mhurhangee/ep-ind-claims huggingface dataset:
A water-based ink for ink-jet printing comprising titanium oxide and a pigment dispersant, in which: the pigment dispersant comprises a constitutional unit derived from an anionic group-containing monomer (a) and a constitutional unit derived from a polyalkylene glycol (meth)acrylate (b); an average molar number of addition of an alkyleneoxide in the polyalkylene glycol (meth)acrylate (b) is not less than 15 and not more than 100; the total content of the constitutional unit derived from the monomer (a) and the constitutional unit derived from the monomer (b) in the dispersant is not less than 90% by mass; an acid value of the pigment dispersant is not less than 100 mgKOH/g and not more than 400 mgKOH/g; and a content of the pigment dispersant in the water-based ink is not less than 0.3 part by mass and not more than 18 parts by mass on the basis of 100 parts by mass of the titanium oxide. the pigment dispersant comprises a constitutional unit derived from an anionic group-containing monomer (a) and a constitutional unit derived from a polyalkylene glycol (meth)acrylate (b); an average molar number of addition of an alkyleneoxide in the polyalkylene glycol (meth)acrylate (b) is not less than 15 and not more than 100; the total content of the constitutional unit derived from the monomer (a) and the constitutional unit derived from the monomer (b) in the dispersant is not less than 90% by mass; an acid value of the pigment dispersant is not less than 100 mgKOH/g and not more than 400 mgKOH/g; and a content of the pigment dispersant in the water-based ink is not less than 0.3 part by mass and not more than 18 parts by mass on the basis of 100 parts by mass of the titanium oxide.
A method of controlling an AC electrical motor, comprising: opening a solid-state switch coupled between an AC power supply and the AC electrical motor, the AC power supply supplying AC electrical power to the AC electrical motor to rotate the AC electrical motor when the solid-state switch is closed, and the AC power supply being disconnected from the AC electrical motor to stop rotation of the AC electrical motor when the solid-state switch is opened; receiving a first control signal to turn on the AC electrical motor; monitoring a waveform of the AC electrical power supplied by the AC power supply, wherein the waveform is a first waveform; delaying closing the solid-state switch after receiving the first control signal until the waveform of the AC electrical power reaches a predetermined state, wherein the predetermined state is a first predetermined state; sending a second control signal to close the solid-state switch after the waveform of the AC electrical power reaches the first predetermined state; sending a third control signal to reopen the solid state switch after the second control signal has been sent; monitoring a second waveform of the AC electrical power supplied by the AC power supply; and delaying closing the solid state switch until the second waveform of the AC electrical power reaches a second predetermined state, wherein the first and second predetermined states are different from each other to allow greater current flow through the solid state switch during the second waveform than the first waveform. opening a solid-state switch coupled between an AC power supply and the AC electrical motor, the AC power supply supplying AC electrical power to the AC electrical motor to rotate the AC electrical motor when the solid-state switch is closed, and the AC power supply being disconnected from the AC electrical motor to stop rotation of the AC electrical motor when the solid-state switch is opened; receiving a first control signal to turn on the AC electrical motor; monitoring a waveform of the AC electrical power supplied by the AC power supply, wherein the waveform is a first waveform; delaying closing the solid-state switch after receiving the first control signal until the waveform of the AC electrical power reaches a predetermined state, wherein the predetermined state is a first predetermined state; sending a second control signal to close the solid-state switch after the waveform of the AC electrical power reaches the first predetermined state; sending a third control signal to reopen the solid state switch after the second control signal has been sent; monitoring a second waveform of the AC electrical power supplied by the AC power supply; and delaying closing the solid state switch until the second waveform of the AC electrical power reaches a second predetermined state, wherein the first and second predetermined states are different from each other to allow greater current flow through the solid state switch during the second waveform than the first waveform.
An ophthalmic apparatus comprising: an imaging optical system that includes a light projecting optical system for projecting light to an anterior chamber angle, ACA, region of a subject's eye, and a light receiving optical system including a light receiving element for receiving reflected light from the ACA region; alignment driving means (5a, 5b) configured to change a positional relationship between the subject's eye and the imaging optical system; imaging processing means configured to generate an ACA image based on a signal output from the light receiving element; and control means configured to detect a feature point in an ACA of the subject's eye from the ACA image, and configured to adjust the positional relationship in accordance with a position of the feature point in the ACA image, characterized in that the ACA image is a reflected image formed based on reflected light from the ACA region of the subject's eye, wherein the light is emitted to an entire imaging range in a surface texture of the ACA region and the light returning from the imaging range is received by the light receiving element being a two-dimensional light receiving element capturing the image of the ACA region as the ACA image. an imaging optical system that includes a light projecting optical system for projecting light to an anterior chamber angle, ACA, region of a subject's eye, and a light receiving optical system including a light receiving element for receiving reflected light from the ACA region; alignment driving means (5a, 5b) configured to change a positional relationship between the subject's eye and the imaging optical system; imaging processing means configured to generate an ACA image based on a signal output from the light receiving element; and control means configured to detect a feature point in an ACA of the subject's eye from the ACA image, and configured to adjust the positional relationship in accordance with a position of the feature point in the ACA image, characterized in that the ACA image is a reflected image formed based on reflected light from the ACA region of the subject's eye, wherein the light is emitted to an entire imaging range in a surface texture of the ACA region and the light returning from the imaging range is received by the light receiving element being a two-dimensional light receiving element capturing the image of the ACA region as the ACA image.
A NdFeB system sintered magnet having a base material produced by orienting powder of a NdFeB system alloy and sintering the powder, Dy and/or Tb (R H) being attached to and diffused from a surface of the base material through a grain boundary inside the base material by a grain boundary diffusion treatment, wherein a difference C s -C d3 between an R H content C s (wt%) in the grain boundary reaching the surface to which R H is attached and an R H content C d3 (wt%) in the grain boundary at a depth of 3 mm from the aforementioned attachment surface is equal to or smaller than 20 wt%, characterised in that a percentage of a total volume of a carbon rich phase in a rare-earth rich phase at the grain-boundary triple points in the base material to a total volume of the rare-earth rich phase is equal to or lower than 50 %.
A method for determining the concentration of an analyte in a body fluid, specifically the concentration of glucose in blood, comprising the steps of a) providing a layered test element including an enzyme-based chemistry layer which is responsive to the analyte by a color change, b) applying a sample of the body fluid onto the test element, c) detecting by means of a photometric reflectance measuring device a reflectance value of the test element, d) correcting the measured reflectance value by a predetermined offset value attributed to the test element, wherein the offset value is predetermined as an asymptotic level of a reference curve of reflectance versus analyte concentration at high concentration, wherein the reference curve is measured on reference material of test elements by means of a reference instrument; e) determining a concentration value of the analyte using the offset-corrected reflectance value. a) providing a layered test element including an enzyme-based chemistry layer which is responsive to the analyte by a color change, b) applying a sample of the body fluid onto the test element, c) detecting by means of a photometric reflectance measuring device a reflectance value of the test element, d) correcting the measured reflectance value by a predetermined offset value attributed to the test element, wherein the offset value is predetermined as an asymptotic level of a reference curve of reflectance versus analyte concentration at high concentration, wherein the reference curve is measured on reference material of test elements by means of a reference instrument; e) determining a concentration value of the analyte using the offset-corrected reflectance value.
The Use of a cationic graft-copolymer as a non-viral gene delivery vector, of a water-soluble linear backbone polymer having hydroxyl groups comprising a unit derived from a cationic water-soluble linear polysaccharide of the following formula [C 6 H 7 O 2 3-a a] x H 2 O, wherein X is a - (CH 2) m R 1 organic radical where R 1 is a member of the class consisting of -NH 2 radical, -N(CH 3) 2 radical, -N(C 2 H 5) 2 radical, -N + (C 2 H 5) 3 radical, -N + (CH 2) 2 CH 2 CH CH 3 radical, - N + (C 2 H 5) 2 CH 2 CH CH 3 radical, - N + (C 2 H 5) 2 (C 2 H 5)N (C 2 H 5) 2 radical, -C 6 H 4 NH 2 radical, and-COC 6 H 4 NH 2 radical, -COR 2 radical where R 2 is -CH 2 NH 2 or -C 6 H 4 NH 2, -CH 2 CH CH 2 R 3 radical where R 3 is -NH 2, -N(CH 3) 2, -N(C 2 H 5) 2, and -N + (C 2 H 5) 3 radical, m is a natural number of 1 to 3, a is a positive number having a value of 0<a<3, x is a natural number having a value of 5 or more; and a unit derived from a polymerize-able olefin compound of the following formula wherein R 4, R 5 and R 6 are each selected from the group consisting of hydrogen and CH 3 and R 7 is a member of the group consisting of where R 8 is a member of the class consisting of hydrogen, C 1 -C 12 alkyl radicals, cyclohexyl radical, C 1 -C 4 hydroxyalkyl radicals, C 1 -C 8 aminoalkyl radicals, C 1 -C 8 dialkylaminoalkyl radicals, glycidyl radical, tetrahydrofuran radical, C 1 -C 4 lower alkyl-substituted tetrahydrofuran radical, benzyl radical, the (CH 2 CH 2 O) y CH 2 CH 2 OH radical where y is a positive integer from 1 to 10, and-N(R 9) 2 where the two R 9,s which may be the same or different, are either hydrogen or a C 1 -C 4 alkyl radical; where R 10 is a C 1 -C 8 alkyl radical; phenyl radical; tolyl radical; pyridine radical; pyrrolidone radical; and Where R 11 is NH 2, NHCH 3, N,N-dimethylamino radical, N,N-dimethylaminopropylamino radical, and morpholine radical, k is an integer of 10 to 200,000.
A speed calculating device that is configured to calculate a speed of an object around a moving body, comprising: an image detection unit that is configured to capture an image of the surroundings of the moving body and to detect the object from the captured image; and a speed calculation unit that is configured to calculate the speed of the object, using a moving body speed indicating the speed of the moving body, an image speed, which indicates the speed of the object and is calculated from the image, and a distance coefficient that corresponds to a distance from the moving body to the object and that indicates the weighting of the moving body speed and the image speed used to calculate the speed of the object, wherein the speed calculation unit is configured to calculate the speed of the object using the moving body speed and the image speed wherein the distance coefficient indicates a greater weighting of the moving body speed as the distance to the object increases and the distance coefficient indicates a greater weighting of the image speed as the distance to the object decreases. an image detection unit that is configured to capture an image of the surroundings of the moving body and to detect the object from the captured image; and a speed calculation unit that is configured to calculate the speed of the object, using a moving body speed indicating the speed of the moving body, an image speed, which indicates the speed of the object and is calculated from the image, and a distance coefficient that corresponds to a distance from the moving body to the object and that indicates the weighting of the moving body speed and the image speed used to calculate the speed of the object,
A pressure sensor for an extracorporeal circulating circuit comprising: a liquid chamber, a pressure measuring means, and a liquid flow path, wherein the liquid chamber is provided with a reference plane which extends over an entire side of the liquid chamber and which is not deformed by a pressure in the extracorporeal circulating circuit, a deformable plane which is disposed separately from the reference plane and is at least partially deformed by the pressure in the extracorporeal circulating circuit, a first connecting plane which connects the deformable plane with the reference plane to form a closed liquid-tight space therein and is not deformed by a pressure in the extracorporeal circulating circuit, a liquid flow inlet provided in a side surface of the first connecting plane, and a liquid flow outlet which is disposed at a position separated from the liquid flow inlet by a distance from more than one half to less than one of the inner circumference in the direction of a flow of a liquid wherein the liquid is introduced along an inner circumference of side surfaces of the first connecting plane; wherein the pressure measuring means is disposed outside of the liquid chamber for measuring a deformation quantity of the deformable plane; and wherein the liquid flow path is connected to the liquid flow inlet in a liquid tight manner so that the liquid introduced into the liquid chamber flows along the inner circumference of side surfaces of the first connecting plane.
Precast block (1, 2, 3, 4, 5, 6) for construction comprising a superior area (a), an inferior area (b), an interior face to come in contact with another interior face of another precast block (1, 2, 3, 4, 5, 6), an exterior face and two lateral faces (9, 10), the interior face comprising at least one main open vertical channel opening at least at a inferior face and at least a secondary channel, starting from one of the lateral faces and extending until the intersection with the main vertical channel, characterized in that at least one of the lateral faces comprises assembling elements for joining with other precast blocks and the exterior face is provided with: - some recessed area and some protrusions following the profile of channels (11, 12) on interior face, providing a uniform thickness of the precast block wall, and fastening areas of veneering elements, consisting of ribs set on the protrusions, and/or - a surface without the recessed areas and the protrusions, providing a higher thickness of the precast block wall, for the precast blocks destined to be positioned in areas where the outer surface of a construction obtained from the precast blocks (1, 2, 3, 4, 5, 6) is larger than the inner surface thereof. - some recessed area and some protrusions following the profile of channels (11, 12) on interior face, providing a uniform thickness of the precast block wall, and fastening areas of veneering elements, consisting of ribs set on the protrusions, and/or - a surface without the recessed areas and the protrusions, providing a higher thickness of the precast block wall, for the precast blocks destined to be positioned in areas where the outer surface of a construction obtained from the precast blocks (1, 2, 3, 4, 5, 6) is larger than the inner surface thereof.
A docking station for implantation in a blood vessel, the blood vessel being the IVC or the SVC, the docking station comprising: a self-expandable frame configured to conform to an interior shape of the blood vessel when expanded inside the blood vessel; and a fabric covering attached to the frame to form at least one sealing portion configured to contact an interior surface of the blood vessel, wherein the frame comprises: an annular valve seat having a first end and a free second end, wherein the valve seat is integrally formed with the frame and configured to support an expandable transcatheter valve provided separately from the docking station; a cylindrical outer wall comprising a plurality of struts; links connecting the first end of the valve seat to the outer wall, wherein the links extend from the valve seat to the outer wall at an angle with respect to a radial direction, wherein the links are strut portions and integrally formed with the plurality of struts; and a leg that extends axially from an end of the outer wall. a self-expandable frame configured to conform to an interior shape of the blood vessel when expanded inside the blood vessel; and a fabric covering attached to the frame to form at least one sealing portion configured to contact an interior surface of the blood vessel, wherein the frame comprises: an annular valve seat having a first end and a free second end, wherein the valve seat is integrally formed with the frame and configured to support an expandable transcatheter valve provided separately from the docking station; a cylindrical outer wall comprising a plurality of struts; links connecting the first end of the valve seat to the outer wall, wherein the links extend from the valve seat to the outer wall at an angle with respect to a radial direction, wherein the links are strut portions and integrally formed with the plurality of struts; and a leg that extends axially from an end of the outer wall. an annular valve seat having a first end and a free second end, wherein the valve seat is integrally formed with the frame and configured to support an expandable transcatheter valve provided separately from the docking station; a cylindrical outer wall comprising a plurality of struts; links connecting the first end of the valve seat to the outer wall, wherein the links extend from the valve seat to the outer wall at an angle with respect to a radial direction, wherein the links are strut portions and integrally formed with the plurality of struts; and a leg that extends axially from an end of the outer wall.
A method of preparing a farinaceous dough, said method comprising blending together flour, a pumpable fat composition, water and optionally other bakery ingredients, wherein the pumpable fat composition has a low saturated fatty acid (SAFA) content and contains at least 70 wt.% of fat, said fat having a solid fat content at 20 °C of 12-25% and at 30 °C of 5-20% and further being characterised by the following fatty acid composition: - 26-40 wt.% of SAFA; - ≤ 12 wt.% of C 8 -C 14 fatty acids; - 15-35 wt.% of palmitic acid; - ≤ 5 wt.% of stearic acid; - ≥ 55 wt.% of unsaturated C 18 fatty acids; and - ≤ 1.5 wt.% of trans-unsaturated fatty acids; said fat containing 4-20 wt.% of triglycerides selected from the group consisting of PPM, PMP, PMM, MPM, PPU, PUP, PUU, UPU and/or 2.5-5.0 wt.% of OPO, wherein P represents palmitic acid, M represents C 8 -C 14 fatty acid, U represents polyunsaturated C 18 fatty acid, O represent oleic acid and; said fat comprising 15-60 wt.% of an interesterified fat blend containing 20-80 wt.% of a lauric fat and 80-20 wt.% of palm oil or a fraction thereof, and containing 5-18 wt.% of triglycerides selected from the group consisting of PPM, PMP, PMM, MPM; or said fat comprising 25-65 wt.% of an interesterified fat blend containing 50-80 wt.% of a palm stearin and 20-50 wt.% of a low SAFA vegetable oil having a SAFA content of less than 17 wt.%, the triglycerides UPU and OPO together representing 2.6-5.5 wt.% of the fat. - 26-40 wt.% of SAFA; - ≤ 12 wt.% of C 8 -C 14 fatty acids; - 15-35 wt.% of palmitic acid; - ≤ 5 wt.% of stearic acid; - ≥ 55 wt.% of unsaturated C 18 fatty acids; and - ≤ 1.5 wt.% of trans-unsaturated fatty acids;
A computer-readable storage medium including instructions that, upon execution by one or more computers, cause the one or more computers to implement a protocol selection service disposed within a service provider environment to: provide, to a client computing device and using a first communication channel (202, 204) associated with a first communication protocol of a plurality of communication protocols, access to a virtual desktop instance running on a server computer also disposed within the service provider environment; detect a request for a functionality from a user of the client computing device, the requested functionality unsupported by the first communication protocol; select, based on the requested functionality, a second communication protocol from a plurality of available communication protocols, the second communication protocol supporting the requested functionality; verify whether the user is authorized to use the second communication protocol; upon successful verification, establish a second communication channel between the server computing device and the client computing device using the second communication protocol; and switch over at least one of a plurality of functionalities, associated with the access to the virtual desktop instance, to the second communication channel, while providing at least another one of the plurality of functionalities to the client computing device using the first communication channel. provide, to a client computing device and using a first communication channel (202, 204) associated with a first communication protocol of a plurality of communication protocols, access to a virtual desktop instance running on a server computer also disposed within the service provider environment; detect a request for a functionality from a user of the client computing device, the requested functionality unsupported by the first communication protocol; select, based on the requested functionality, a second communication protocol from a plurality of available communication protocols, the second communication protocol supporting the requested functionality; verify whether the user is authorized to use the second communication protocol; upon successful verification, establish a second communication channel between the server computing device and the client computing device using the second communication protocol; and switch over at least one of a plurality of functionalities, associated with the access to the virtual desktop instance, to the second communication channel, while providing at least another one of the plurality of functionalities to the client computing device using the first communication channel.
An organic electroluminescent device comprising a substrate, and a luminescent layer provided between an anode and a cathode, wherein said cathode comprises a metallic material, an alkali metal, and oxygen, wherein said metallic material is aluminum or an aluminum alloy, metallic material, an alkali metal, and oxygen, alloy thereof, wherein said cathode has a metallic material content of 50 to 95 at.%, an alkali metal content of 0.1 to 20 at.%, a carbon atom content of 0 to 30 at.%, characterised in that said cathode has an oxygen atom content of 1 to 40 at.%.