mhurhangee/ep-ind-claims huggingface dataset:
A handheld personal communication apparatus (30a, 30b, 30c, 60, 90) for dialysis comprising: a reader (38, 42, 92, 94) configured to perform at least one of (i) read a marking displayed on a dialysis fluid container to acquire data concerning at least one of a dialysis fluid type or a dialysis fluid volume from the marking, or (ii) receive a patient weight signal from a weight scale; a processor (44, 98) configured to use the at least one of the dialysis fluid type, the dialysis fluid volume, or the patient weight signal to determine a dialysis dwell time for at least one cycle of a dialysis therapy for a patient, the dialysis dwell time corresponding to a time to achieve at least one of (a) a specified ultrafiltrate level for the at least one cycle, (b) a urea removal level for the at least one cycle, or (c) a creatinine removal level for the at least one cycle; and an output interface (48, 62, 102) configured to provide an indication to the patient of a completion of the dialysis dwell time. a reader (38, 42, 92, 94) configured to perform at least one of (i) read a marking displayed on a dialysis fluid container to acquire data concerning at least one of a dialysis fluid type or a dialysis fluid volume from the marking, or (ii) receive a patient weight signal from a weight scale; a processor (44, 98) configured to use the at least one of the dialysis fluid type, the dialysis fluid volume, or the patient weight signal to determine a dialysis dwell time for at least one cycle of a dialysis therapy for a patient, the dialysis dwell time corresponding to a time to achieve at least one of (a) a specified ultrafiltrate level for the at least one cycle, (b) a urea removal level for the at least one cycle, or (c) a creatinine removal level for the at least one cycle; and an output interface (48, 62, 102) configured to provide an indication to the patient of a completion of the dialysis dwell time.
An apparatus comprising: one or more computer processors; a virtual machine monitor configured to be operated by the one or more computer processors to: determine that an instruction that one of the one or more computer processors is about to execute is partially located in each of a first memory page and a second memory page, and the one computer processor does not have permission to execute the instruction located in the first memory page, and the execution is only permitted on the second page, in accordance with a first set of stored memory access permissions; and facilitate the execution of the instruction by allowing the one computer processor to execute the instruction in accordance with a second set of memory access permissions that permits execution of instructions located in both the first and the second memory pages; after execution of the instruction, restoring the first set of stored memory access permissions for execution of a subsequent instruction. one or more computer processors; a virtual machine monitor configured to be operated by the one or more computer processors to: determine that an instruction that one of the one or more computer processors is about to execute is partially located in each of a first memory page and a second memory page, and the one computer processor does not have permission to execute the instruction located in the first memory page, and the execution is only permitted on the second page, in accordance with a first set of stored memory access permissions; and facilitate the execution of the instruction by allowing the one computer processor to execute the instruction in accordance with a second set of memory access permissions that permits execution of instructions located in both the first and the second memory pages; after execution of the instruction, restoring the first set of stored memory access permissions for execution of a subsequent instruction. determine that an instruction that one of the one or more computer processors is about to execute is partially located in each of a first memory page and a second memory page, and the one computer processor does not have permission to execute the instruction located in the first memory page, and the execution is only permitted on the second page, in accordance with a first set of stored memory access permissions; and facilitate the execution of the instruction by allowing the one computer processor to execute the instruction in accordance with a second set of memory access permissions that permits execution of instructions located in both the first and the second memory pages; after execution of the instruction, restoring the first set of stored memory access permissions for execution of a subsequent instruction.
An actuator comprising: - a body, and - a first element mounted movable in rotation relative to the body, and a second element mounted movable in translation relative to the body, one of the first element and of the second element being a screw, and the other of the first element and of the second element being a nut, the nut being able to cooperate with the screw so that a rotation of the first element relative to the body around an axis of rotation causes translation of the second element relative to the body parallel to the axis of rotation, characterized in that it further comprises - a cylinder (28, 29) which is stationary in relation to the first element, - a piston (30, 31) mounted movable in translation inside the cylinder (28, 29) between a first end position and a second end position, and - a cam surface fixed in relation to the body and against which the piston (30, 31) is urged so that rotation of the first element relative to the body causes a back-and-forth movement in translation of the piston (30, 31) between the first end position and the second end position. - a body, and - a first element mounted movable in rotation relative to the body, and a second element mounted movable in translation relative to the body, one of the first element and of the second element being a screw, and the other of the first element and of the second element being a nut, the nut being able to cooperate with the screw so that a rotation of the first element relative to the body around an axis of rotation causes translation of the second element relative to the body parallel to the axis of rotation, - a cylinder (28, 29) which is stationary in relation to the first element, - a piston (30, 31) mounted movable in translation inside the cylinder (28, 29) between a first end position and a second end position, and - a cam surface fixed in relation to the body and against which the piston (30, 31) is urged so that rotation of the first element relative to the body causes a back-and-forth movement in translation of the piston (30, 31) between the first end position and the second end position.
A method for manufacturing an optical component, the method comprising: providing at least partially cured pre-molded or pre-cast silicone optics from an optic forming device; placing a template die over an optical structure; placing by hand or using a pick and place robot the pre-molded or pre-cast silicone optics into openings in the template die and arranging the silicone optics on a layer of heat cured silicone optical material that was deposited on the optical structure; bonding the pre-molded or pre-cast silicone optics to the optical structure using the heat cured silicone optical material to form a complete part; inserting the complete part into a thermal curing oven or a lehr to cure the heat cured silicone optical material. providing at least partially cured pre-molded or pre-cast silicone optics from an optic forming device; placing a template die over an optical structure; placing by hand or using a pick and place robot the pre-molded or pre-cast silicone optics into openings in the template die and arranging the silicone optics on a layer of heat cured silicone optical material that was deposited on the optical structure; bonding the pre-molded or pre-cast silicone optics to the optical structure using the heat cured silicone optical material to form a complete part; inserting the complete part into a thermal curing oven or a lehr to cure the heat cured silicone optical material.
A medical device comprising: a first hollow member configured to allow air or an inert gas passage; a second hollow member having a distal end and a proximal end, the proximal end configured to be connectable to a vacuum or suction source; a housing member configured to receive both the first hollow member and the second hollow member; and a push button configured to be operably connected to the housing member, wherein the push button is configured to disengage the first hollow member and occlude the second hollow member when the push button is depressed by a force, characterized in that the device further comprises an inflation bulb configured to be attachable to the housing member, a proximal end of the first hollow member being configured to be in fluid communication with the bulb, wherein the second hollow member is configured to be connectable to the vacuum or suction source through the inflation bulb. a first hollow member configured to allow air or an inert gas passage; a second hollow member having a distal end and a proximal end, the proximal end configured to be connectable to a vacuum or suction source; a housing member configured to receive both the first hollow member and the second hollow member; and a push button configured to be operably connected to the housing member,
Hob system, comprising 1.1. a cooking surface for heating food and 1.2. an extractor device for extracting cooking fumes downwards, having 1.2.1. at least one inlet opening for cooking fumes to enter the extractor device, and 1.2.2. at least two fans, having mutually oblique axes of rotation, for drawing in the cooking fumes through the at least one inlet opening, 1.3. wherein a front construction height (Hv) of the hob system in a horizontal region between a front edge and a geometric area centre of gravity of the hob system is at most 100 mm, 1.4. wherein a total construction height of the hob system is at most 250 mm. 1.1. a cooking surface for heating food and 1.2. an extractor device for extracting cooking fumes downwards, having 1.2.1. at least one inlet opening for cooking fumes to enter the extractor device, and 1.2.2. at least two fans, having mutually oblique axes of rotation, for drawing in the cooking fumes through the at least one inlet opening, 1.2.1. at least one inlet opening for cooking fumes to enter the extractor device, and 1.2.2. at least two fans, having mutually oblique axes of rotation, for drawing in the cooking fumes through the at least one inlet opening, 1.3. wherein a front construction height (Hv) of the hob system in a horizontal region between a front edge and a geometric area centre of gravity of the hob system is at most 100 mm, 1.4. wherein a total construction height of the hob system is at most 250 mm.
A Para-Hydrogen Induced Polarization process for the preparation of a [1- 13 C]-hyperpolarized carboxylate containing molecule of diagnostic interest that comprises hydrogenating with molecular para-hydrogen an unsaturated C 2 -C 4 alkenyl or alkynyl ester of said carboxylate containing molecule.
A process for forming an α,β-unsaturated carboxylic acid or a salt thereof, the process comprising: a) contacting in any order 1) a transition metal precursor comprising at least one first ligand; 2) optionally, at least one second ligand; 3) an olefin; 4) carbon dioxide (CO 2); 5) a diluent; and 6) a sulfur oxoacid anion-substituted polyaromatic resin or a phosphorus oxoacid anion-substituted polyaromatic resin comprising a sulfonated polyaromatic resin, a phosphonated polyaromatic resin, a sulfinated polyaromatic resin, a thiosulfonated, or a thiosulfinated polyaromatic resin, wherein the polyaromatic resin further comprises associated metal cations, to provide a reaction mixture; and b) applying reaction conditions to the reaction mixture suitable to form the α,β-unsaturated carboxylic acid or the salt thereof. a) contacting in any order 1) a transition metal precursor comprising at least one first ligand; 2) optionally, at least one second ligand; 3) an olefin; 4) carbon dioxide (CO 2); 5) a diluent; and 6) a sulfur oxoacid anion-substituted polyaromatic resin or a phosphorus oxoacid anion-substituted polyaromatic resin comprising a sulfonated polyaromatic resin, a phosphonated polyaromatic resin, a sulfinated polyaromatic resin, a thiosulfonated, or a thiosulfinated polyaromatic resin, wherein the polyaromatic resin further comprises associated metal cations, to provide a reaction mixture; and 1) a transition metal precursor comprising at least one first ligand; 2) optionally, at least one second ligand; 3) an olefin; 4) carbon dioxide (CO 2); 5) a diluent; and 6) a sulfur oxoacid anion-substituted polyaromatic resin or a phosphorus oxoacid anion-substituted polyaromatic resin comprising a sulfonated polyaromatic resin, a phosphonated polyaromatic resin, a sulfinated polyaromatic resin, a thiosulfonated, or a thiosulfinated polyaromatic resin, wherein the polyaromatic resin further comprises associated metal cations, to provide a reaction mixture; and b) applying reaction conditions to the reaction mixture suitable to form the α,β-unsaturated carboxylic acid or the salt thereof.
A method for producing a secondary battery that includes a positive electrode provided with a positive electrode active material layer, a negative electrode provided with a negative electrode active material layer, and a nonaqueous electrolyte, the method comprising: a step of constructing a cell including the positive electrode provided with the positive electrode active material layer comprising a lithium-containing transition metal oxide as a positive electrode active material, the negative electrode provided with the negative electrode active material layer comprising a carbon material as negative electrode active material and the nonaqueous electrolyte; and a step of performing an initial conditioning charging the constructed cell to achieve the secondary battery, characterized in that the method further comprises, before the initial conditioning step: a micro-charging step of charging the constructed cell over one hour or longer, until the charge reaches a value from 0.01% to 0.5% of the cell capacity of the constructed cell and maintaining the state of charge. a step of constructing a cell including the positive electrode provided with the positive electrode active material layer comprising a lithium-containing transition metal oxide as a positive electrode active material, the negative electrode provided with the negative electrode active material layer comprising a carbon material as negative electrode active material and the nonaqueous electrolyte; and a step of performing an initial conditioning charging the constructed cell to achieve the secondary battery, characterized in that the method further comprises, before the initial conditioning step: a micro-charging step of charging the constructed cell over one hour or longer, until the charge reaches a value from 0.01% to 0.5% of the cell capacity of the constructed cell and maintaining the state of charge. a micro-charging step of charging the constructed cell over one hour or longer, until the charge reaches a value from 0.01% to 0.5% of the cell capacity of the constructed cell and maintaining the state of charge.
A downhole activation system within a tubular, the system comprising: an axially movable mover; a first magnet attached to the mover, the first magnet axially movable with the mover; a second magnet separated from the first magnet, the second magnet magnetically repulsed by the first magnet; and, a biasing device urging the second magnet towards the first magnet; wherein movement of the first magnet via the mover towards the second magnet moves the second magnet in a direction against the biasing device; characterised in that the system further comprises a third magnet magnetically attracted to the second magnet, the biasing device being interposed between the second and third magnets (86, 94). an axially movable mover; a first magnet attached to the mover, the first magnet axially movable with the mover; a second magnet separated from the first magnet, the second magnet magnetically repulsed by the first magnet; and, a biasing device urging the second magnet towards the first magnet; wherein movement of the first magnet via the mover towards the second magnet moves the second magnet in a direction against the biasing device; characterised in that the system further comprises a third magnet magnetically attracted to the second magnet, the biasing device being interposed between the second and third magnets (86, 94).
Electrophysiologically based Spectro-Temporal Modulation test unit, the STM test unit comprising - an STM stimulus generating unit - an output unit - wherein the STM stimulus generating unit is configured to provide STM test stimuli comprising at least one STM probe stimulus to a user via the output unit according to a predetermined STM test protocol wherein the STM test unit further comprising: - one or more electrodes for measuring electrophysiological responses of the user - an analysis unit configured to analyse the recorded electrophysiological responses of the user measured in response to the provided STM test stimuli, characterised in that the STM stimulus generating unit is configured to one or more times obtain a first or second or additional predetermined hearing threshold level of a specific user from a memory of the electrophysiologically based STM test unit, prior to carrying out said electrophysiologically based STM test on said specific user, and to shape the sound pressure level of said STM probe stimulus as a function of frequency based on said first or second or additional predetermined HTL of said specific user. - an STM stimulus generating unit - an output unit - wherein the STM stimulus generating unit is configured to provide STM test stimuli comprising at least one STM probe stimulus to a user via the output unit according to a predetermined STM test protocol - one or more electrodes for measuring electrophysiological responses of the user - an analysis unit configured to analyse the recorded electrophysiological responses of the user measured in response to the provided STM test stimuli,
An alcoholic liquid composition which is between 30% vol to 50% vol, having particles suspended using low acyl gellan gum, wherein the amount of gellan gum is up to 0,5 g.l -1 of the final liquid composition, wherein said composition comprises sodium citrate as a sequestrant and calcium lactate as a gelling agent, and wherein said sodium citrate is present in an amount of at least equal or higher than 1.5 times the amount of gellan gum and wherein said calcium lactate is between 0,5 times and 0,75 times the amount of gellan gum.
A thermal management system for selectively thermally isolating and thermally connecting a target component, comprising: a first component having a first surface proximate to the target component; a first electromagnet between the first surface and the target component; a second component spaced apart from the first component; a gap serving as a thermal boundary between the first component and the second component; a carrier fluid disposed within the gap and including a colloidal solution comprising a base fluid and multiple thermally conductive, ferrous particles, wherein a thermal conductivity of the base fluid is less than a thermal conductivity of the thermally conductive, ferrous particles suspended within the base fluid, the carrier fluid being configured to align at least a portion of the thermally conductive, ferrous particles across a central region of the gap when the first electromagnet generates a magnetic field that attracts the particles, and to displace at least a portion of the particles from the central region of the gap when the first electromagnet generates a magnetic field that repels the particles, the carrier fluid and the first electromagnet operating to selectively thermally connect and thermally isolate the target component. a first component having a first surface proximate to the target component; a first electromagnet between the first surface and the target component; a second component spaced apart from the first component; a gap serving as a thermal boundary between the first component and the second component; a carrier fluid disposed within the gap and including a colloidal solution comprising a base fluid and multiple thermally conductive, ferrous particles, wherein a thermal conductivity of the base fluid is less than a thermal conductivity of the thermally conductive, ferrous particles suspended within the base fluid, the carrier fluid being configured to align at least a portion of the thermally conductive, ferrous particles across a central region of the gap when the first electromagnet generates a magnetic field that attracts the particles, and to displace at least a portion of the particles from the central region of the gap when the first electromagnet generates a magnetic field that repels the particles, the carrier fluid and the first electromagnet operating to selectively thermally connect and thermally isolate the target component.
A unitized hydrodesulfurizer, heat exchanger and shift converter assembly comprising: a cylindrical shift converter configured to change CO to CO2, said shift converter surrounded by an annular passage configured to have a flow of hot gas therethrough, said annular passage having a cylindrical outer wall, an annular hydrodesulfurizer having an inner cylindrical wall, characterized in that said cylindrical outer wall of said cylindrical shift converter is a medial cylindrical outer wall with at least one rod coiled around said medial cylindrical outer wall a plurality of times, and a thin cylindrical shell surrounding and in contact with said at least one rod, thereby establishing one or more spiral passages configured to flow gas around said medial cylindrical outer wall to absorb heat from said flow of hot gas, said inner cylindrical wall of said annular hydrodesulfurizer having a diameter at least a few millimeters greater than the diameter of said thin shell, said spiral passages opening into said hydrodesulfurizer, and said cylindrical shift converter, said annular passage and said spiral passages form a unit which is inserted into said inner cylindrical wall of said annular hydrodesulfurizer. a cylindrical shift converter configured to change CO to CO2, said shift converter surrounded by an annular passage configured to have a flow of hot gas therethrough, said annular passage having a cylindrical outer wall, an annular hydrodesulfurizer having an inner cylindrical wall, characterized in that said cylindrical outer wall of said cylindrical shift converter is a medial cylindrical outer wall with at least one rod coiled around said medial cylindrical outer wall a plurality of times, and a thin cylindrical shell surrounding and in contact with said at least one rod, thereby establishing one or more spiral passages configured to flow gas around said medial cylindrical outer wall to absorb heat from said flow of hot gas, said inner cylindrical wall of said annular hydrodesulfurizer having a diameter at least a few millimeters greater than the diameter of said thin shell, said spiral passages opening into said hydrodesulfurizer, and said cylindrical shift converter, said annular passage and said spiral passages form a unit which is inserted into said inner cylindrical wall of said annular hydrodesulfurizer.