mhurhangee/patent-ind-claim-en huggingface dataset:
Handlebar stem unit for a vehicle having a vehicle frame with a head tube and a wheel fork carrying a vehicle wheel, in which a fork stem of the wheel fork is rotatably mounted in the head tube and, at its end facing away from the vehicle wheel, forms an insertion opening to receive an insertion tube arranged on the handlebar stem unit , characterized in that - the insertion tube of the stem unit is configured so as to be stepped with a shoulder at its upper end projecting out of the fork stem and, above the shoulder , has an upper clamping region with a smaller external diameter (d) for clamping a clamping stem and, underneath the shoulder, has an insertion region with a larger diameter (D) than the diameter (d) of the clamping region, - wherein the external diameter (d) of the clamping region is matched to the internal cross section of the clamping stem clamped in the upper clamping region or a spacer ring that may possibly be provided, and wherein a larger external diameter (D) formed underneath the shoulder at the upper end of the insertion region of the insertion tube is matched to the external cross section of a clamp of the clamping stem or the external diameter of the spacer ring that may be present. - the insertion tube of the stem unit is configured so as to be stepped with a shoulder at its upper end projecting out of the fork stem and, above the shoulder , has an upper clamping region with a smaller external diameter (d) for clamping a clamping stem and, underneath the shoulder, has an insertion region with a larger diameter (D) than the diameter (d) of the clamping region, - wherein the external diameter (d) of the clamping region is matched to the internal cross section of the clamping stem clamped in the upper clamping region or a spacer ring that may possibly be provided, and
Process for treating waste products, wherein waste products (1.1) having a content of not more than 12 g/l of organic acids and salt contents of not more than 50 g/l are firstly subjected to an anaerobic fermentation and precipitation (A) to produce biogas , where part of the resulting liquid phase containing solid constituents is removed from the process and the other part of the liquid phase formed containing solid constituents is at least partly subjected to a magnesium ammonium phosphate precipitation (MAP precipitation) (B), where at least one gas and magnesium, in the form of ions or magnesium-containing compounds, and also phosphorus compounds and hydroxide ions in the form of compounds are introduced into the liquid phase containing solid constituents during the MAP precipitation (B) and a loop flow of the liquid phase containing solid constituents through the gas feed conduit is realized during the MAP precipitation (B), part of the liquid phase containing solid constituents formed in the MAP precipitation (B) is then removed from the process and the other part of the liquid phase containing solid constituents formed in the MAP precipitation (B) is fed to a filtration (C), where the retentate formed in the filtration (C) is either fed to the anaerobic fermentation (A) and/or discharged from the process and the permeate is subsequently fed to an electrochemical oxidation (D) and the anolyte from the oxidation (D) is then subjected to a reverse osmosis reaction (E) and the catholyte is removed from the process, where all liquid phases containing solid constituents which arise in the process and are discharged from the process and the liquid phase formed after the reverse osmosis reaction (E) are passed to a further use.
A compound, which is {4-Chloro-3-[(2,6-dimethyl-4-{2-[ -oxan-2-yl]ethoxy}benzene-1-carbothioyl)amino]phenyl}acetic acid, a pharmaceutically acceptable salt or an N-oxide thereof; or aforementioned compound in which some or all of the atoms constituting it are replaced by their isotopes.
A signal-to-noise ratio (SNR) estimation method comprising: an optical signal transmission step of inserting at least one pair of signal sequences into transmission data and transmitting the transmission data into which the at least one pair of signal sequences is inserted; a signal sequence extraction step of extracting the at least one pair of signal sequences from a received signal obtained by receiving the transmitted transmission data; an inner product calculation step of calculating an inner product value of the extracted at least one pair of signal sequences; a reception power calculation step of calculating reception power of the extracted at least one pair of signal sequences; and an SNR calculation step of calculating an SNR of the at least one pair of signal sequences on a basis of the calculated inner product value and the calculated reception power. an optical signal transmission step of inserting at least one pair of signal sequences into transmission data and transmitting the transmission data into which the at least one pair of signal sequences is inserted; a signal sequence extraction step of extracting the at least one pair of signal sequences from a received signal obtained by receiving the transmitted transmission data; an inner product calculation step of calculating an inner product value of the extracted at least one pair of signal sequences; a reception power calculation step of calculating reception power of the extracted at least one pair of signal sequences; and an SNR calculation step of calculating an SNR of the at least one pair of signal sequences on a basis of the calculated inner product value and the calculated reception power.
A method for revamping a catalytic converter wherein: said catalytic converter comprises a pressure vessel with a main axis and a catalytic cartridge containing at least one catalyst bed, the pressure vessel includes a shell with a full aperture and includes a removable cover connected to a flange of said full aperture, the catalytic cartridge being removable through said aperture , and the method includes: a) connecting an additional shell to said flange of said aperture of the original shell , thus obtaining an axially extended shell of the pressure vessel, thereby extending said pressure vessel along said main axis; b) providing an axially extended catalytic cartridge having an axially extended room for holding catalyst in the so obtained axially extended shell. said catalytic converter comprises a pressure vessel with a main axis and a catalytic cartridge containing at least one catalyst bed, the pressure vessel includes a shell with a full aperture and includes a removable cover connected to a flange of said full aperture, the catalytic cartridge being removable through said aperture , and the method includes: a) connecting an additional shell to said flange of said aperture of the original shell , thus obtaining an axially extended shell of the pressure vessel, thereby extending said pressure vessel along said main axis; b) providing an axially extended catalytic cartridge having an axially extended room for holding catalyst in the so obtained axially extended shell. a) connecting an additional shell to said flange of said aperture of the original shell , thus obtaining an axially extended shell of the pressure vessel, thereby extending said pressure vessel along said main axis; b) providing an axially extended catalytic cartridge having an axially extended room for holding catalyst in the so obtained axially extended shell.
An apparatus for manufacturing a metallic article, comprising: a reduction apparatus for electrochemically reducing a feedstock to a metallic product; a processor for converting the metallic product to a metallic powder; and an additive-manufacturing apparatus for fabricating the metallic article from the metallic powder; in which the reduction apparatus, the processor and the additive-manufacturing apparatus are collocated, or are located on the same site, and in which the reduction apparatus comprises an electrochemical cell in which, in use, an anode and a cathode are in contact with a fused salt and the feedstock contacts the cathode and the fused salt, and an electrical power supply for applying a cathode potential to the cathode so that the feedstock is reduced to the metallic product. a reduction apparatus for electrochemically reducing a feedstock to a metallic product; a processor for converting the metallic product to a metallic powder; and an additive-manufacturing apparatus for fabricating the metallic article from the metallic powder; in which the reduction apparatus, the processor and the additive-manufacturing apparatus are collocated, or are located on the same site, and in which the reduction apparatus comprises an electrochemical cell in which, in use, an anode and a cathode are in contact with a fused salt and the feedstock contacts the cathode and the fused salt, and an electrical power supply for applying a cathode potential to the cathode so that the feedstock is reduced to the metallic product.
An arrangement comprising a busbar device and a converter housing , the busbar device comprising a stack of at least two busbars (7a-7c) and an electrically insulating insulation body enclosing the busbars (7a-7c) in two insulation regions (10a-10d) of the busbar device , each busbar (7a-7c) having two opposing base surfaces extending in the direction of current flow and side surfaces connecting the base surfaces and extending in the direction of current flow, characterized in that the busbar device has a tempering region (11a-11 c) formed between the insulation regions (10a-10d), in which tempering region (11a-11c) the insulation body has an opening which exposes one of the side surfaces and a part of at least one of the base surfaces of a respective busbar (7a-7c), the busbars (7a-7c) being thermally connected to the converter housing in the temperature control region (11a-11c) by a heat transfer means , the heat transfer means being a gap filler in which the busbars (7a-7c) are immersed in the temperature control region (11a-11c), so that this gap filler simultaneously implements a thermal connection and an electrical insulation to the converter housing. characterized in that the busbar device has a tempering region (11a-11 c) formed between the insulation regions (10a-10d), in which tempering region (11a-11c) the insulation body has an opening which exposes one of the side surfaces and a part of at least one of the base surfaces of a respective busbar (7a-7c), the busbars (7a-7c) being thermally connected to the converter housing in the temperature control region (11a-11c) by a heat transfer means , the heat transfer means being a gap filler in which the busbars (7a-7c) are immersed in the temperature control region (11a-11c), so that this gap filler simultaneously implements a thermal connection and an electrical insulation to the converter housing.
A method for combining non-invasive transcranial stimulation navigation with functional data, said method comprising the steps of; - acquiring an anatomical image of a brain, - acquiring functional data of the brain, - coregistering at least a portion of the functional data, said portion being associated with a portion of interest of the brain, with the corresponding location from the anatomical image, and - stereotactically aligning the combined view of the brain with transcranial magnetic stimulation (TMS) navigation software. - acquiring an anatomical image of a brain, - acquiring functional data of the brain, - coregistering at least a portion of the functional data, said portion being associated with a portion of interest of the brain, with the corresponding location from the anatomical image, and - stereotactically aligning the combined view of the brain with transcranial magnetic stimulation (TMS) navigation software.
An aircraft hybrid propulsion system comprising: a heat engine configured to drive a heat engine shaft ; an electric motor configured to drive a motor shaft ; a transmission system connected to receive rotational input power from each of the heat engine shaft and the motor shaft and to convert the rotation input power to output power; a first lubrication/coolant system connected for circulating a first lubricant/coolant fluid through the heat engine ; a second lubricant/coolant system in fluid isolation from the first lubrication/coolant system , wherein the second lubricant/coolant system is connected for circulating a second lubricant/coolant fluid through the electric motor ; characterised in that the system comprises: a combining gearbox connected to the heat engine and to the electric motor for combining power from the heat engine and electric motor to provide output power; and a pressure pump operatively connected to be powered by the combining gearbox , wherein the pressure pump is connected in a coolant line of the second lubricant/coolant system between a sump tank and the electric motor for driving flow of the second lubricant/coolant from the sump tank to the electric motor . a heat engine configured to drive a heat engine shaft ; an electric motor configured to drive a motor shaft ; a transmission system connected to receive rotational input power from each of the heat engine shaft and the motor shaft and to convert the rotation input power to output power; a first lubrication/coolant system connected for circulating a first lubricant/coolant fluid through the heat engine ; a second lubricant/coolant system in fluid isolation from the first lubrication/coolant system , wherein the second lubricant/coolant system is connected for circulating a second lubricant/coolant fluid through the electric motor ; a combining gearbox connected to the heat engine and to the electric motor for combining power from the heat engine and electric motor to provide output power; and a pressure pump operatively connected to be powered by the combining gearbox , wherein the pressure pump is connected in a coolant line of the second lubricant/coolant system between a sump tank and the electric motor for driving flow of the second lubricant/coolant from the sump tank to the electric motor .
A method for preparing nano-copper powder, consisting of: providing a dispersion solution, the dispersion solution contains at least one copper salt precursor and at least one disperser, the disperser is dissoluble in both water and weak solvents and the disperser is an acrylic modified polyurethane disperser; providing a reducer dispersion solution, the reducer dispersion solution contains at least one reducer, wherein the reducer is organic borane being one or more selected from the group consisting of dimethylamine borane, triethyl borane, pyridine borane, pinacolborane and tert -butylamine borane; contacting the reducer dispersion solution with the dispersion solution provided by step in a condition enough to reduce the copper salt precursor by the reducer into elementary copper; separating copper nano-particles from reaction solution obtained by step , and drying separated copper nano-particles by spray drying, so as to obtain the nano-copper powder. providing a dispersion solution, the dispersion solution contains at least one copper salt precursor and at least one disperser, the disperser is dissoluble in both water and weak solvents and the disperser is an acrylic modified polyurethane disperser; providing a reducer dispersion solution, the reducer dispersion solution contains at least one reducer, wherein the reducer is organic borane being one or more selected from the group consisting of dimethylamine borane, triethyl borane, pyridine borane, pinacolborane and tert -butylamine borane; contacting the reducer dispersion solution with the dispersion solution provided by step in a condition enough to reduce the copper salt precursor by the reducer into elementary copper; separating copper nano-particles from reaction solution obtained by step , and drying separated copper nano-particles by spray drying, so as to obtain the nano-copper powder.
A light emitting device comprising: a substrate having first surface and a second surface opposing the first surface, the first surface having a concave part extending to the inside of the substrate; a plurality of light emitting cells (LEC_1, LEC_2) disposed on the first surface of the substrate; and a light shielding layer filling at least a portion of the concave part and disposed between the plurality of light emitting cells; wherein the light shielding layer is disposed on the first surface of the substrate; and wherein light generated from the plurality of light emitting cells is emitted through the second surface of the substrate, and wherein the concave part includes a vertical part (VL) extending along a first direction and horizontal part (HL) along a second direction crossing the first direction in a top view, characterised by an insulating layer disposed on the light shielding layer. a substrate having first surface and a second surface opposing the first surface, the first surface having a concave part extending to the inside of the substrate; a plurality of light emitting cells (LEC_1, LEC_2) disposed on the first surface of the substrate; and a light shielding layer filling at least a portion of the concave part and disposed between the plurality of light emitting cells; wherein the light shielding layer is disposed on the first surface of the substrate; and wherein light generated from the plurality of light emitting cells is emitted through the second surface of the substrate, and wherein the concave part includes a vertical part (VL) extending along a first direction and horizontal part (HL) along a second direction crossing the first direction in a top view, characterised by an insulating layer disposed on the light shielding layer.
A process for manufacturing a carbon nanotube (CNT) sheet, comprising the step of: i) moving a continuous conveying belt along a path that traverses a pooling region and a vacuum box; characterized in that the process further comprises the steps of: ii) applying a continuous porous carrier material to an upper side of the continuous conveying belt; iii) applying an aqueous suspension of carbon nanotubes (CNTs) dispersed in a liquid on the porous carrier material, the dispersed CNTs having a median length of at least 0.05 mm and an aspect ratio of at least 2,500:1; iv) forming a continuous pool of the aqueous suspension of the CNTs over and across the width of the continuous porous carrier material in the pooling region, the continuous pool of the aqueous suspension of the CNTs having a uniform thickness sufficient to prevent puddling upon the continuous porous carrier material; v) advancing the porous carrier material and the continuous pool of the aqueous suspension of the CNTs over the vacuum box; vi) drawing by vacuum the liquid of the aqueous suspension of the CNTs through the porous carrier material, and filtering a uniform dispersion of filtered CNTs over the porous carrier material to form a filtered CNT structure; vii) optionally drying any residual liquid from the filtered CNT structure to form a CNT sheet over the porous carrier material; and viii) removing the CNT sheet from the porous carrier material. i) moving a continuous conveying belt along a path that traverses a pooling region and a vacuum box; ii) applying a continuous porous carrier material to an upper side of the continuous conveying belt; iii) applying an aqueous suspension of carbon nanotubes (CNTs) dispersed in a liquid on the porous carrier material, the dispersed CNTs having a median length of at least 0.05 mm and an aspect ratio of at least 2,500:1; iv) forming a continuous pool of the aqueous suspension of the CNTs over and across the width of the continuous porous carrier material in the pooling region, the continuous pool of the aqueous suspension of the CNTs having a uniform thickness sufficient to prevent puddling upon the continuous porous carrier material; v) advancing the porous carrier material and the continuous pool of the aqueous suspension of the CNTs over the vacuum box; vi) drawing by vacuum the liquid of the aqueous suspension of the CNTs through the porous carrier material, and filtering a uniform dispersion of filtered CNTs over the porous carrier material to form a filtered CNT structure; vii) optionally drying any residual liquid from the filtered CNT structure to form a CNT sheet over the porous carrier material; and viii) removing the CNT sheet from the porous carrier material.
Grip assembly for a closing device for a movable door or similar on a vehicle, with a first module which includes a grip support and is to be arranged on an inner side (11.4) of the door by means of the grip support , and a second module which is to be arranged on an outer side (11.5) of the door and contains a grip element , wherein the grip element is mounted movably relative to the door to enable operation of the grip assembly , wherein the second module has a grip plate which is to be arranged on the outer side (11.5) of the door , and the grip element is mounted movably on the grip plate , characterized in that the first module includes a locking unit which serves to lock the grip element , wherein the locking unit is operable from a locked position into a released position via an operating unit , and the first module has a cylinder lock which is used for manually unlocking an security system, whereby the locking device is operable by means of the grip element and the operating unit covers the cylinder lock facing the outer side (11.5) of the door, wherein the operating unit at least partially releases the cylinder lock upon manual operation.
A multiple phase electrical system , comprising: a first and a second electrical lane , each lane having a generator and a load connected by a bus system , and a rectifier between the generator and load; and, a transformer connected between the two lanes, the transformer having a plurality of power windings (530a-c) across each of which corresponding phases of the first and second lanes are connected, characterized in that the transformer has a plurality of phase shift windings (332a-c); and, the transformer further comprises a filter provided between the mid points of the power windings. a first and a second electrical lane , each lane having a generator and a load connected by a bus system , and a rectifier between the generator and load; and, a transformer connected between the two lanes, the transformer having a plurality of power windings (530a-c) across each of which corresponding phases of the first and second lanes are connected, characterized in that the transformer has a plurality of phase shift windings (332a-c); and, the transformer further comprises a filter provided between the mid points of the power windings.
A tooth whitening composition comprising: at least one hydrophobic polymer carrier, wherein the hydrophobic polymer carrier is a siloxane polymer; fumed silica; sorbitan sebacate behenate polymer; and at least one whitening agent; wherein the tooth whitening composition has a structural parameter such that G'/G" is greater than or equal to about 1 and wherein the G'/G" is measured by a strain sweep test performed at 25 °C. at least one hydrophobic polymer carrier, wherein the hydrophobic polymer carrier is a siloxane polymer; fumed silica; sorbitan sebacate behenate polymer; and at least one whitening agent; wherein the tooth whitening composition has a structural parameter such that G'/G" is greater than or equal to about 1 and wherein the G'/G" is measured by a strain sweep test performed at 25 °C.
A radiation curable inkjet ink composition, comprising: (A) a mono-ethylenically unsaturated oligomer; (B) a mono-ethylenically unsaturated monomer; and (C) a solvent; wherein the radiation curable inkjet ink composition is substantially free of a photoinitiator; and wherein a total weight of the mono-ethylenically unsaturated oligomer (A) is less than or equal to a total weight of the mono-ethylenically unsaturated monomer (B). (A) a mono-ethylenically unsaturated oligomer; (B) a mono-ethylenically unsaturated monomer; and (C) a solvent;