mhurhangee/patent-ind-claim-en huggingface dataset:
A rear roof cross beam mounting structure for a vehicle, wherein the rear roof cross beam mounting structure comprises: a left D pillar and a right D pillar, the left D pillar and the right D pillar each being fixed to a body of the vehicle; a lower cross beam, the lower cross beam being arranged between the left D pillar and the right D pillar; and a pre-positioning structure, the pre-positioning structure comprising pre-positioning posts and pre-positioning holes, the rear roof cross beam mounting structure being characterized in that the pre-positioning posts are columnar protrusions respectively extend upwardly from bodies of the left D pillar and the right D pillar along a center line offset from a Z-direction of the vehicle by a predetermined acute angle, the pre-positioning holes are U-shaped grooves respectively formed in a left side edge and a right side edge of the lower cross beam and having openings facing away from a body of the lower cross beam, and the columnar protrusions are configured to be insertable into corresponding U-shaped grooves such that the lower cross beam is placed on each of the left D pillar and the right D pillar along the center line. a left D pillar and a right D pillar, the left D pillar and the right D pillar each being fixed to a body of the vehicle; a lower cross beam, the lower cross beam being arranged between the left D pillar and the right D pillar; and a pre-positioning structure, the pre-positioning structure comprising pre-positioning posts and pre-positioning holes, the rear roof cross beam mounting structure being characterized in that the pre-positioning posts are columnar protrusions respectively extend upwardly from bodies of the left D pillar and the right D pillar along a center line offset from a Z-direction of the vehicle by a predetermined acute angle, the pre-positioning holes are U-shaped grooves respectively formed in a left side edge and a right side edge of the lower cross beam and having openings facing away from a body of the lower cross beam, and the columnar protrusions are configured to be insertable into corresponding U-shaped grooves such that the lower cross beam is placed on each of the left D pillar and the right D pillar along the center line.
A lubricant composition comprising an oil of lubricating viscosity and an N-hydrocarbyl-substituted γ-aminoester or γ-aminothioester present in an amount of 0.5 to 5 percent by weight, wherein the N-hydrocarbyl substituent comprises a hydrocarbyl group of at least 3 carbons atoms, with a branch at the 1 or 2 position of the hydrocarbyl group, provided that if the ester or thioester is a methyl ester or methyl thioester then the hydrocarbyl group has a branch at the 1 position, and further provided that the hydrocarbyl group is not a tertiary group.
A high-strength stainless steel seamless pipe for oil country tubular goods, the high-strength stainless steel seamless pipe having a yield strength of 862 MPa or more with a composition that comprises, in mass%, C :0.05% or less, Si: 0.5% or less, Mn: 0.15 to 1.0%, P :0.030% or less, S :0.005% or less, Cr: 14.5 to 17.5%, Ni: 3.0 to 6.0%, Mo: 2.7 to 5.0%, Cu: 0.3 to 4.0%, W :0.1 to 2.5%, V: 0.02 to 0.20%, Al: 0.10% or less, N: 0.15% or less, B: 0.0005 to 0.0100%, optionally at least one selected from Nb: 0.02 to 0.50%, Ti: 0.02 to 0.16%, and Zr: 0.02 to 0.50%, optionally at least one selected from REM: 0.001 to 0.05%, Ca: 0.001 to 0.005%, Sn: 0.05 to 0.20%, and Mg: 0.0002 to 0.01%, optionally at least one selected from Ta: 0.01 to 0.1%, Co: 0.01 to 1.0%, and Sb:0.01 to 1.0%, and the balance Fe and unavoidable impurities, and in which the C, Si, Mn, Cr, Ni, Mo, Cu, and N satisfy the formula below, and the Cu, Mo, W, Cr, and Ni satisfy the formula below, wherein the stainless steel pipe has a structure that contains more than 45% martensite phase as a primary phase, 10 to 45% ferrite phase and 30% or less retained austenite phase as a secondary phase, by volume, and wherein the ferrite grains have a maximum crystal grain size of 500 μm or less as measured in an inspection of a 100-mm 2 continuous region by assuming that grains having a crystal orientation difference of no greater than 15° represent the same grains in electron backscatter diffraction (EBSD) : − 5.9 × 7.82 + 27 C − 0.91 Si + 0.21 Mn − 0.9 Cr + Ni − 1.1 Mo + 0.2 Cu + 11 N ≥ 13.0 , wherein C, Si, Mn, Cr, Ni, Mo, Cu, and N represent the content of each element in mass%; and Cu + Mo + W + Cr + 2 Ni ≤ 34.5 , wherein Cu, Mo, W, Cr, and Ni represent the content of each element in mass%, wherein the microstructure is determined according to the description.
An oral pharmaceutical composition for use in a method of inhibiting the development of or treating NAFLD in a human subject, or in a method for inhibiting the development of or treating NAFLD in a non-human subject, said pharmaceutical composition comprising an insulin; a protease inhibitor; and a chelator of divalent cations.
Vehicle having a body , the body comprising a door movable between a closed position and an open position of the door; wherein a piece of equipment is mounted at an inner side of the door in such a manner that when the door opens, said piece of equipment moves to take up an open position in which at least part of said piece of equipment is outside the body of the vehicle ; said piece of equipment comprises one of a seat cushion , a plurality of shelves, and a box; and the vehicle further comprises an equipment positioning mechanism configured to move said piece of equipment downward and/or upward relative to the door ; the vehicle being characterized in that said equipment positioning mechanism is configured to move said piece of equipment downward when the door is open. a piece of equipment is mounted at an inner side of the door in such a manner that when the door opens, said piece of equipment moves to take up an open position in which at least part of said piece of equipment is outside the body of the vehicle ; said piece of equipment comprises one of a seat cushion , a plurality of shelves, and a box; and the vehicle further comprises an equipment positioning mechanism configured to move said piece of equipment downward and/or upward relative to the door ; the vehicle being characterized in that said equipment positioning mechanism is configured to move said piece of equipment downward when the door is open.
Optical or magnetic scale configured for carrying out linear measurements, also of a great length, on a tool machine or on another type of machine, comprising a scale-holder (P) consisting of one or more modules which are mutually assembled and aligned on said machine, the scale-holder (P) comprising a continuous groove and sliding guides within the scale-holder (P), the scale further comprising a single steel strip bearing the scale-grating and housed in said continuous groove and a reading slider (R) which is configured to slide on said sliding guides within the scale-holder (P) to perform the reading of said scale-grating, wherein said sliding guides comprise the surface of the steel strip bearing the scale-grating and a guide edge of said steel strip configured to permit free longitudinal sliding of the reading slider (R) throughout the entire length of the steel strip .
A light deflection device comprising: - a planar, transparent light guide , and - a transparent cover layer applied in a planar manner to the light guide at least in regions, wherein a microstructure for coupling out light coupled into the light guide is formed between the light guide and the cover layer , wherein the microstructure either is formed on the surface of the cover layer facing the light guide or is formed by the surface of the light guide, characterised in that the microstructure has a plurality of structural elements which are formed as circular cylindrical protrusions , wherein the angle enclosed by the height (h) and the cross-sectional diagonal (c) of the structural elements is smaller than or equal to the limiting angle of total reflection in the light guide and/or the cover layer , wherein the structural elements are formed in such a way that light coupled into the light guide is coupled out via the cylinder jacket surfaces of the structural elements . - a planar, transparent light guide , and - a transparent cover layer applied in a planar manner to the light guide at least in regions, wherein a microstructure for coupling out light coupled into the light guide is formed between the light guide and the cover layer , wherein the microstructure either is formed on the surface of the cover layer facing the light guide or is formed by the surface of the light guide, characterised in that the microstructure has a plurality of structural elements which are formed as circular cylindrical protrusions , wherein the angle enclosed by the height (h) and the cross-sectional diagonal (c) of the structural elements is smaller than or equal to the limiting angle of total reflection in the light guide and/or the cover layer , wherein the structural elements are formed in such a way that light coupled into the light guide is coupled out via the cylinder jacket surfaces of the structural elements .
A pump system , comprising: a pair of pumps , each of which contains a vibration actuator having a movable body which can perform reciprocating rotation around a shaft portion by electromagnetic drive and can discharge fluid due to drive of the vibration actuator , wherein: each of the pair of pumps can be vibrated by the reciprocating rotation of the movable body , characterized in that : the pump system has: a vibration suppression mode (M1) in which the pair of pumps (3A 3B) are respectively driven by AC voltages whose phases are shifted from each other by 180°, a first vibration generation mode (M21) in which the pair of pumps (3A 3B) are respectively driven by in-phase AC voltages, and a second vibration generation mode (M22) in which the pair of pumps are respectively driven by AC voltages whose phases are shifted from each other by 90°. a pair of pumps , each of which contains a vibration actuator having a movable body which can perform reciprocating rotation around a shaft portion by electromagnetic drive and can discharge fluid due to drive of the vibration actuator , wherein: each of the pair of pumps can be vibrated by the reciprocating rotation of the movable body , characterized in that : the pump system has: a vibration suppression mode (M1) in which the pair of pumps (3A 3B) are respectively driven by AC voltages whose phases are shifted from each other by 180°, a first vibration generation mode (M21) in which the pair of pumps (3A 3B) are respectively driven by in-phase AC voltages, and a second vibration generation mode (M22) in which the pair of pumps are respectively driven by AC voltages whose phases are shifted from each other by 90°. a vibration suppression mode (M1) in which the pair of pumps (3A 3B) are respectively driven by AC voltages whose phases are shifted from each other by 180°, a first vibration generation mode (M21) in which the pair of pumps (3A 3B) are respectively driven by in-phase AC voltages, and a second vibration generation mode (M22) in which the pair of pumps are respectively driven by AC voltages whose phases are shifted from each other by 90°.
A ceramic bonded body, comprising: a first silicon carbide ceramics; a second silicon carbide ceramics; and a bonding layer located between the first silicon carbide ceramics and the second silicon carbide ceramics, the bonding layer containing, with respect to 100 mass% of all components in the bonding layer, 25 mass% or more of metallic silicon, and 25 mass% or more of silicon carbide, wherein a total of the metallic silicon and the silicon carbide is 75 mass% or more, the bonding layer further containing at least one of nickel silicide and chromium silicide, wherein a dispersion degree of the nickel silicide and the chromium silicide is 0.4 or more and 0.8 or less. a first silicon carbide ceramics; a second silicon carbide ceramics; and a bonding layer located between the first silicon carbide ceramics and the second silicon carbide ceramics, the bonding layer containing, with respect to 100 mass% of all components in the bonding layer, 25 mass% or more of metallic silicon, and 25 mass% or more of silicon carbide, wherein a total of the metallic silicon and the silicon carbide is 75 mass% or more,
Watery composition suitable for binding dust in production of mineral wool, which comprises a surfactant as an emulsifier for the ingredients insoluble in water, and which furthermore comprises, on the basis of its dry substance content, (a) from 5 to 95% by weight of a hydrocarbon ingredient obtained from petroleum, wherein the hydrocarbon ingredient is selected from the group consisting of "Residual Aromatic Extract" (RAE) and "Foots Oil" and (b) from 95 to 5% by weight of a triglyceride, wherein the hydrocarbon ingredient obtained from petroleum and the triglyceride ingredient both have a congealing point, determined to ASTM D938, of at least 23 oC; wherein the hydrocarbon ingredient has a flame point, as measured with the "Cleveland Open Cup" method according to ASTM D92, of at least 250 °C. (a) from 5 to 95% by weight of a hydrocarbon ingredient obtained from petroleum, wherein the hydrocarbon ingredient is selected from the group consisting of "Residual Aromatic Extract" (RAE) and "Foots Oil" and (b) from 95 to 5% by weight of a triglyceride,
A washing- and cleaning-active multilayer film comprising at least one layer comprising or consisting of a polymer composition P1) obtainable by free-radical polymerization of a monomer composition M1) comprising at least one monomer A) selected from α,β-ethylenically unsaturated mono- and dicarboxylic acids, salts of α,β-ethylenically unsaturated mono- and dicarboxylic acids, anhydrides of α,β-ethylenically unsaturated mono- and dicarboxylic acids and mixtures thereof, in the presence of at least one C 8 -C 18 -alkyl polyoxyalkylene ether PE) having an average of 3 to 12 alkylene oxide units per molecule.
A dry mix composition for use in making cementitious tile adhesives or mortars comprising from 20 to 35 wt.% of ordinary portland cement, from 64.7 to 79.9 wt.% of sand or an inorganic filler, and one or more crosslinked cellulose ethers containing polyether groups in the crosslinker in the amount of from 0.12 to 0.6 wt.% of total solids.
A method for enabling a computing device to wirelessly stream a user interface, UI, to a vehicle accessory system , the method comprising, at the computing device: initializing a Bluetooth link with the vehicle accessory system; receiving , over the Bluetooth link and from the vehicle accessory system, one or more parameters associated with a Wi-Fi network that is provided by the vehicle accessory system; establishing a connection to the Wi-Fi network in accordance with the one or more parameters; terminating the Bluetooth link when (i) the Wi-Fi network operates using a 2.4GHz radio frequency band and (ii) the computing device is not communicating, via Bluetooth, with any other computing device aside from the vehicle accessory system; entering the Bluetooth link into an idle state when (i) the Wi-Fi network operates using a 5GHz radio frequency band, or (ii) the computing device is communicating, via Bluetooth, with another computing device aside from the vehicle accessory system; and wirelessly streaming the UI to the vehicle accessory system over the Wi-Fi network. initializing a Bluetooth link with the vehicle accessory system; receiving , over the Bluetooth link and from the vehicle accessory system, one or more parameters associated with a Wi-Fi network that is provided by the vehicle accessory system; establishing a connection to the Wi-Fi network in accordance with the one or more parameters; terminating the Bluetooth link when (i) the Wi-Fi network operates using a 2.4GHz radio frequency band and (ii) the computing device is not communicating, via Bluetooth, with any other computing device aside from the vehicle accessory system; entering the Bluetooth link into an idle state when (i) the Wi-Fi network operates using a 5GHz radio frequency band, or (ii) the computing device is communicating, via Bluetooth, with another computing device aside from the vehicle accessory system; and wirelessly streaming the UI to the vehicle accessory system over the Wi-Fi network.
Process for producing a composition comprising a crosslinked hydrogel comprising the steps of providing a container body , wherein the container body has a body inner wall and a body outer wall , wherein the body inner wall is configured to be tempered, filling of a fluid comprising at least a mixture of a polymer and water into the container body , agitating the fluid , providing a container insert , the container insert having an insert outer wall which is configured to be tempered, forming of a container assembly by inserting the container insert into the container body so that the insert outer wall of the container insert and the body inner wall of the container body are separated by a gap of constant width and define a volume for receiving the fluid, and crosslinking of the fluid while tempering the insert outer wall and the body inner wall to form a crosslinked hydrogel. providing a container body , wherein the container body has a body inner wall and a body outer wall , wherein the body inner wall is configured to be tempered, filling of a fluid comprising at least a mixture of a polymer and water into the container body , agitating the fluid , providing a container insert , the container insert having an insert outer wall which is configured to be tempered, forming of a container assembly by inserting the container insert into the container body so that the insert outer wall of the container insert and the body inner wall of the container body are separated by a gap of constant width and define a volume for receiving the fluid, and crosslinking of the fluid while tempering the insert outer wall and the body inner wall to form a crosslinked hydrogel.
A rotation rate sensor comprising a moveable oscillator which is excitable in a direction of excitation to an oscillation with a resonance angular frequency ω 0 , and a controller unit comprising a PI-controller with a proportional transfer element and an integrating transfer element , arranged parallel to the proportional transfer element , wherein a controller input of the controller unit is connected with both transfer elements , characterized in that a transfer function of the PI-controller has a conjugate complex pole at a controller angular frequency ω 0 in the s-plane or a pole at e ± jω 0 T in the z-plane, wherein T is the sampling time of a discrete input signal of the PI-controller and ω 0 is larger than 0.
A lock for a secondary aircraft cockpit barrier comprising a locking tongue, a cavity for receiving the locking tongue, a locking retainer for retaining the locking tongue in the cavity, and a damped locking tongue releasing mechanism for releasing the locking retainer thereby unlocking the locking tongue from the cavity, wherein the damped locking tongue releasing mechanism is damped such that releasing the locking retainer requires at least about 5 seconds, wherein the locking tongue is a locking bar , wherein the damped locking tongue releasing mechanism comprises a locking plate and a damper and the damper is operably connected to the locking plate, and the locking retainer is a slidable pawl configured in a slidable first state to permit the cavity to receive and/or release the locking bar and in a non-slidable second state to retain the locking bar in the cavity, wherein the locking plate is configured to move between a first position when the slidable pawl is in the slidable first state and a second position when the slidable pawl is in the non-slidable second state, wherein the damper is configured to control movement of the locking plate from the second position to the first position such that said movement requires at least about 5 seconds to complete, wherein the locking plate is configured to move from the first position to the second position at least partly under the effect of gravity. wherein the locking tongue is a locking bar , wherein the damped locking tongue releasing mechanism comprises a locking plate and a damper and the damper is operably connected to the locking plate, and the locking retainer is a slidable pawl configured in a slidable first state to permit the cavity to receive and/or release the locking bar and in a non-slidable second state to retain the locking bar in the cavity, wherein the locking plate is configured to move between a first position when the slidable pawl is in the slidable first state and a second position when the slidable pawl is in the non-slidable second state, wherein the damper is configured to control movement of the locking plate from the second position to the first position such that said movement requires at least about 5 seconds to complete, wherein the locking plate is configured to move from the first position to the second position at least partly under the effect of gravity.
A method for calibrating a gyroscope of an oral care device , the method comprising the steps of: scheduling a data acquisition scheme comprising a plurality of time points at two or more different temperatures; obtaining sensor data by the gyroscope at each of the plurality of time points; determining whether the oral care device was experiencing motion at any of the plurality of time points and, if so, discarding those time points from further analysis; determining a calibration model using the obtained sensor data; generating , based on the obtained sensor data and the determined calibration model, one or more parameters of the calibration model; and calibrating , using the calibration model and the one or more parameters, gyroscope data obtained during a cleaning session. scheduling a data acquisition scheme comprising a plurality of time points at two or more different temperatures; obtaining sensor data by the gyroscope at each of the plurality of time points; determining whether the oral care device was experiencing motion at any of the plurality of time points and, if so, discarding those time points from further analysis; determining a calibration model using the obtained sensor data; generating , based on the obtained sensor data and the determined calibration model, one or more parameters of the calibration model; and calibrating , using the calibration model and the one or more parameters, gyroscope data obtained during a cleaning session.
A pharmaceutical combination comprising a lysine specific demethylase (LSD) inhibitor and a cancer therapy or agent, for use in treating or preventing a metastatic breast cancer that comprises CD44 high CD24 low cancer stem cells (CSCs) and non-CSC tumor cells, wherein the LSD inhibitor inhibits proliferation, survival or viability of the CSCs, wherein the CSCs express Sox2 at a level or functional activity that is less than 1/5 of the level of Sox2 of a pluripotent stem cell, and wherein the cancer therapy or agent inhibits the proliferation, survival or viability of the non-CSC tumor cells, and wherein the LSD inhibitor and cancer therapy or agent are to be administered concurrently.