an outer radius a 3 ≥ 16μm, the raised-index cladding having an index difference Δn 1 = 0.0081 relative to the raised-index core ; and a rare-earth doped active region having a radius a 2 = 16μm, the rare-earth doped active region configured to support a set of lower-order fiber modes at a selected signal wavelength, the rare-earth doped active region further configured to provide equalized gain across the set of lower-order fiber modes, the set of lower-order fiber modes having an optical field radius w 0 , the rare-earth doped active region comprising: an inner portion encompassing the raised-index core ; and an outer portion that extends partially into the raised-index inner cladding ; and wherein a 3 ≥ a 2 ≥ w 0 > a 1 . a fiber, comprising: a raised-index core having a radius a 1 = 8μm; a raised-index cladding surrounding the raised-index core , the raised-index cladding having an outer radius a 3 ≥ 16μm, a raised-index core having a radius a 1 = 8μm; a raised-index cladding surrounding the raised-index core , the raised-index cladding having an outer radius a 3 ≥ 16μm, the raised-index cladding having an index difference Δn 1 = 0.0081 relative to the raised-index core ; and a rare-earth doped active region having a radius a 2 = 16μm, the rare-earth doped active region configured to support a set of lower-order fiber modes at a selected signal wavelength, the rare-earth doped active region further configured to provide equalized gain across the set of lower-order fiber modes, the set of lower-order fiber modes having an optical field radius w 0 , the rare-earth doped active region comprising: an inner portion encompassing the raised-index core ; and an outer portion that extends partially into the raised-index inner cladding ; and an inner portion encompassing the raised-index core ; and an outer portion that extends partially into the raised-index inner cladding ; and wherein a 3 ≥ a 2 ≥ w 0 > a 1 .
Substrate carrier for disposing in a CVD or PVD reactor , in particular for separating carbon nanotubes and graphene, having a first broadside face for receiving a substrate to be coated and a second broadside face facing away from the first broadside face , wherein the first broadside face and the second broadside face in each case include one substrate-receiving zone in which fixing elements are provided, by way of which in each case one substrate or portions of a substrate is/are fastenable on the broadside face , wherein the substrate-receiving zone has two first peripheries that face away from one another, and two second peripheries that extend so as to be transverse to the first peripheries , with one handling portion of which protrusions , that each protrude beyond the second periphery , are formed, Characterized in that the substrate carrier is a flat body and the protrusions built by handling portions adjoining to the first peripheries are guiding portions, which engage with guiding elements of the CVD or PVD reactor.