mhurhangee/ep-ind-claims huggingface dataset:
A process for producing acetic acid, the process comprising: carbonylating at least one reactant selected from the group consisting of methanol, dimethyl ether, methyl acetate, and mixtures thereof, in the presence of a metal catalyst, methyl iodide, a halide salt, and optionally a finite amount water, to form a crude acetic acid product; conveying the crude acetic acid product to a flash vessel at a flash flow rate; flashing the crude acetic acid product to form a first vapor stream comprising acetic acid and methyl iodide and a first liquid residue stream comprising metal catalyst and halide salt; separating, in a light ends column, the flashed first vapor stream to form a second vapor stream comprising methyl iodide and optionally acetaldehyde, a sidedraw comprising purified acetic acid product and optionally water, and a second liquid residue stream; condensing, in a decanter, at least a portion of the second vapor stream to form at least one liquid phase; refluxing to the light ends column at least a portion of the at least one liquid phase at a reflux rate; wherein the reflux rate is adjusted based on changes in the flash flow rate. carbonylating at least one reactant selected from the group consisting of methanol, dimethyl ether, methyl acetate, and mixtures thereof, in the presence of a metal catalyst, methyl iodide, a halide salt, and optionally a finite amount water, to form a crude acetic acid product; conveying the crude acetic acid product to a flash vessel at a flash flow rate; flashing the crude acetic acid product to form a first vapor stream comprising acetic acid and methyl iodide and a first liquid residue stream comprising metal catalyst and halide salt; separating, in a light ends column, the flashed first vapor stream to form a second vapor stream comprising methyl iodide and optionally acetaldehyde, a sidedraw comprising purified acetic acid product and optionally water, and a second liquid residue stream; condensing, in a decanter, at least a portion of the second vapor stream to form at least one liquid phase; refluxing to the light ends column at least a portion of the at least one liquid phase at a reflux rate; wherein the reflux rate is adjusted based on changes in the flash flow rate.
A metal ion nanocluster having a particle size of 2 to 500 nm, a molecular weight of 3500 to 1000000 Dalton, and a formula of X a Y b Z c M d (H 2 O) e, in which X is a metal cation, Y is a water-soluble salt-forming anion, Z is a water-soluble ligand, M is a turbidity point modifier, a is 0.1 to 20, b is 0 to 9, c is 0.1 to 10, d is 0.1 to 9, and e is 0 to 25, wherein the metal cation is Mg, Al, Ca, Cr, Cu, Zn, Mn, Ti, Fe(II/III), Co, Ni, Bi, V, La, Mo, Sr, Zr, or a combination thereof; the nanocluster has a turbidity point of 8 or lower; and the turbidity point modifier is a complex-forming polyvalence anion or a carboxylated polyol, wherein the water-soluble ligand is xylitol, mannitol, ribose, mannose, xylose, galactose, fructose, lactose, glucose, isomaltose, isomalt, sucrose, maltitol, trehalose, arabinose, sorbitol, polyisomaltose, isomalto-oligosaccharide, dextrin, dextran, fructooligosaccharide, or a combination thereof; and the complex-forming polyvalence anion is citrate, malate, fumarate, tartrate, lactate, oxalate, succinate, ascorbate, phosphate, pyrophosphate, glycerophosphate, or a combination thereof; wherein the metal ion nanocluster is prepared by a process including the following steps: providing an aqueous dispersion containing X, Y, Z, and OH; adjusting the pH of the aqueous dispersion to a predetermined value to obtain a pH-adjusted aqueous dispersion; heating the pH-adjusted aqueous dispersion to 50-180 °C so that a nanocluster precursor is formed; and adding M after the above steps, in which the ratio of X: Y: Z: M is 1: 0-9: 0.1-10: 0.1-9. wherein the metal cation is Mg, Al, Ca, Cr, Cu, Zn, Mn, Ti, Fe(II/III), Co, Ni, Bi, V, La, Mo, Sr, Zr, or a combination thereof; the nanocluster has a turbidity point of 8 or lower; and the turbidity point modifier is a complex-forming polyvalence anion or a carboxylated polyol, wherein the water-soluble ligand is xylitol, mannitol, ribose, mannose, xylose, galactose, fructose, lactose, glucose, isomaltose, isomalt, sucrose, maltitol, trehalose, arabinose, sorbitol, polyisomaltose, isomalto-oligosaccharide, dextrin, dextran, fructooligosaccharide, or a combination thereof; and the complex-forming polyvalence anion is citrate, malate, fumarate, tartrate, lactate, oxalate, succinate, ascorbate, phosphate, pyrophosphate, glycerophosphate, or a combination thereof; wherein the metal ion nanocluster is prepared by a process including the following steps: providing an aqueous dispersion containing X, Y, Z, and OH; adjusting the pH of the aqueous dispersion to a predetermined value to obtain a pH-adjusted aqueous dispersion; heating the pH-adjusted aqueous dispersion to 50-180 °C so that a nanocluster precursor is formed; and adding M after the above steps, providing an aqueous dispersion containing X, Y, Z, and OH; adjusting the pH of the aqueous dispersion to a predetermined value to obtain a pH-adjusted aqueous dispersion; heating the pH-adjusted aqueous dispersion to 50-180 °C so that a nanocluster precursor is formed; and adding M after the above steps, in which the ratio of X: Y: Z: M is 1: 0-9: 0.1-10: 0.1-9.
A system to image a patient user body part, comprising: a server system with a processor system, a communications interface, a communications system, an input system and an output system, the server system having access to a communications network; a memory system with an operating system, a communications module, a web browser module, a web server application and a patient user body part imaging non-transitory storage media; and a website displaying a plurality of web pages residing on the patient user body part imaging non-transitory storage media, wherein the patient user body part imaging non-transitory storage media is configured to acquire a plurality of data sets with an optical imaging device, wherein the system to image apatient is configured to register the acquired data sets, to perform image processing on the acquired data sets to identify as good data clear, well exposed portions of the data sets and eliminates poorly defined, one or more dark data sets or one or more aberrations that degrade imaging quality; and to recombine good data from the image processed data sets into a single image of the patient user's body part. a server system with a processor system, a communications interface, a communications system, an input system and an output system, the server system having access to a communications network; a memory system with an operating system, a communications module, a web browser module, a web server application and a patient user body part imaging non-transitory storage media; and a website displaying a plurality of web pages residing on the patient user body part imaging non-transitory storage media,
A bispecific single chain antibody construct comprising a first binding domain specifically binding to CD33 and a second binding domain specifically binding to CD3 for use in the treatment of myeloid leukemia, the construct comprising an amino acid sequence selected from the group consisting of SEQ ID NOs: 104 and 108, wherein the construct is administered for a maximal period of 14 days followed by a period of at least 14 days without administration of the construct, wherein the construct is administered according to a schedule comprising the following steps: (a) administration of a first dose of the bispecific construct, wherein the bispecific construct is administered at a dose of 10 μg/d, followed by (b) administration of a second dose of the bispecific construct, wherein said second dose exceeds said first dose, wherein the bispecific construct is administered at a dose in the range of 30 μg/d to 500 μg/d, optionally followed by (c) administration of a third dose of the bispecific construct, wherein said optional third dose exceeds said second dose, wherein the period of administration of the bispecific construct of the second and optional third dose is 10 days. (a) administration of a first dose of the bispecific construct, wherein the bispecific construct is administered at a dose of 10 μg/d, followed by (b) administration of a second dose of the bispecific construct, wherein said second dose exceeds said first dose, wherein the bispecific construct is administered at a dose in the range of 30 μg/d to 500 μg/d, optionally followed by (c) administration of a third dose of the bispecific construct, wherein said optional third dose exceeds said second dose,
A road control unit comprising a speed detector and at least one image capturing device (2E, 2R), and further comprising an intermediate plate between the speed detector and each image capturing device, the plate being adapted to form a removable connection assembly with the speed detector, and to determine without adjustment margin an angular orientation of the plate relative to a radio axis of the speed detector when the plate is assembled with the speed detector, the plate being further adapted to support each image capturing device (2E, 2R) with an angular orientation of said image capturing device which is contained within at least one adjustment margin extending on either side of a nominal orientation (αE, αR, βE, βR), the adjustment margin and the nominal orientation being determined by the plate for each image capturing device (2E, 2R), and the plate including for each image capturing device (2E, 2R), a locking system adapted to block the angular orientation of said image capturing device, such that when the plate is assembled to the speed detector and the locking system is activated, an optical axis (PE, PR) of the image capturing device is maintained with a constant relative orientation with respect to the radio axis of the speed detector, the road control unit being adapted so that the orientation of each image capturing device (2E, 2R) can be manually adjusted within said at least one corresponding adjustment margin as determined by the plate, characterised in that the plate is dedicated to an interval of values for an edge distance (d) defined as an installation distance, measured horizontally, between a centre of the road control unit and an edge line of a road on a side of which the road control unit is intended to be installed, and an indication of said interval of values for the edge distance is registered on the plate, and in that the road control unit further comprises at least one additional plate (12B, 12C), all the plates (12A, 12B, 12C) being interchangeable and adapted to be substituted for each other between the speed detector and each image capturing device (2E, 2R), and the plates being respectively dedicated to disjoint intervals for the edge distance value (d), an indication of each interval of values being registered on the corresponding plate.
A method performed at a wireless device for supporting multiple access networks, the method comprising: - establishing over a first access network a first packet data connection to a packet data network identified by a first packet data network identifier; - performing a registration with an application entity of the packet data network; and - sending over a second access network a request for a second packet data connection to the packet data network identified by a second packet data network identifier, wherein the request comprises i) an identifier of the application entity of the packet data network with which the wireless device has previously registered and ii) an indication for linking the second packet data connection to the first packet data connection. - establishing over a first access network a first packet data connection to a packet data network identified by a first packet data network identifier; - performing a registration with an application entity of the packet data network; and - sending over a second access network a request for a second packet data connection to the packet data network identified by a second packet data network identifier, wherein the request comprises i) an identifier of the application entity of the packet data network with which the wireless device has previously registered and ii) an indication for linking the second packet data connection to the first packet data connection.
A method, comprising: receiving, from a macrocell node (304a - 304g), a first plurality of subcarrier signals; receiving, from the macrocell node (304a - 304g), a second plurality of subcarrier signals wherein the second plurality of subcarriers are comprised within a bandwidth shared with a femtocell node; and weighting a first plurality of modulation symbols carried by the first plurality of subcarrier signals differently relative to a second plurality of modulation symbols carried by the second plurality of subcarrier signals. receiving, from a macrocell node (304a - 304g), a first plurality of subcarrier signals; receiving, from the macrocell node (304a - 304g), a second plurality of subcarrier signals wherein the second plurality of subcarriers are comprised within a bandwidth shared with a femtocell node; and weighting a first plurality of modulation symbols carried by the first plurality of subcarrier signals differently relative to a second plurality of modulation symbols carried by the second plurality of subcarrier signals.
An arrangement for a pressure measurement of a breathing gas flowing along a flow channel, the arrangement comprising: first and second branch lines configured to be in pneumatic communication with said flow channel, each of said first and second branch lines having a predetermined gas volume and each of said first and second branch lines comprising a measuring channel for transmitting gaseous pressure signals from said flow channel, wherein said first branch line comprises at least one sensor in pneumatic communication with said measuring channel of the first branch line for providing a signal indicative of a pressure in said flow channel, wherein the at least one sensor comprises a pressure gauge operable to obtain a signal indicative of an airway pressure in said flow channel, said arrangement further comprising a differential pressure sensor being in pneumatic communication with said measuring channels of said first and second branch lines to obtain a signal indicative of a breathing gas flow rate in said flow channel, characterized in that said second branch line comprises a balancing volume in pneumatic communication with the second branch line for equalizing said predetermined gas volumes of said first and second branch lines. first and second branch lines configured to be in pneumatic communication with said flow channel, each of said first and second branch lines having a predetermined gas volume and each of said first and second branch lines comprising a measuring channel for transmitting gaseous pressure signals from said flow channel, wherein said first branch line comprises at least one sensor in pneumatic communication with said measuring channel of the first branch line for providing a signal indicative of a pressure in said flow channel, wherein the at least one sensor comprises a pressure gauge operable to obtain a signal indicative of an airway pressure in said flow channel, said arrangement further comprising a differential pressure sensor being in pneumatic communication with said measuring channels of said first and second branch lines to obtain a signal indicative of a breathing gas flow rate in said flow channel, characterized in that said second branch line comprises a balancing volume in pneumatic communication with the second branch line for equalizing said predetermined gas volumes of said first and second branch lines.
A plug connector for printed circuit boards, comprising a number of contact elements, where the contact elements each have two connection ends, where one connection end is in the form of an insulation displacement contact for connecting wires and the other connection end is in the form of a tuning fork contact for making contact with pads on a printed circuit board, and a plastic housing into which the insulation displacement contacts of the contact elements can be inserted, where at least one lower edge of the insulation displacement contact is supported on the plastic housing, so that the contact elements are held captively in the plastic housing when connection forces act on the insulation displacement contacts, the plastic housing comprising at least one chamber-like region, and the tuning fork contacts being fully accommodated in the longitudinal direction by the plastic housing, wherein the contact element is of two-part design, with a first portion of the contact element comprising the insulation displacement contact and a second portion comprising the tuning fork contact, a respective contact limb (34, 35) being arranged on the two portions (30a, 30b) of the contact element, with the two contact limbs (34, 35) forming an isolating contact, wherein the plastic housing is of two-part design, with the housing portions (10, 20) being able to be latched to one another, wherein the first housing portion receives the insulation displacement contact and the second housing portion receives the tuning fork contact, wherein the insulation displacement contact is supported by its lower edge on a slotted clamping bar of the second housing portion, wherein the clamping bar is situated between the lower regions of the insulation displacement contact and the fork contact, the tuning fork contact being arranged in the slot of the clamping bar and rests on the second housing portion and is clamped from above by the first housing portion.
A data transmission method, comprising: obtaining at least two pieces of service data, and determining frequency sub-bands of the at least two pieces of service data, wherein the frequency sub-bands of the at least two pieces of service data are different frequency sub-bands of a frequency band of a same optical carrier; mapping each piece of service data to the frequency sub-band of each piece of service data, to generate at least two to-be-sent service signals, wherein the at least two to-be-sent service signals are service signals pre-compensated based on dispersion and/or non-linear characteristics of the at least two to-be-sent service signals; and sending the at least two to-be-sent service signals through the same optical carrier characterized in that the determining frequency sub-bands of the at least two pieces of service data comprises: determining the frequency sub-bands of the at least two pieces of service data based on transmission distances of the at least two pieces of service data, wherein for each piece of service data, if the transmission distance of the service data is larger, a location of the frequency sub-band of the service data is closer to a central location of the frequency band of the optical carrier. obtaining at least two pieces of service data, and determining frequency sub-bands of the at least two pieces of service data, wherein the frequency sub-bands of the at least two pieces of service data are different frequency sub-bands of a frequency band of a same optical carrier; mapping each piece of service data to the frequency sub-band of each piece of service data, to generate at least two to-be-sent service signals, wherein the at least two to-be-sent service signals are service signals pre-compensated based on dispersion and/or non-linear characteristics of the at least two to-be-sent service signals; and sending the at least two to-be-sent service signals through the same optical carrier characterized in that the determining frequency sub-bands of the at least two pieces of service data comprises: determining the frequency sub-bands of the at least two pieces of service data based on transmission distances of the at least two pieces of service data, wherein for each piece of service data, if the transmission distance of the service data is larger, a location of the frequency sub-band of the service data is closer to a central location of the frequency band of the optical carrier. determining the frequency sub-bands of the at least two pieces of service data based on transmission distances of the at least two pieces of service data, wherein for each piece of service data, if the transmission distance of the service data is larger, a location of the frequency sub-band of the service data is closer to a central location of the frequency band of the optical carrier.
A method for producing water-absorbent resin particles, comprising a step of polymerizing a monomer composition comprising a water-soluble vinyl monomer and/or a vinyl monomer that turns into a water-soluble vinyl monomer through hydrolysis and a crosslinking agent (b) in the presence of at least one organic main group element compound selected from the group consisting of organic iodine compounds, organic tellurium compounds, organic antimony compounds, and organic bismuth compounds, wherein the organic main group element compound is represented by the following formula: in the formula, R 1 and R 2 each independently represent a hydrogen atom, a saturated hydrocarbon group having 1 to 7 carbon atoms, or a monovalent group having 1 to 7 carbon atoms and having at least one non-addition-polymerizable double bond or at least one non-addition-polymerizable triple bond with the proviso that R 1 and R 2 do not represent a hydrogen atom at the same time and R 3 represents an n-valent saturated hydrocarbon group having 1 to 7 carbon atoms or an n-valent group having 2 to 12 carbon atoms and having at least one non-addition-polymerizable double bond or at least one non-addition-polymerizable triple bond, provided that at least one of R 1 to R 3 in one molecule is a corresponding group having a non-addition-polymerizable double bond or at least one non-addition-polymerizable triple bond; n is an integer of 1 to 3; when n is 1, R 1 and R 2 may be bonded to each other; X 1 is a monovalent organic main group element group having a tellurium element, an antimony element or a bismuth element or an iodo group; and wherein in the polymerization of the monomer composition, a radical initiator is used in combination with the organic main group element compound.
An antenna comprising: a planar dielectric substrate; a first conductive annulus on a first surface of the substrate; a first conductive land on the first surface, wherein the first conductive land lies in a region of the surface bounded by the first conductive annulus and an edge of the first conductive land is adjacent to, and parallel to, a portion of an inward edge of the first conductive annulus, wherein the first conductive land comprises a first arc on the first surface and wherein the first conductive land further comprises a first stem connected to the first arc and the first stem is separate from the first conductive annulus; a second conductive land provided on the first surface wherein an edge of the second conductive land is adjacent to, and parallel to, a portion of an outward edge of the first conductive annulus; a second stem _ connected to the outward edge of the first conductive annulus. a planar dielectric substrate; a first conductive annulus on a first surface of the substrate; a first conductive land on the first surface, wherein the first conductive land lies in a region of the surface bounded by the first conductive annulus and an edge of the first conductive land is adjacent to, and parallel to, a portion of an inward edge of the first conductive annulus, wherein the first conductive land comprises a first arc on the first surface and wherein the first conductive land further comprises a first stem connected to the first arc and the first stem is separate from the first conductive annulus; a second conductive land provided on the first surface wherein an edge of the second conductive land is adjacent to, and parallel to, a portion of an outward edge of the first conductive annulus; a second stem _ connected to the outward edge of the first conductive annulus.