mhurhangee/ep-ind-claims huggingface dataset:
An extracorporeal hemodialysis circuit comprising: a) arterial tubing for receiving unfiltered blood from a patient; b) venous line for providing filtered blood to the patient; and c) a dialyzer and an apparatus for controlling pressure differential located within the extracorporeal hemodialysis circuit so that blood flows from the patient, through the arterial tubing, through the dialyzer, through the apparatus for controlling differential pressure, and into the venous line, wherein the apparatus for controlling pressure differential controls pressure differential across a semipermeable membrane sealing an exit pathway from a gas collection chamber, the apparatus for controlling pressure differential comprising: i) a first pressure sensor that senses the pressure along the exit pathway from the gas collection chamber; ii) a second pressure sensor (521, 511) that senses an inlet or outlet pressure of the gas collection chamber; iii) a semipermeable membrane disposed between the gas collection chamber and the exit pathway; iv) a valve operably connected to a gas source, the exit pathway from the gas collection chamber, and the atmosphere; and v) a control apparatus connected to the first pressure sensor and the valve; wherein the control apparatus can vary the pressure provided by the pressurized gas source in order to vary the amount of backpressure applied across the semipermeable membrane. a) arterial tubing for receiving unfiltered blood from a patient; b) venous line for providing filtered blood to the patient; and c) a dialyzer and an apparatus for controlling pressure differential located within the extracorporeal hemodialysis circuit so that blood flows from the patient, through the arterial tubing, through the dialyzer, through the apparatus for controlling differential pressure, and into the venous line, wherein the apparatus for controlling pressure differential controls pressure differential across a semipermeable membrane sealing an exit pathway from a gas collection chamber, the apparatus for controlling pressure differential comprising: i) a first pressure sensor that senses the pressure along the exit pathway from the gas collection chamber; ii) a second pressure sensor (521, 511) that senses an inlet or outlet pressure of the gas collection chamber; iii) a semipermeable membrane disposed between the gas collection chamber and the exit pathway; iv) a valve operably connected to a gas source, the exit pathway from the gas collection chamber, and the atmosphere; and v) a control apparatus connected to the first pressure sensor and the valve; i) a first pressure sensor that senses the pressure along the exit pathway from the gas collection chamber; ii) a second pressure sensor (521, 511) that senses an inlet or outlet pressure of the gas collection chamber; iii) a semipermeable membrane disposed between the gas collection chamber and the exit pathway; iv) a valve operably connected to a gas source, the exit pathway from the gas collection chamber, and the atmosphere; and v) a control apparatus connected to the first pressure sensor and the valve;
Mold comprising a first portion which comprises a shell on which is returned a molding zone forming a mechanical interface between said molding zone and the shell, and heating means in the form of inducers, extending along a direction, called longitudinal, in cavities between said interface and the molding zone, and a cooling device extending to the interface between said molding zone and the shell characterized in that it comprises at the interface between the shell and the molding zone, a strip made of graphite or copper or nickel or a nickel alloy, soldered on the molding zone, the mold being closed, by using the means for heating the mold.
A method for disoccluded region coding in multiview video data stream by an entropy encoder, the method comprising the steps of: a) entropy encoding a block of a base view; b) storing state and estimated probabilities in context models of the entropy encoder in a context storage module with a reference identifying the block of the base view; c) repeating the aforementioned steps of encoding and storing for every block of the base view of the multiview video data stream; d) starting encoding of a detected disoccluded region and dividing, into blocks, disoccluded region of a side view associated with the base view; e) determining, for neighboring blocks, of the currently coded block of the disoccluded region, that are not in the disoccluded region, a corresponding block in the base view, using a block correspondence database; f) when such a correspondence is determined, reading a previously stored state and estimated probabilities in context models of the entropy encoder for the corresponding block; g) copying all coding modes from the corresponding block, in the base view, to the neighboring block according to said correspondence; h) applying, to the entropy encoder, the state, including said coding modes, and estimated probabilities in context models of the block, of the disoccluded region, that is on the left of the currently processed block; i) encoding, by the entropy encoder, the currently coded block of the side view; and j) repeating steps (e) to (i) for all blocks of the side view associated with the base view processed in steps (a) to (b). a) entropy encoding a block of a base view; b) storing state and estimated probabilities in context models of the entropy encoder in a context storage module with a reference identifying the block of the base view; c) repeating the aforementioned steps of encoding and storing for every block of the base view of the multiview video data stream; d) starting encoding of a detected disoccluded region and dividing, into blocks, disoccluded region of a side view associated with the base view; e) determining, for neighboring blocks, of the currently coded block of the disoccluded region, that are not in the disoccluded region, a corresponding block in the base view, using a block correspondence database; f) when such a correspondence is determined, reading a previously stored state and estimated probabilities in context models of the entropy encoder for the corresponding block; g) copying all coding modes from the corresponding block, in the base view, to the neighboring block according to said correspondence; h) applying, to the entropy encoder, the state, including said coding modes, and estimated probabilities in context models of the block, of the disoccluded region, that is on the left of the currently processed block; i) encoding, by the entropy encoder, the currently coded block of the side view; and j) repeating steps (e) to (i) for all blocks of the side view associated with the base view processed in steps (a) to (b).
Adjustable seat assembly for a motorcycle, with a seat pan and an adjusting device, the seat pan comprising a base portion and two pivoting portions (20, 22) which are connected pivotably to the base portion and are arranged on the base portion next to one another as viewed in the longitudinal direction of the seat assembly, the base portion having a fastening portion for fastening the seat assembly to the motorcycle, and the adjusting device being configured to pivot the two pivoting portions (20, 22) in each case with respect to the base portion, characterized in that the pivoting portions (20, 22) are in each case connected to the base portion at the front, laterally outer end, as viewed in the longitudinal direction of the seat assembly, by means of a pivot axle (32, 36), with the result that the pivoting movement of the two pivoting portions (20, 22) takes place laterally to the outside away from one another or towards one another, as viewed in the longitudinal direction of the seat assembly, the pivoting movement of the two pivoting portions (20, 22) bringing about a pure width adjustment of the seat assembly.
A support member for peripheral stage devices comprising: a plurality of elongated members (15, 20, 25) connected to form a first elongated rigid structure; a first elongated member of the plurality of elongated members disposed proximate to a first edge of the first elongated rigid structure with a first member top surface; a first stacking guide disposed on the first elongated member wherein a first attachment top surface is to slope toward the first member top surface; a second elongated member of the plurality of elongated members disposed proximate to a second edge of the first elongated rigid structure with a second member top surface, wherein the second edge is opposite the first edge; and a second stacking guide disposed on the second elongated member, wherein a second attachment top surface is to slope toward the second member top surface, and wherein the first stacking guide and the second stacking guide are to guide in use a second elongated rigid structure above the first elongated rigid structure, wherein the first stacking guide guides a first attachment point on the second elongated rigid structure and the second stacking guide guides a second attachment point on the second elongated rigid structure to stack the second elongated rigid structure above the first elongated rigid structure. a plurality of elongated members (15, 20, 25) connected to form a first elongated rigid structure; a first elongated member of the plurality of elongated members disposed proximate to a first edge of the first elongated rigid structure with a first member top surface; a first stacking guide disposed on the first elongated member wherein a first attachment top surface is to slope toward the first member top surface; a second elongated member of the plurality of elongated members disposed proximate to a second edge of the first elongated rigid structure with a second member top surface, wherein the second edge is opposite the first edge; and a second stacking guide disposed on the second elongated member, wherein a second attachment top surface is to slope toward the second member top surface, and wherein the first stacking guide and the second stacking guide are to guide in use a second elongated rigid structure above the first elongated rigid structure, wherein the first stacking guide guides a first attachment point on the second elongated rigid structure and the second stacking guide guides a second attachment point on the second elongated rigid structure to stack the second elongated rigid structure above the first elongated rigid structure.
A vacuum tube receiver (400, 500, 600, 700, 800, 900, 1000) comprising: a housing having a proximal end and a distal end and forming a hollow interior, the proximal end forming a proximal opening for receiving a vacuum tube (110, 850) into the hollow interior, the distal end forming an adapter for coupling the vacuum tube receiver (400, 500, 600, 700, 800, 900, 1000) to an intravenous system; a spike (410, 510, 610, 710a, 710b, 810, 910a, 910b, 1010) that extends proximally into the hollow interior, the spike including an opening (411, 611) and forming a blood flow path; and characterized by the vacuum tube receiver comprising: a flow control component having a shaft that inserts into a distal end of the spike and a head that is positioned overtop the distal end of the spike, the head forming channels through which blood flows to enter the spike. a housing having a proximal end and a distal end and forming a hollow interior, the proximal end forming a proximal opening for receiving a vacuum tube (110, 850) into the hollow interior, the distal end forming an adapter for coupling the vacuum tube receiver (400, 500, 600, 700, 800, 900, 1000) to an intravenous system; a spike (410, 510, 610, 710a, 710b, 810, 910a, 910b, 1010) that extends proximally into the hollow interior, the spike including an opening (411, 611) and forming a blood flow path; and characterized by the vacuum tube receiver comprising: a flow control component having a shaft that inserts into a distal end of the spike and a head that is positioned overtop the distal end of the spike, the head forming channels through which blood flows to enter the spike.
A surgical lighting system comprising: a first lighthead for illuminating a work area, said first lighthead formed as a unitary lighthead assembly; a first sensor assembly associated with the first lighthead for detecting blockage of light between the first lighthead and the work area; a second lighthead for illuminating the work area, said second lighthead formed as a unitary lighthead assembly; an adaptive shadow control for receiving a blockage detection signal from the first sensor assembly and increasing the light output from the unitary lighthead assembly of at least one of the first or second lighthead (30, 40) to compensate for the blockage; and characterized by comprising a co-illumination control configured (i) for detecting a signal from the first sensor assembly indicative of a co-illumination lighting mode resulting from overlapping light beams from the first and second lightheads (30, 40) into a single light pattern, and (ii) to disable the adaptive shadow control upon detecting an independent lighting mode in which the first and second lightheads (30, 40) are operated independently, such that the light beams emitted by the first and second lightheads (30, 40) are not overlapped at a single location into a single light pattern. a first lighthead for illuminating a work area, said first lighthead formed as a unitary lighthead assembly; a first sensor assembly associated with the first lighthead for detecting blockage of light between the first lighthead and the work area; a second lighthead for illuminating the work area, said second lighthead formed as a unitary lighthead assembly; an adaptive shadow control for receiving a blockage detection signal from the first sensor assembly and increasing the light output from the unitary lighthead assembly of at least one of the first or second lighthead (30, 40) to compensate for the blockage; and characterized by comprising a co-illumination control configured (i) for detecting a signal from the first sensor assembly indicative of a co-illumination lighting mode resulting from overlapping light beams from the first and second lightheads (30, 40) into a single light pattern, and (ii) to disable the adaptive shadow control upon detecting an independent lighting mode in which the first and second lightheads (30, 40) are operated independently, such that the light beams emitted by the first and second lightheads (30, 40) are not overlapped at a single location into a single light pattern.
A polycarbonate resin composition which comprises a polycarbonate resin and an aromatic polycarbonate resin, the polycarbonate resin comprising a constitutional unit derived from a dihydroxy compound (a) having, as part of the structure thereof, a site represented by the following formula and a constitutional unit derived from a dihydroxy compound (b) of an aliphatic hydrocarbon, wherein the dihydroxy compound (a) is a dihydroxy compound represented by the following formula, wherein the proportion of the constitutional unit derived from the dihydroxy compound (b) of an aliphatic hydrocarbon based on all constitutional units each derived from a dihydroxy compound in the polycarbonate resin is 45% by mole or more, and wherein the polycarbonate resin composition has a single glass transition temperature and the glass transition temperature is not lower than the glass transition temperature of the polycarbonate resin and not higher than the glass transition temperature of the aromatic polycarbonate resin
Process for the preparation of compounds of formula I in which R is methyl, phenyl, 4-hydroxy-phenyl or 4-methoxyphenyl and pharmaceutically salts, tautomers and stereoisomers thereof, characterised in that a compound of the formula II and the salts thereof is reacted with a compound of the formula III R-CHO III in which R is as defined above, in a polar solvent or solvent mixture in presence of an inorganic and/or organic base selected from the group consisting of K 2 CO 3, NaHCO 3, NaOMe, Na 2 CO 3, piperidine, and morpholine. R is methyl, phenyl, 4-hydroxy-phenyl or 4-methoxyphenyl and pharmaceutically salts, tautomers and stereoisomers thereof, characterised in that a compound of the formula II and the salts thereof is reacted with a compound of the formula III R-CHO III in which R is as defined above, in a polar solvent or solvent mixture in presence of an inorganic and/or organic base selected from the group consisting of K 2 CO 3, NaHCO 3, NaOMe, Na 2 CO 3, piperidine, and morpholine.
A process for polymerizing fluoromonomer to form a dispersion of fluoropolymer particles in an aqueous medium in a polymerization reactor, which comprises adding to the polymerization reactor: aqueous medium, polymerization initiator, fluoromonomer, and hydrocarbon-containing surfactant, and passivating the hydrocarbon-containing surfactant; wherein said passivating is carried out by reacting said hydrocarbon-containing surfactant with an oxidizing agent, wherein the oxidizing agent preferably is hydrogen peroxide or polymerization initiator; and wherein said passivating of the hydrocarbon-containing surfactant is carried out in the presence of a passivation adjuvant. aqueous medium, polymerization initiator, fluoromonomer, and hydrocarbon-containing surfactant,
An aircraft engine thrust reverser cascade assembly comprising: (a) a plurality of circumferentially spaced cascade segments, each cascade segment including a forward end, an aft end, and a plurality of ribs and spaced vanes defining a series of air passages therebetween, and with the vanes including an aft-most vane; and (b) a flow deflection shelf mounted along the aft end of each cascade segment and including a deflector portion that extends forwardly away from the aft end of the cascade segment and is configured to at least partially redirect at least a portion of air passing through each cascade segment forwardly as the air passes outwardly between aft-most vanes and the aft end of each cascade segment, and a body portion extending along the aft end of each cascade segment; and (c) an aft cascade ring attached to the body portion of the flow deflection shelf, the aft cascade ring connecting the aft ends of the cascade segments in series; wherein the aft cascade ring includes an angled deflector portion that extends forwardly at an angle to assist in deflection of the aft-most air flow. (a) a plurality of circumferentially spaced cascade segments, each cascade segment including a forward end, an aft end, and a plurality of ribs and spaced vanes defining a series of air passages therebetween, and with the vanes including an aft-most vane; and (b) a flow deflection shelf mounted along the aft end of each cascade segment and including a deflector portion that extends forwardly away from the aft end of the cascade segment and is configured to at least partially redirect at least a portion of air passing through each cascade segment forwardly as the air passes outwardly between aft-most vanes and the aft end of each cascade segment, and a body portion extending along the aft end of each cascade segment; and (c) an aft cascade ring attached to the body portion of the flow deflection shelf, the aft cascade ring connecting the aft ends of the cascade segments in series; wherein the aft cascade ring includes an angled deflector portion that extends forwardly at an angle to assist in deflection of the aft-most air flow.
Process for producing a sealant, characterized in that the individual components are combined in a mixing vessel in a defined time sequence, wherein initially a 30-90% by weight natural rubber latex dispersion and 0.1-10% by weight of at least one ionic and/or nonionic emulsifier and/or dispersant are combined in a mixing vessel and subsequently 0.0001-10% by weight of a protease is added, wherein 0.01-12% by weight of decomposition products of a deproteination reaction are formed and remain in the mixing vessel, and the contents of the mixing vessel are subsequently added to 5-40% by weight of an aqueous adhesive resin dispersion, 1-50% by weight of an antifreeze and 0-30% by weight of further additives.
3D printer for additively manufacturing a multi-layer component, comprising - at least two separate dispensers which are designed to coat a conveyor belt with respectively different raw material, - a manufacturing unit which is designed such that, in the manufacturing unit, at least a portion of the raw material is joined as a new layer to the component, - at least two separate recovery apparatuses for selectively recovering the respectively different raw material which is not consumed when joining a layer to the component, and for recycling the raw material into the respectively associated dispenser, - the conveyor belt which is designed to transport the raw material in a lateral direction from the dispenser to the manufacturing unit and onward to the recovery apparatus. - at least two separate dispensers which are designed to coat a conveyor belt with respectively different raw material, - a manufacturing unit which is designed such that, in the manufacturing unit, at least a portion of the raw material is joined as a new layer to the component, - at least two separate recovery apparatuses for selectively recovering the respectively different raw material which is not consumed when joining a layer to the component, and for recycling the raw material into the respectively associated dispenser, - the conveyor belt which is designed to transport the raw material in a lateral direction from the dispenser to the manufacturing unit and onward to the recovery apparatus.
A method comprising: transmitting, by a light detection and ranging, LIDAR, device, a plurality of light pulses toward a scene, wherein the LIDAR device comprises i) a plurality of primary emitters in which each primary emitter is configured to emit primary light pulses that illuminate a respective region of the scene, ii) a secondary emitter configured to emit secondary light pulses in which each secondary light pulse illuminates a plurality of regions of the scene, and iii) a plurality of detectors in which each detector is configured to detect light from a respective region of the scene, wherein the plurality of light pulses include a plurality of primary light pulses and a secondary light pulse; detecting a retroreflector in the scene based on at least one detector of the plurality of detectors detecting light corresponding to a reflected portion of the secondary light pulse; and in response to detecting the retroreflector in the scene, controlling at least one primary emitter of the plurality of primary emitters to avoid illuminating the retroreflector. transmitting, by a light detection and ranging, LIDAR, device, a plurality of light pulses toward a scene, wherein the LIDAR device comprises i) a plurality of primary emitters in which each primary emitter is configured to emit primary light pulses that illuminate a respective region of the scene, ii) a secondary emitter configured to emit secondary light pulses in which each secondary light pulse illuminates a plurality of regions of the scene, and iii) a plurality of detectors in which each detector is configured to detect light from a respective region of the scene, wherein the plurality of light pulses include a plurality of primary light pulses and a secondary light pulse; detecting a retroreflector in the scene based on at least one detector of the plurality of detectors detecting light corresponding to a reflected portion of the secondary light pulse; and in response to detecting the retroreflector in the scene, controlling at least one primary emitter of the plurality of primary emitters to avoid illuminating the retroreflector.