mhurhangee/ep-ind-claims huggingface dataset:
A homodimer of two compounds covalently linked together by an amide bond to a diphenic acid residue, the compounds both being of formula: wherein R 1 is H; R 2 is H; R 3 is CH 3; R 4 is H; R 5 is an amide of the formula -C NR**R***, wherein R** is H and R*** is tert -butyl; R 6 along with R 7 together form the pyrrolidine ring of Pro, R 8 is H; n is 1; wherein Z is an amino terminus of an amino acid; -C=O- adjacent L is the carboxy terminus of an amino acid; and L along with Z and -C=O- is a peptide having the following formula: X y -X z -X 1 -X 2 -X 3 wherein X y is 3-aminomethyl-4-[4-(1-piperazinyl)-phenyl]-benzoic acid; X z is absent; X 1 is Leucine; X 2 is Asp; and X 3 is Thr; or a pharmaceutically acceptable salt thereof.
A blood purification apparatus that includes a blood circuit including an arterial blood circuit and a venous blood circuit and through which blood of a patient is allowed to extracorporeally circulate; a blood purification unit connected to and provided between the arterial blood circuit and the venous blood circuit and that purifies the blood flowing through the blood circuit; a blood pump provided to the arterial blood circuit and that delivers the blood of the patient from a distal end of the arterial blood circuit to a distal end of the venous blood circuit; a substitution line (La, Lb) through which a substitution fluid is allowed to be introduced into the blood circuit; and an infusion portion attached to the substitution line (La, Lb) and from which a predetermined liquid drug to be administered to the patient is allowed to be infused into the substitution line (La, Lb), characterized in that the blood purification apparatus further comprises a control unit that executes a drug introduction mode in which the substitution fluid in the substitution line (La, Lb) is introduced into the blood circuit, the control unit causing the liquid drug infused from the infusion portion in the drug introduction mode to be introduced into the blood circuit together with the substitution fluid; and a calculation unit that calculates a volume of the substitution fluid introduced from the substitution line (La, Lb) into the blood circuit with the execution of the drug introduction mode. a blood circuit including an arterial blood circuit and a venous blood circuit and through which blood of a patient is allowed to extracorporeally circulate; a blood purification unit connected to and provided between the arterial blood circuit and the venous blood circuit and that purifies the blood flowing through the blood circuit; a blood pump provided to the arterial blood circuit and that delivers the blood of the patient from a distal end of the arterial blood circuit to a distal end of the venous blood circuit; a substitution line (La, Lb) through which a substitution fluid is allowed to be introduced into the blood circuit; and an infusion portion attached to the substitution line (La, Lb) and from which a predetermined liquid drug to be administered to the patient is allowed to be infused into the substitution line (La, Lb), characterized in that the blood purification apparatus further comprises a control unit that executes a drug introduction mode in which the substitution fluid in the substitution line (La, Lb) is introduced into the blood circuit, the control unit causing the liquid drug infused from the infusion portion in the drug introduction mode to be introduced into the blood circuit together with the substitution fluid; and a calculation unit that calculates a volume of the substitution fluid introduced from the substitution line (La, Lb) into the blood circuit with the execution of the drug introduction mode.
Composite powder for use in an anode of a lithium ion battery, whereby the particles of the composite powder comprise a carbon matrix material and silicon particles embedded in this matrix material, whereby the composite powder further comprises silicon carbide; whereby the ordered domain size of the silicon carbide, as determined by the Scherrer equation applied to the X-ray diffraction SiC peak having a maximum at 2θ between 35.4° and 35.8°, when measured with a copper anticathode producing Kα1 and Kα2 X-rays with a wavelength equal to 0.15418 nm, is at most 15 nm, characterized in that the composite powder has a particle size distribution with a d 10, d 50 and d 90 value, whereby (d 90 - d 10)/d 50 is 3 or lower.
A method comprising: providing power from a power source (112, 114, 310) comprising a generator (420, 620) or an inverter to an AC electrical power distribution system that is operable to selectively couple the power source (112, 114, 310) to any of a plurality of different loads; and signaling a capacity of the power source (112, 114, 310) over the AC electrical power distribution system by controlling the generator (420, 620) or the inverter to set a frequency of an AC voltage produced by the generator (420, 620) or the inverter at respective frequency levels corresponding to respective capacity levels. providing power from a power source (112, 114, 310) comprising a generator (420, 620) or an inverter to an AC electrical power distribution system that is operable to selectively couple the power source (112, 114, 310) to any of a plurality of different loads; and signaling a capacity of the power source (112, 114, 310) over the AC electrical power distribution system by controlling the generator (420, 620) or the inverter to set a frequency of an AC voltage produced by the generator (420, 620) or the inverter at respective frequency levels corresponding to respective capacity levels.
An antiseptic hand rub composition which when used at a rate of less than 6ml of composition for up to 60 seconds produces a level of biocidal efficacy equal to or greater than that produced by 6ml of 60% v/v aqueous isopropyl alcohol in 60 secs (as measured according to the test method of EN1500:1997), said composition characterised in that it comprises phenoxyethanol and 0.2% w/w to 0.5% w/w of isopropyl myristate.
A thermosensitive recording medium comprising: a support; and a thermosensitive recording layer that is provided over at least one surface of the support and comprises a leuco dye, a first developer, and a second developer, wherein the first developer and the second developer are 4-hydroxy-4'-benzyloxydiphenylsulfone and a diphenylsulfone compound represented by the following general formula, respectively, and wherein a content of the diphenylsulfone compound represented by general formula is less than 3.0 parts by mass relative to 1.0 part by mass of the 4-hydroxy-4'-benzyloxydiphenylsulfone, where in general formula, R 3 represents any one of a hydrogen atom, a halogen atom, an alkyl group that comprises from 1 through 6 carbon atoms, and an alkenyl group that comprises from 1 through 6 carbon atoms, each o independently represents an integer of from 0 through 4, p represents an integer of from 1 through 11, and R 4 represents any one of a saturated or unsaturated, straight-chained or branched hydrocarbon group that comprises from 1 through 12 carbon atoms and may comprise an ether bond, a substituted phenylene group represented by the following general formula, and a divalent group represented by the following general formula, where in general formula, R 5 represents any one of a methylene group and an ethylene group, where in general formula, R 6 represents any one of a hydrogen atom and an alkyl group that comprises from 1 through 4 carbon atoms. a support; and a thermosensitive recording layer that is provided over at least one surface of the support and comprises a leuco dye, a first developer, and a second developer, wherein the first developer and the second developer are 4-hydroxy-4'-benzyloxydiphenylsulfone and a diphenylsulfone compound represented by the following general formula, respectively, and wherein a content of the diphenylsulfone compound represented by general formula is less than 3.0 parts by mass relative to 1.0 part by mass of the 4-hydroxy-4'-benzyloxydiphenylsulfone, where in general formula, R 3 represents any one of a hydrogen atom, a halogen atom, an alkyl group that comprises from 1 through 6 carbon atoms, and an alkenyl group that comprises from 1 through 6 carbon atoms, each o independently represents an integer of from 0 through 4, p represents an integer of from 1 through 11, and R 4 represents any one of a saturated or unsaturated, straight-chained or branched hydrocarbon group that comprises from 1 through 12 carbon atoms and may comprise an ether bond, a substituted phenylene group represented by the following general formula, and a divalent group represented by the following general formula, where in general formula, R 5 represents any one of a methylene group and an ethylene group, where in general formula, R 6 represents any one of a hydrogen atom and an alkyl group that comprises from 1 through 4 carbon atoms.
A synergistic protective composition comprising: (i) 0.1 % w/w to 1 % w/w of a composition comprising 10% w/w to 50% w/w of 1-O-galloyl-β-D-glucose (β-glucogallin), and (ii) 0.5% w/w of a concentrate of liquid endosperm of Cocos nucifera, wherein the concentrate of liquid endosperm of Cocos nucifera comprises not less than 40% w/w of total dissolved solids. (i) 0.1 % w/w to 1 % w/w of a composition comprising 10% w/w to 50% w/w of 1-O-galloyl-β-D-glucose (β-glucogallin), and (ii) 0.5% w/w of a concentrate of liquid endosperm of Cocos nucifera, wherein the concentrate of liquid endosperm of Cocos nucifera comprises not less than 40% w/w of total dissolved solids.
Process for the preparation of a crystalline ethyl acetate solvate form of 4α-acetoxy-2α-benzoyloxy-5β,20-epoxy-1β-hydroxy-7β,10β-dimethoxy-9-oxo-11-taxen-13α-yl(2R,3S)-3-tert-butoxycarbonylamino-2-hydroxy-3-phenylpropionate, characterized in that it comprises at least the following steps: - having the 4α-acetoxy-2α-benzoyloxy-5β,20-epoxy-1β-hydroxy-7β,10β-dimethoxy-9-oxo-11-taxen-13α-yl(2R,3S)-3-tert-butoxycarbonylamino-2-hydroxy-3-phenylpropionate in solution in acetone at room temperature; - making a change of solvent to ethyl acetate at atmospheric or under reduced pressure; - maintaining the so-formed solution in ethyl acetate on continued stirring, and - recovering said crystalline ethyl acetate solvate form of 4α-acetoxy-2α-benzoyloxy-5β,20-epoxy-1β-hydroxy-7β,10β-dimethoxy-9-oxo-11-taxen-13α-yl(2R,3S)-3-tert-butoxycarbonylamino-2-hydroxy-3 -phenylpropionate. - having the 4α-acetoxy-2α-benzoyloxy-5β,20-epoxy-1β-hydroxy-7β,10β-dimethoxy-9-oxo-11-taxen-13α-yl(2R,3S)-3-tert-butoxycarbonylamino-2-hydroxy-3-phenylpropionate in solution in acetone at room temperature; - making a change of solvent to ethyl acetate at atmospheric or under reduced pressure; - maintaining the so-formed solution in ethyl acetate on continued stirring, and - recovering said crystalline ethyl acetate solvate form of 4α-acetoxy-2α-benzoyloxy-5β,20-epoxy-1β-hydroxy-7β,10β-dimethoxy-9-oxo-11-taxen-13α-yl(2R,3S)-3-tert-butoxycarbonylamino-2-hydroxy-3 -phenylpropionate.
A peritoneal dialysis system comprising: a pressure chamber; a disposable set including a flexible container located within the pressure chamber, at least one source line (108, 114, 116) and at least one destination line (108, 110); a motive fluid pressurization device (70, 72, 74, 80, 82, 86, 90, 92, 94); a motive fluid pressure sensor; and a control unit in operable communication with the motive fluid pressurization device (70, 72, 74, 80, 82, 86, 90, 92, 94) and the motive fluid pressure sensor, the control unit configured to (i) pressurize the pressure chamber on the outside of the flexible container to a desired positive or negative motive fluid pressure used to push fluid out of the flexible container through one of the at least one destination line (108, 110) or pull fluid into the flexible container through one of the at least one source line (108, 114, 116), respectively, and (ii) repeat (i) until a motive fluid pressure read by the motive fluid pressure sensor becomes or remains at least substantially constant when it is attempted to push fluid out of the flexible container or pull fluid into the flexible container, indicating that the flexible container is empty or full, respectively. a pressure chamber; a disposable set including a flexible container located within the pressure chamber, at least one source line (108, 114, 116) and at least one destination line (108, 110); a motive fluid pressurization device (70, 72, 74, 80, 82, 86, 90, 92, 94); a motive fluid pressure sensor; and a control unit in operable communication with the motive fluid pressurization device (70, 72, 74, 80, 82, 86, 90, 92, 94) and the motive fluid pressure sensor, the control unit configured to (i) pressurize the pressure chamber on the outside of the flexible container to a desired positive or negative motive fluid pressure used to push fluid out of the flexible container through one of the at least one destination line (108, 110) or pull fluid into the flexible container through one of the at least one source line (108, 114, 116), respectively, and (ii) repeat (i) until a motive fluid pressure read by the motive fluid pressure sensor becomes or remains at least substantially constant when it is attempted to push fluid out of the flexible container or pull fluid into the flexible container, indicating that the flexible container is empty or full, respectively.
Light-emitting tile having a layer structure which has a visible plate, a support plate on the reverse side and a sealed interspace between the visible plate and the support plate for the at least one OLED, characterised in that a snap-in and/or spring contact for the at least one OLED is provided as electrical connection on the reverse side opposite the visible plate and where electronic components are arranged on the reverse side of the light-emitting tile in the recess for passing-through a snap-in and/or spring contact.
A device (500, 700) for generating a spin current, the device comprising: a planar component (251, 751) for generating an out-of-plane orbital current via Orbital Hall Effect of an in-plane charge current flow within the planar component, wherein the planar component (251, 751) is substantially constituted of an ordinary metal lacking a 5d electron shell; a heavy metal layer (201, 701) in electrical contact with a face of the planar component, for converting the out-of-plane orbital current to an out-of-plane spin-current, wherein the heavy metal has a 5d electron shell; characterized by a ferromagnetic component (501, 701) above the heavy metal layer (201, 701); by two electrical terminals (503, 504; 703, 704) connected to different sides of the planar component (251, 751); and by an electrical resistance measuring apparatus (520, 741) connected between the two electrical terminals. a planar component (251, 751) for generating an out-of-plane orbital current via Orbital Hall Effect of an in-plane charge current flow within the planar component, wherein the planar component (251, 751) is substantially constituted of an ordinary metal lacking a 5d electron shell; a heavy metal layer (201, 701) in electrical contact with a face of the planar component, for converting the out-of-plane orbital current to an out-of-plane spin-current, wherein the heavy metal has a 5d electron shell; characterized by a ferromagnetic component (501, 701) above the heavy metal layer (201, 701); by two electrical terminals (503, 504; 703, 704) connected to different sides of the planar component (251, 751); and by an electrical resistance measuring apparatus (520, 741) connected between the two electrical terminals.
Plant for producing hydrogen at cryogenic temperature, in particular liquefied hydrogen, comprising an electrolyzer provided with an oxygen outlet and a hydrogen outlet, and a circuit for hydrogen to be cooled, comprising an upstream end connected to the hydrogen outlet and a downstream end intended to be connected to a member for collecting cooled and/or liquefied hydrogen, the plant comprising a set of heat exchanger(s) (4, 5, 6, 7, 8) exchanging heat with the circuit for hydrogen to be cooled, the plant comprising at least one cooling device (9, 10) exchanging heat with at least part of the set of heat exchanger(s) (4, 5, 6, 7, 8), the plant comprising an oxygen circuit comprising an upstream end connected to the oxygen outlet and a downstream end, the oxygen circuit comprising an oxygen flow expansion system and at least one exchange of heat between the expanded oxygen flow and the circuit for hydrogen to be cooled, the oxygen circuit comprising at least one oxygen compressor arranged upstream of the oxygen flow expansion system, the oxygen flow expansion system comprising an expansion turbine, characterized in that said expansion turbine and said compressor are coupled to the same rotary shaft to transfer work of expanding the oxygen flow under pressure to the compressor to compress the oxygen flow upstream of the turbine.
A valve comprising: a first valve component connectable to one of either a fuel supply or a device; a second valve component connectable to the other of either a fuel supply or a device, wherein one valve component is configured to be mated to the other valve component; an inter-component sealing member disposed between a first valve component face and a second valve component face; wherein each valve component (50,52) comprises a housing (54,68), a movable inner body (56,70), and a flow path, wherein the movable inner body (56,70) cooperates with a sealing surface (66,74) to form a seal within the flow path of each valve component (50,52) when the valve components (50,52) are unconnected, and wherein during connection the inter-component sealing member forms an inter- component seal between the first valve component and the second valve component and the seals in the valve components (50,52) open, characterized in that a back end of one of the valve components comprises a one-way valve fluidly connected to the flow path, so that when said valve component re-establishes a seal, a suck-back effect is created: a first valve component connectable to one of either a fuel supply or a device; a second valve component connectable to the other of either a fuel supply or a device, wherein one valve component is configured to be mated to the other valve component; an inter-component sealing member disposed between a first valve component face and a second valve component face; wherein each valve component (50,52) comprises a housing (54,68), a movable inner body (56,70), and a flow path, wherein the movable inner body (56,70) cooperates with a sealing surface (66,74) to form a seal within the flow path of each valve component (50,52) when the valve components (50,52) are unconnected, and wherein during connection the inter-component sealing member forms an inter- component seal between the first valve component and the second valve component and the seals in the valve components (50,52) open, characterized in that a back end of one of the valve components comprises a one-way valve fluidly connected to the flow path, so that when said valve component re-establishes a seal, a suck-back effect is created:
Process for producing crosslinked polymers, wherein a polyacrylate comprising at least one carboxyl group is at least partially crosslinked by reaction with an at least doubly epoxidized crosslinker, and the at least doubly epoxidized crosslinker is selected from a group encompassing fatty acids, fatty acid esters, fatty alcohols, esters of fatty alcohols and combinations thereof. a polyacrylate comprising at least one carboxyl group is at least partially crosslinked by reaction with an at least doubly epoxidized crosslinker, and the at least doubly epoxidized crosslinker is selected from a group encompassing fatty acids, fatty acid esters, fatty alcohols, esters of fatty alcohols and combinations thereof.
A method for performing industrial automation control, comprising: detecting, via a range camera, positions and motions of an element in an industrial automation system; determining a range of expected derivative values for the element based on historical data acquired by the range camera, the expected derivative values being acceleration values; determining at least one derivative value of the detected motions, wherein the at least one derivative value corresponds to an acceleration of the detected motions; determining an automation command based on the detected motions; determining whether the at least one derivative value is within the range of expected derivative values; and when the at least one derivative value is not within the range of expected derivative values, modifying the automation command and implementing a control and/or notification action based upon the modified automation command. detecting, via a range camera, positions and motions of an element in an industrial automation system; determining a range of expected derivative values for the element based on historical data acquired by the range camera, the expected derivative values being acceleration values; determining at least one derivative value of the detected motions, wherein the at least one derivative value corresponds to an acceleration of the detected motions; determining an automation command based on the detected motions; determining whether the at least one derivative value is within the range of expected derivative values; and when the at least one derivative value is not within the range of expected derivative values, modifying the automation command and implementing a control and/or notification action based upon the modified automation command.
An optical module (10, 10', 10", 10′′′, 10ʺʺ, 50, 50', 60), comprising: a substrate; an optical detector carried by the substrate; a laser emitter carried by the substrate; a support structure carried by the substrate; an optical layer (19, 19', 19", 19′′′, 19ʺʺ, 19′′′ʺ) comprising: a fixed portion carried by the support structure; a movable portion affixed between opposite sides of the fixed portion by a spring structure (21, 22, 29, 31); a lens system carried by the movable portion; and a MEMS actuator (25, 26) for in-plane movement of the movable portion with respect to the fixed portion; wherein the lens system includes an objective lens portion and a beam shaping lens portion, the objective lens portion being positioned such that it overlies the optical detector, the beam shaping lens portion being positioned such that it overlies the laser emitter. a substrate; an optical detector carried by the substrate; a laser emitter carried by the substrate; a support structure carried by the substrate; an optical layer (19, 19', 19", 19′′′, 19ʺʺ, 19′′′ʺ) comprising: a fixed portion carried by the support structure; a movable portion affixed between opposite sides of the fixed portion by a spring structure (21, 22, 29, 31); a lens system carried by the movable portion; and a MEMS actuator (25, 26) for in-plane movement of the movable portion with respect to the fixed portion; a fixed portion carried by the support structure; a movable portion affixed between opposite sides of the fixed portion by a spring structure (21, 22, 29, 31); a lens system carried by the movable portion; and a MEMS actuator (25, 26) for in-plane movement of the movable portion with respect to the fixed portion;