mhurhangee/patent-ind-claim-en huggingface dataset:
A mass spectrometer comprising: a collision chamber including linear multipolar electrodes (a, b, c, d) which are each divided into a front stage electrode and a later stage electrode , wherein a division ratio between the front stage electrode and the later stage electrode is different for each linear multipolar electrode, the collision chamber having means to generate fragment ions by superimposingly applying an AC voltage and a first DC voltage to the linear multipolar electrodes thereby making molecule ions collide with neutral molecules to cause collision induced dissociation of the molecule ions, and having means to accelerate the fragment ions in a direction along the linear multipolar electrodes by applying a second DC voltage between the front stage electrodes and the later stage electrodes; a mass spectroscopy unit (11; 11a) having means to carry out mass separation of the fragment ions accelerated in the collision chamber based on mass-to-charge ratios; and a control unit having means to determine the second DC voltage based on the mass-to-charge ratios of the fragment ions to be selected in the mass spectroscopy unit such that velocities of the fragment ions in the collision chamber become equal regardless of the mass-to-charge ratios of the fragment ions. a collision chamber including linear multipolar electrodes (a, b, c, d) which are each divided into a front stage electrode and a later stage electrode , wherein a division ratio between the front stage electrode and the later stage electrode is different for each linear multipolar electrode, the collision chamber having means to generate fragment ions by superimposingly applying an AC voltage and a first DC voltage to the linear multipolar electrodes thereby making molecule ions collide with neutral molecules to cause collision induced dissociation of the molecule ions, and having means to accelerate the fragment ions in a direction along the linear multipolar electrodes by applying a second DC voltage between the front stage electrodes and the later stage electrodes; a mass spectroscopy unit (11; 11a) having means to carry out mass separation of the fragment ions accelerated in the collision chamber based on mass-to-charge ratios; and a control unit having means to determine the second DC voltage based on the mass-to-charge ratios of the fragment ions to be selected in the mass spectroscopy unit such that velocities of the fragment ions in the collision chamber become equal regardless of the mass-to-charge ratios of the fragment ions.
Connection box , in particular, a flush mounted or a cavity wall connection box, for at least one data cable of a data and/or communication network, comprising - a housing , having an inner side , an outer side , a lower housing part and an upper housing part , wherein the upper housing part can be placed, in housing middle axis (A), onto the lower housing part - wherein, on the lower housing part , on a lower housing part base , a lower housing part opening and a clamping device and clamping means are provided, - wherein the clamping device is arranged on an outer side of the lower housing part base and is provided in order to firmly clamp the at least one data cable between two contact surfaces using the clamping means, - wherein, by means of the lower housing part opening , the at least one data cable can extend into the housing through the lower housing part base , characterized in that - in the housing , a circuit board is arranged on which at least one plug socket is arranged for receiving a plug connector, - wherein the clamping device can be moved along the housing middle axis (A) by means of at least one rail guide . - a housing , having an inner side , an outer side , a lower housing part and an upper housing part , wherein the upper housing part can be placed, in housing middle axis (A), onto the lower housing part - wherein, on the lower housing part , on a lower housing part base , a lower housing part opening and a clamping device and clamping means are provided, - wherein the clamping device is arranged on an outer side of the lower housing part base and is provided in order to firmly clamp the at least one data cable between two contact surfaces using the clamping means, - wherein, by means of the lower housing part opening , the at least one data cable can extend into the housing through the lower housing part base , characterized in that - in the housing , a circuit board is arranged on which at least one plug socket is arranged for receiving a plug connector, - wherein the clamping device can be moved along the housing middle axis (A) by means of at least one rail guide .
A lubricating oil composition comprising a base oil, a thiophosphate compound (A) represented by the following general formula (I), wherein R 1 , R 2 and R 3 each independently represent an aryl group having 6 to 12 ring carbon atoms, and the aryl group may be substituted with an alkyl group having 1 to 3 carbon atoms, a molybdenum-based compound (B), and a sulfur-based compound (D) containing 2 or more sulfur atoms in the molecule and not containing a phosphorous atom, which compound (D) is an alkylenebisdialkyl dithiocarbamate, wherein the content of the component (B) in terms of molybdenum atom is 150 ppm by mass or more and 3,000 ppm by mass or less based on the total amount of the lubricating oil composition, the content of the component (A) is 0.1% by mass or more and 1.0% by mass or less based on the total amount of the lubricating oil composition, the content of the component (D) is 0.01% by mass or more and 1% by mass or less based on the total amount of the lubricating oil composition, and the molybdenum-based compound (B) is selected from molybdenum carbamate, molybdenum dicarbamate, molybdenum dithiophosphate (MoDTP), and molybdenum dithiocarbamate (MoDTC). a molybdenum-based compound (B), and a sulfur-based compound (D) containing 2 or more sulfur atoms in the molecule and not containing a phosphorous atom, which compound (D) is an alkylenebisdialkyl dithiocarbamate, wherein the content of the component (B) in terms of molybdenum atom is 150 ppm by mass or more and 3,000 ppm by mass or less based on the total amount of the lubricating oil composition, the content of the component (A) is 0.1% by mass or more and 1.0% by mass or less based on the total amount of the lubricating oil composition, the content of the component (D) is 0.01% by mass or more and 1% by mass or less based on the total amount of the lubricating oil composition, and the molybdenum-based compound (B) is selected from molybdenum carbamate, molybdenum dicarbamate, molybdenum dithiophosphate (MoDTP), and molybdenum dithiocarbamate (MoDTC). the content of the component (B) in terms of molybdenum atom is 150 ppm by mass or more and 3,000 ppm by mass or less based on the total amount of the lubricating oil composition, the content of the component (A) is 0.1% by mass or more and 1.0% by mass or less based on the total amount of the lubricating oil composition, the content of the component (D) is 0.01% by mass or more and 1% by mass or less based on the total amount of the lubricating oil composition, and the molybdenum-based compound (B) is selected from molybdenum carbamate, molybdenum dicarbamate, molybdenum dithiophosphate (MoDTP), and molybdenum dithiocarbamate (MoDTC).
Linkage assembly (2; 102) between a vehicle (6; 106) body (4; 104) and a bogie (10; 110) chassis (8; 108), comprising two traction bars (22, 24; 122, 124) intended to be positioned on the sides of the chassis (8; 108), each comprising an end intended to be connected to the body (4; 104) via a ball joint coupling (29, 30; 145, 146, 147, 148) and an end intended to be connected to the chassis (8; 108) via a ball joint coupling (25, 26; 125, 126), and a balancing bar (28; 143) connecting transversely the traction bars (22, 24; 122, 124), the balancing bar (28; 143) being intended to be positioned outside the bogie chassis and to be connected to the vehicle (6; 106) body (4; 104) by two pivot linkage elements (32; 132, 133) intended to be positioned outside the bogie chassis, these two pivot linkage elements being adapted to connect the traction bars to the vehicle body and to be made integral with two lateral structural beams of the body , the linkage assembly being characterised in that the balancing bar is solely connectable to the vehicle body by the two pivot linkage elements .
A gas turbine engine component having a cooling hole (60;106), the component comprising: a first wall comprising a cooling hole inlet ; a second wall generally opposite the first wall and comprising a cooling hole outlet ; a metering section extending downstream from the inlet and having a hydraulic diameter ( d h ) , the metering section comprising: a substantially convex first surface (134;136C) extending from a first end to a second end ; a substantially concave second surface extending from a third end to a fourth end ; a first curved portion connecting the first end and the third end ; and a second curved portion connecting the second end and the fourth end ; and a diffusing section extending from the metering section to the outlet ; wherein the diffusing section comprises first and second lobes that meet at and diverge longitudinally and laterally from a central axis of the cooling hole (60; 106); characterised in that a portion of a bottom surface of the diffusing section between the metering section and the outlet is convex. a first wall comprising a cooling hole inlet ; a second wall generally opposite the first wall and comprising a cooling hole outlet ; a metering section extending downstream from the inlet and having a hydraulic diameter ( d h ) , the metering section comprising: a substantially convex first surface (134;136C) extending from a first end to a second end ; a substantially concave second surface extending from a third end to a fourth end ; a first curved portion connecting the first end and the third end ; and a second curved portion connecting the second end and the fourth end ; and a substantially convex first surface (134;136C) extending from a first end to a second end ; a substantially concave second surface extending from a third end to a fourth end ; a first curved portion connecting the first end and the third end ; and a second curved portion connecting the second end and the fourth end ; and a diffusing section extending from the metering section to the outlet ; wherein the diffusing section comprises first and second lobes that meet at and diverge longitudinally and laterally from a central axis of the cooling hole (60; 106); characterised in that a portion of a bottom surface of the diffusing section between the metering section and the outlet is convex.
A wearable device comprising: at least one lens ; a display ; at least one sensor ; and at least one processor , wherein the at least one processor is configured to: identify a level of light sensed through the at least one sensor ; and control the display to display a notification indicating that the wearable device is in a situation in which the display is capable of being damaged by the light when the level of the light satisfies a preset condition. at least one lens ; a display ; at least one sensor ; and at least one processor , wherein the at least one processor is configured to: identify a level of light sensed through the at least one sensor ; and control the display to display a notification indicating that the wearable device is in a situation in which the display is capable of being damaged by the light when the level of the light satisfies a preset condition. identify a level of light sensed through the at least one sensor ; and control the display to display a notification indicating that the wearable device is in a situation in which the display is capable of being damaged by the light when the level of the light satisfies a preset condition.
A method of treating and stabilizing a cellulosic material, comprising a) contacting a cellulosic material with a treatment solution of an alkali in an alcohol/water co-solvent to yield a nano-deaggregated cellulose and dissolved phytochemicals in a post-treatment solution, b) treating the post-treatment solution with an acid to reduce pH, neutralize the alkali and precipitate the alkali as an alkali salt to yield a neutralized post-treatment solution and a stablised nano-deaggregated cellulose, thereby reducing the pH of the post-treatment solution to a level such that the nano-deaggregated cellulose is not mercerized upon exposure to water, the neutralized post-treatment solution having the stabilised nano-deaggregated cellulose, the precipitated alkali salt and dissolved phytochemicals. a) contacting a cellulosic material with a treatment solution of an alkali in an alcohol/water co-solvent to yield a nano-deaggregated cellulose and dissolved phytochemicals in a post-treatment solution, b) treating the post-treatment solution with an acid to reduce pH, neutralize the alkali and precipitate the alkali as an alkali salt to yield a neutralized post-treatment solution and a stablised nano-deaggregated cellulose, thereby reducing the pH of the post-treatment solution to a level such that the nano-deaggregated cellulose is not mercerized upon exposure to water, the neutralized post-treatment solution having the stabilised nano-deaggregated cellulose, the precipitated alkali salt and dissolved phytochemicals.
A target distance estimation device to estimate a target distance from a radio wave detection device to a radio source on a basis of reception signals obtained by a reception antenna of the radio wave detection device receiving a direct wave and a multipath wave from the radio source, the target distance estimation device comprising: a multipath composite wave signal generation unit to generate multipath composite wave signals each of which is a simulation signal of a composite wave of the direct wave and the multipath wave received by the reception antenna , and which respectively correspond to provisional target distances each of which is set as a distance from the radio wave detection device to the radio source; and a target distance estimation unit to estimate the target distance from the radio wave detection device to the radio source on a basis of a correlation, for each provisional target distance, between the reception signals and a corresponding multipath composite wave signal generated by the multipath composite wave signal generation unit . a multipath composite wave signal generation unit to generate multipath composite wave signals each of which is a simulation signal of a composite wave of the direct wave and the multipath wave received by the reception antenna , and which respectively correspond to provisional target distances each of which is set as a distance from the radio wave detection device to the radio source; and a target distance estimation unit to estimate the target distance from the radio wave detection device to the radio source on a basis of a correlation, for each provisional target distance, between the reception signals and a corresponding multipath composite wave signal generated by the multipath composite wave signal generation unit .
A foldable electronic device module , created by: disposing a cover element adjacent to a stack with a first adhesive therebetween to define a stacked module, wherein: (a) the cover element comprises a thickness from 25 μm to 200 μm, a cover element elastic modulus from 20 GPa to 140 GPa, a glass composition and first and second primary surfaces , (b) the stack comprises a thickness from 50 μm to 600 μm and a panel having first and second primary surfaces and a panel elastic modulus between 300 MPa and 10 GPa, (c) the first adhesive has a shear modulus between 0.01 MPa and 1 GPa and a glass transition temperature of at least 80°C, and (d) the second primary surface of the cover element is adjacent to the first adhesive ; bending the stacked module to a flex radius, R flex , to define a flexed module, wherein R flex is measured from above the stack to the second primary surface of the cover element ; curing the first adhesive in the flexed module at the flex radius, R flex , to define a flex-bonded module; and returning the flex-bonded module to an un-bent configuration to define the foldable electronic device module . disposing a cover element adjacent to a stack with a first adhesive therebetween to define a stacked module, wherein: (a) the cover element comprises a thickness from 25 μm to 200 μm, a cover element elastic modulus from 20 GPa to 140 GPa, a glass composition and first and second primary surfaces , (b) the stack comprises a thickness from 50 μm to 600 μm and a panel having first and second primary surfaces and a panel elastic modulus between 300 MPa and 10 GPa, (c) the first adhesive has a shear modulus between 0.01 MPa and 1 GPa and a glass transition temperature of at least 80°C, and (d) the second primary surface of the cover element is adjacent to the first adhesive ; (a) the cover element comprises a thickness from 25 μm to 200 μm, a cover element elastic modulus from 20 GPa to 140 GPa, a glass composition and first and second primary surfaces , (b) the stack comprises a thickness from 50 μm to 600 μm and a panel having first and second primary surfaces and a panel elastic modulus between 300 MPa and 10 GPa, (c) the first adhesive has a shear modulus between 0.01 MPa and 1 GPa and a glass transition temperature of at least 80°C, and (d) the second primary surface of the cover element is adjacent to the first adhesive ; bending the stacked module to a flex radius, R flex , to define a flexed module, wherein R flex is measured from above the stack to the second primary surface of the cover element ; curing the first adhesive in the flexed module at the flex radius, R flex , to define a flex-bonded module; and returning the flex-bonded module to an un-bent configuration to define the foldable electronic device module .
A method for directing airflow exiting a cascade of internal airfoils comprising: coupling a first plasma generating device on a first surface and a rounded trailing edge of each of the internal airfoils; coupling a second plasma generating device on an opposite second surface and the rounded trailing edge of each of the internal airfoils, wherein for each internal airfoil the first surface and the second surface are connected by the rounded trailing edge; monitoring the aerodynamics of a combined airflow exiting the cascade with a sensor mounted proximate a trailing edge of the cascade; and selectively energizing the first plasma generating device and the second plasma generating device on each of the internal airfoils in response to the monitored aerodynamics of the combined airflow exiting the cascade to produce a plasma and to selectively alter a direction of local airflow around each of the internal airfoils to produce a combined airflow exiting the cascade in a desired direction; wherein selectively energizing the first plasma generating device and the second plasma generating device on each of the internal airfoils in response to the monitored aerodynamics of the combined airflow exiting the cascade comprises performing an open loop control that selectively energizes the first plasma generating device and the second plasma generating device based upon a corrected speed and a corrected flow direction of the combined airflow exiting the cascade. coupling a first plasma generating device on a first surface and a rounded trailing edge of each of the internal airfoils; coupling a second plasma generating device on an opposite second surface and the rounded trailing edge of each of the internal airfoils, wherein for each internal airfoil the first surface and the second surface are connected by the rounded trailing edge; monitoring the aerodynamics of a combined airflow exiting the cascade with a sensor mounted proximate a trailing edge of the cascade; and selectively energizing the first plasma generating device and the second plasma generating device on each of the internal airfoils in response to the monitored aerodynamics of the combined airflow exiting the cascade to produce a plasma and to selectively alter a direction of local airflow around each of the internal airfoils to produce a combined airflow exiting the cascade in a desired direction; wherein selectively energizing the first plasma generating device and the second plasma generating device on each of the internal airfoils in response to the monitored aerodynamics of the combined airflow exiting the cascade comprises performing an open loop control that selectively energizes the first plasma generating device and the second plasma generating device based upon a corrected speed and a corrected flow direction of the combined airflow exiting the cascade.
A sampling device for collecting and isolating a biological specimen from a sample or from a location, said sampling device comprising: - a swab tip and a support body , wherein the support body has a hollow conformation with a first end and a second end , and wherein said first end is in fluid connection with the internal surface of the swab tip, said sampling device characterized in that the swab tip comprises a filter material with a pore size that decreases from the external surface of the swab tip to the internal surface of the swab tip, and in that the support body is configured to collect the sample via the sample tip and to transport the sample from its first end towards its second end ; and - means for creating a negative pressure gradient through the sampling device that facilitates the transport of the sample from the sample tip towards the second end of the support body via the first end of the support body. - a swab tip and a support body , wherein the support body has a hollow conformation with a first end and a second end , and wherein said first end is in fluid connection with the internal surface of the swab tip, said sampling device characterized in that the swab tip comprises a filter material with a pore size that decreases from the external surface of the swab tip to the internal surface of the swab tip, and in that the support body is configured to collect the sample via the sample tip and to transport the sample from its first end towards its second end ; and - means for creating a negative pressure gradient through the sampling device that facilitates the transport of the sample from the sample tip towards the second end of the support body via the first end of the support body.
A solid form of N-[(3-fluoro-4-methoxypyridin-2-yl)methyl]-3-(methoxymethyl)-1-({4-[(2-oxopyridin-1-yl)methyl]phenyl}methyl)pyrazole-4-carboxamide, which (i) exhibits at least the following characteristic X-ray powder diffraction peaks (Cu Kα radiation, expressed in degrees 2θ) at approximately 11.2, 12.5, 13.2, 14.5 and 16.3, wherein the term "approximately" means that there is an uncertainty in the measurements of the degrees 2θ of ± 0.3 (expressed in degrees 2θ), or (ii) exhibits an endothermic peak in its DSC thermograph at 151 ± 3°C, wherein the solid form is Form 1.
TNAP + Mesenchymal Precursor Cells (MPCs), for use in the treatment or prevention of a disease arising from degradation and/or inflammation of connective tissue that is rich in proteoglycans, wherein administration of the cell population results in preservation or generation of cartilage that is rich in proteoglycans.