mhurhangee/patent-ind-claim-en huggingface dataset:
Nanogel compound comprising • a nanogel matrix component comprising a dendritic polyglycerol crosslinked by poly(N-isopropylacrylamide), and • a first conjugation component which forms a semi-interpenetrating network with the nanogel matrix component, characterized in that the first conjugation component is 2-acrylamido-2-methyl-1-propanesulfonic acid. • a nanogel matrix component comprising a dendritic polyglycerol crosslinked by poly(N-isopropylacrylamide), and • a first conjugation component which forms a semi-interpenetrating network with the nanogel matrix component,
A method of repairing an acoustic panel for an aircraft nacelle characterized in that it comprises: coupling a fiberglass ply to the acoustic panel; creating dimples in the fiberglass ply using a differential pressure, wherein the dimples are located within first perforations in the acoustic panel; coupling the fiberglass ply to a replacement patch ; and drilling second perforations in the replacement patch . coupling a fiberglass ply to the acoustic panel; creating dimples in the fiberglass ply using a differential pressure, wherein the dimples are located within first perforations in the acoustic panel; coupling the fiberglass ply to a replacement patch ; and drilling second perforations in the replacement patch .
A gas turbine engine , comprising: a bearing compartment ; a scavenge line coupled to the bearing compartment at a first end (328a-1) of the scavenge line that receives a fluid via the first end (328a-1) of the scavenge line ; a fluid pump coupled to the scavenge line at a second end (328a-2) of the scavenge line to receive the fluid; a flow control valve having a variable flow area and disposed in the scavenge line to control flow of the fluid in the scavenge line and the fluid pump ; and a seal (210a,b), wherein the seal (210a,b) provides air to the bearing compartment during a steady state condition associated with an operation of the engine ; characterised in that the flow control valve includes at least one bypass orifice that provides at least a portion of the fluid through the flow control valve during the steady state condition. a bearing compartment ; a scavenge line coupled to the bearing compartment at a first end (328a-1) of the scavenge line that receives a fluid via the first end (328a-1) of the scavenge line ; a fluid pump coupled to the scavenge line at a second end (328a-2) of the scavenge line to receive the fluid; a flow control valve having a variable flow area and disposed in the scavenge line to control flow of the fluid in the scavenge line and the fluid pump ; and a seal (210a,b), wherein the seal (210a,b) provides air to the bearing compartment during a steady state condition associated with an operation of the engine ; characterised in that the flow control valve includes at least one bypass orifice that provides at least a portion of the fluid through the flow control valve during the steady state condition.
A method for the quantification of dissolved gases in solvent solutions comprising: (i) separating dissolved gases from a solvent solution by means of a gas permeable membrane at gas liquid equilibrium conditions, (ii) determining the total gas pressure p tot of the separated gases at the equilibrium conditions, (iii) determining the solvent partial pressure p solv in the separated gases, optionally from the solvent temperature at the equilibrium conditions, (iv) feeding at least part of all separated gases to a gas analysis device, optionally by pressure-reducing means, optionally by capillary means, (v) determining the uncorrected partial pressures x i of all separated gases that significantly contribute to the total gas pressure p tot at the gas liquid equilibrium conditions, (vi) determining the sum of all uncorrected partial pressures x tot , and (vii) determining the partial pressures p i of one or more, optionally all dissolved gases, wherein, in step (vi), the sum of all uncorrected partial pressures x tot is determined by formula (I): x tot = ∑ i x i , and the partial pressures p i step (vii) are determined by formula (II): p i = x i x tot × p tot − p Solv . (i) separating dissolved gases from a solvent solution by means of a gas permeable membrane at gas liquid equilibrium conditions, (ii) determining the total gas pressure p tot of the separated gases at the equilibrium conditions, (iii) determining the solvent partial pressure p solv in the separated gases, optionally from the solvent temperature at the equilibrium conditions, (iv) feeding at least part of all separated gases to a gas analysis device, optionally by pressure-reducing means, optionally by capillary means, (v) determining the uncorrected partial pressures x i of all separated gases that significantly contribute to the total gas pressure p tot at the gas liquid equilibrium conditions, (vi) determining the sum of all uncorrected partial pressures x tot , and (vii) determining the partial pressures p i of one or more, optionally all dissolved gases, wherein, in step (vi), the sum of all uncorrected partial pressures x tot is determined by formula (I): x tot = ∑ i x i , and the partial pressures p i step (vii) are determined by formula (II): p i = x i x tot × p tot − p Solv .
A method of reducing particulate matter from an exhaust gas from a carbon black process, comprising: combusting the exhaust gas to thereby produce a combusted exhaust gas comprising particulate matter; catalytically oxidizing at least a portion of the particulate matter, thereby removing at least a portion of the particulate matter from the combusted exhaust gas using a guard bed comprising an oxidation catalyst. combusting the exhaust gas to thereby produce a combusted exhaust gas comprising particulate matter; catalytically oxidizing at least a portion of the particulate matter, thereby removing at least a portion of the particulate matter from the combusted exhaust gas using a guard bed comprising an oxidation catalyst.
A Δ FolT mutant of a bacterium having reduced capacity to transport folate, wherein said capacity has been reduced by functionally deleting folate transporter (FolT) function, whereby said ΔFolT mutant is classifiable as a Streptococcus suis, whereby said Δ FolT mutant preferably has reduced expression of FolT, whereby said Δ FolT mutant has a mutation or deletion of or in the peptide domain FYRKP or insertion in the peptide domain FYRKP, preferably having a mutation of R in the peptide domain FYRKP. whereby said ΔFolT mutant is classifiable as a Streptococcus suis, whereby said Δ FolT mutant preferably has reduced expression of FolT, whereby said Δ FolT mutant has a mutation or deletion of or in the peptide domain FYRKP or insertion in the peptide domain FYRKP, preferably having a mutation of R in the peptide domain FYRKP.
A holding apparatus for holding a plurality of substrates in a plasma-assisted deposition of a layer from the gas phase onto the substrate comprising: - carrier inner plates arranged parallel to one another which are each configured for carrying substrates on opposite sides, - carrier outer plates arranged parallel to the carrier inner plates having an inner surface facing the carrier inner plates and an outer surface facing away from the carrier inner plates , wherein each carrier outer plate is configured for carrying one or more substrates on its inner surface and to be substrate-free on its outer surface and - shielding plates which are arranged in each case spaced apart from the outside of the carrier outer plate such that the shielding plates at least very largely shade the carrier outer plates in a plan view of the carrier outer plates , wherein each shielding plate is configured to be substrate-free. - carrier inner plates arranged parallel to one another which are each configured for carrying substrates on opposite sides, - carrier outer plates arranged parallel to the carrier inner plates having an inner surface facing the carrier inner plates and an outer surface facing away from the carrier inner plates , wherein each carrier outer plate is configured for carrying one or more substrates on its inner surface and to be substrate-free on its outer surface and - shielding plates which are arranged in each case spaced apart from the outside of the carrier outer plate such that the shielding plates at least very largely shade the carrier outer plates in a plan view of the carrier outer plates , wherein each shielding plate is configured to be substrate-free.
A light beam deflecting element comprising: an active type N x M transmissive birefringence modulator , including: a first substrate portion having a first substrate and N x M rectangular pixels which are arranged in a matrix form on the first substrate , wherein the first substrate is a Si substrate or a Ge substrate, each of the pixels is formed by an electronic circuit and a transparent electrode , the matrix form is configured by N pixels along a X axis direction and M pixels along a Y axis direction, and the X and Y directions are orthogonal to each other, a second substrate portion having a second substrate and a transparent electrode formed on the second substrate so as to cover one surface of the second substrate all over with the transparent electrode , wherein the second substrate is a Si substrate or a Ge substrate, and birefringent liquid crystals inserted between the first substrate portion and the second substrate portion, characterized in that the modulator is configured to be fitted on a polarization grating configured by orthogonal first and second axes in which a birefringence axis is rotating in a direction along the first axis at a period that gradually changes in accordance with a wavelength of incident light, the period is not a constant period, and the polarization grating is aligned such that the X axis and the first axis or the Y axis and the first axis are substantially in parallel. a first substrate portion having a first substrate and N x M rectangular pixels which are arranged in a matrix form on the first substrate , wherein the first substrate is a Si substrate or a Ge substrate, each of the pixels is formed by an electronic circuit and a transparent electrode , the matrix form is configured by N pixels along a X axis direction and M pixels along a Y axis direction, and the X and Y directions are orthogonal to each other, a second substrate portion having a second substrate and a transparent electrode formed on the second substrate so as to cover one surface of the second substrate all over with the transparent electrode , wherein the second substrate is a Si substrate or a Ge substrate, and birefringent liquid crystals inserted between the first substrate portion and the second substrate portion, characterized in that the modulator is configured to be fitted on a polarization grating configured by orthogonal first and second axes in which a birefringence axis is rotating in a direction along the first axis at a period that gradually changes in accordance with a wavelength of incident light, the period is not a constant period, and the polarization grating is aligned such that the X axis and the first axis or the Y axis and the first axis are substantially in parallel.
A method of combusting fuel in a rotary engine , the method comprising: injecting a main quantity of the fuel , optionally heavy fuel, directly into a combustion chamber of the rotary engine to form a first fuel-air mixture within the combustion chamber , the first fuel-air mixture having a first air-fuel equivalence ratio A higher than 1; injecting a pilot quantity of the fuel into a pilot subchamber to form a second fuel-air mixture within the pilot subchamber , the second fuel-air mixture having a second air-fuel equivalence ratio A smaller than the first air-fuel equivalence ratio; igniting the second fuel-air mixture within the pilot subchamber ; using the ignited second fuel-air mixture from the pilot subchamber to ignite the first fuel-air mixture; and after igniting the first fuel-air mixture, injecting a supplemental quantity of the fuel directly into the combustion chamber , the supplemental quantity being injected upstream of an exhaust port of the rotary engine with respect to a direction of rotation (R) of a rotor . injecting a main quantity of the fuel , optionally heavy fuel, directly into a combustion chamber of the rotary engine to form a first fuel-air mixture within the combustion chamber , the first fuel-air mixture having a first air-fuel equivalence ratio A higher than 1; injecting a pilot quantity of the fuel into a pilot subchamber to form a second fuel-air mixture within the pilot subchamber , the second fuel-air mixture having a second air-fuel equivalence ratio A smaller than the first air-fuel equivalence ratio; igniting the second fuel-air mixture within the pilot subchamber ; using the ignited second fuel-air mixture from the pilot subchamber to ignite the first fuel-air mixture; and after igniting the first fuel-air mixture, injecting a supplemental quantity of the fuel directly into the combustion chamber , the supplemental quantity being injected upstream of an exhaust port of the rotary engine with respect to a direction of rotation (R) of a rotor .
A sanitary fitting with a hollow cylindrical fitting housing , in which is arranged a cartridge insert , which fluidically connects a mixing cartridge with a flexible mixed water hose , the cartridge insert having a mixed water connection to which the flexible mixed water hose is attached in a fluid-tight manner, wherein for forming the mixed water connection , the flexible mixed water hose transitions on the connection side into a sleeve-like cartridge insert receptacle , and wherein the sleeve-like cartridge insert receptacle engages around the cartridge insert in a fluid-tight manner, and wherein a passage is formed in the sleeve wall of the sleeve-like cartridge insert receptacle , via which passage the mixed water flows from the cartridge insert into the flexible mixed water hose , wherein a water outlet is formed on the fitting housing , through which water outlet the flexible mixed water hose is loosely guided, and a mousseur unit is mounted on an outlet opening of the water outlet , and wherein the mousseur unit is connected in a fluid-tight manner to a hose outlet of the flexible mixed water hose , wherein at its hose outlet, the flexible mixed water hose transitions, in particular integrally and/or as a single piece, into a sleeve-like mousseur receptacle , wherein in particular the sleeve-like mousseur receptacle can be plug-in-connected, in a fluid-tight manner, to a connection pipe of the mousseur unit , wherein the mousseur unit is configured in two parts, namely a mousseur and a mounting ring , wherein the mounting ring is screwed, with a male thread thereof, into the outlet opening of the water outlet , characterized in that the flexible mixed water hose opens by its hose outlet into a sleeve wall of the sleeve-like mousseur receptacle , forming an inside corner area which is spread out between the flexible mixed water hose and the sleeve wall of the sleeve-like mousseur receptacle , and that the sleeve-like mousseur receptacle is pushed into the connection pipe of the mousseur unit in a fluid-tight manner, that the mounting ring has a female thread, into which female thread the mousseur is screwed, and that in particular the mounting ring has a diameter-sized ring section , in which both the female thread and the male thread are formed, and a diametrically smaller ring section , which forms the connection pipe that is plug-in-connected to the sleeve-like mousseur receptacle .
An implement for depositing fluid in the rhizosphere of plants growing in a field and for covering said fluid, the implement comprising: a frame ; an implement configured to dispense fluids; and a soil moving implement attached to the frame and disposed in a middle region between a first row of plants and a second row of plants and configured to move soil from between the rows to at least the rhizosphere of the plants as the soil moving implement traverses the field, wherein the implement further comprises a vertical member attached to the frame and extending down towards the soil and a support member attached to the vertical member at the opposite end to the frame, the soil moving implement disposed on the support member, the support member extending rearward opposite the direction of travel, the length of the support member configured sufficient to have the soil moving implement disposed after fluid is applied to the row crops so that soil can be moved to cover the fluid; characterized by the support member being pivotably attached to the vertical member and a biasing member disposed between the vertical member and the support member to apply a force on the soil moving implement towards the soil. a frame ; an implement configured to dispense fluids; and a soil moving implement attached to the frame and disposed in a middle region between a first row of plants and a second row of plants and configured to move soil from between the rows to at least the rhizosphere of the plants as the soil moving implement traverses the field, wherein the implement further comprises a vertical member attached to the frame and extending down towards the soil and a support member attached to the vertical member at the opposite end to the frame, the soil moving implement disposed on the support member, the support member extending rearward opposite the direction of travel, the length of the support member configured sufficient to have the soil moving implement disposed after fluid is applied to the row crops so that soil can be moved to cover the fluid; characterized by the support member being pivotably attached to the vertical member and a biasing member disposed between the vertical member and the support member to apply a force on the soil moving implement towards the soil.
A flexible catheter-based pericardial modification device , comprising a shaft and an incisor , wherein the pericardial modification device is configured to be used with a guidewire and an introducer sheath , wherein (a) shaft comprises a lumen in which guidewire is slideably receivable, or/and (b) the device comprises a collar and the collar is coupled with the guidewire , wherein device further comprises an atraumatic tip and nerve stimulation capabilities, characterized in that the device is a reverse cutting device , wherein the incisor comprises a tip and a cutting portion comprising a sharpened edge along the incisor for shearing pericardial tissue; and the incisor is pivotably coupled to the shaft . (a) shaft comprises a lumen in which guidewire is slideably receivable, or/and (b) the device comprises a collar and the collar is coupled with the guidewire ,
An isolated anti-human-ROR-1 antibody comprising a heavy chain variable region and a light chain variable region, wherein said heavy chain variable region comprises the amino acid sequence set forth in any one of SEQ ID NO: 1, SEQ ID NO: 5, SEQ ID NO: 9, SEQ ID NO: 13, and SEQ ID NO: 17; and wherein said light chain variable region comprises the amino acid sequence set forth in any one of SEQ ID NO: 3, SEQ ID NO: 7, SEQ ID NO: 11, SEQ ID NO: 15, and SEQ ID NO: 19.
A plate for fixing a wash basin to a wall, said plate comprising: a first surface and a second surface opposing one another; at least four holes for fixing said plate to a wall, each hole extending from said first surface to said second surface; a slot with a width and a length; said slot comprising a central aperture ; said second surface comprising a milled recess adjacent to the periphery of said slot ; said plate further comprising an elevator bolt , characterised in that said slot , said central aperture and said recess are configured such that, when fixed to a wall, a head of said elevator bolt can be inserted through said central aperture and said elevator bolt can be moved along the length of said slot , said recess configured to accommodate said head such that a surface of said head sits flush with said second surface. a first surface and a second surface opposing one another; at least four holes for fixing said plate to a wall, each hole extending from said first surface to said second surface; a slot with a width and a length; said slot comprising a central aperture ; said second surface comprising a milled recess adjacent to the periphery of said slot ; said plate further comprising an elevator bolt , characterised in that said slot , said central aperture and said recess are configured such that, when fixed to a wall, a head of said elevator bolt can be inserted through said central aperture and said elevator bolt can be moved along the length of said slot , said recess configured to accommodate said head such that a surface of said head sits flush with said second surface.
A method of writing data into a memory device , the method comprising: writing a data word into a memory bank at a selected one of a plurality of memory addresses, wherein the memory bank comprises a plurality of memory cells, wherein the memory cells are spin-transfer torque magnetic random access memory (STT-MRAM) memory cells, and wherein each memory cell is arranged to store a data word at one of a plurality of memory addresses; verifying the data word written into the memory bank to determine whether the data word was successfully written thereto; responsive to a determination that the data word was not successfully written, writing the data word and the selected one of the plurality of memory addresses into a first level dynamic redundancy register ; and re-writing the data word stored in the first level dynamic redundancy register into the memory bank at the selected one of the plurality of memory addresses. writing a data word into a memory bank at a selected one of a plurality of memory addresses, wherein the memory bank comprises a plurality of memory cells, wherein the memory cells are spin-transfer torque magnetic random access memory (STT-MRAM) memory cells, and wherein each memory cell is arranged to store a data word at one of a plurality of memory addresses; verifying the data word written into the memory bank to determine whether the data word was successfully written thereto; responsive to a determination that the data word was not successfully written, writing the data word and the selected one of the plurality of memory addresses into a first level dynamic redundancy register ; and re-writing the data word stored in the first level dynamic redundancy register into the memory bank at the selected one of the plurality of memory addresses.
A clutch device in a drive train of a vehicle, having a housing , a first clutch with a clutch input connected to a drive shaft or formed by the drive shaft , and a second clutch , wherein the first clutch is assigned a first actuating device for applying a first actuating force to the first clutch , and the second clutch is assigned a second actuating device for applying a second actuating force to the second clutch , wherein the clutch device comprises a support bearing for supporting the first actuating force and comprises a support bearing system for supporting the second actuating force , wherein the support bearing is axially supported on an element of the housing , and the support bearing system comprises a first bearing element arranged in the axial direction between a multiple disc carrier of the second clutch and the clutch input , such that a second actuating force transmitted axially from the second clutch to the multiple disc carrier can be transmitted from the multiple disc carrier of the second clutch via the first bearing element to the clutch input , and the support bearing system comprises a second bearing element , which is arranged in the axial direction between the clutch input and the element of the housing , such that the second actuating force transmitted to the clutch input can be transmitted from the second bearing element to the element of the housing , characterised in that the second bearing element rests with its radial outer side on the clutch input and with its radial inner side rests on the element of the housing .