mhurhangee/ep-ind-claims huggingface dataset:
A process for synthesizing compound D: comprising: (a) admixing compound B, or a salt thereof, and compound C in an organic solvent to form a slurry, wherein the organic solvent is selected from the group consisting of a nonpolar aromatic solvent, an ether solvent, a chlorinated solvent, an alcohol solvent, acetonitrile, dimethylformamide, dimethylcarbonate, dimethylacetamide (DMAc), N-methylpyrrolidinone, and a combination thereof: and (b) admixing the slurry of step (a) and a reducing agent to form a mixture comprising compound D; wherein: OPG is an alcohol protecting group selected from the group consisting of an ether, an acetal or ketal, an acyl, a sulfonyl, and a silyl ether; R 1 is H or C 1-6 alkyl; and R 2 is a protected aldehyde. (a) admixing compound B, or a salt thereof, and compound C in an organic solvent to form a slurry, wherein the organic solvent is selected from the group consisting of a nonpolar aromatic solvent, an ether solvent, a chlorinated solvent, an alcohol solvent, acetonitrile, dimethylformamide, dimethylcarbonate, dimethylacetamide (DMAc), N-methylpyrrolidinone, and a combination thereof: and (b) admixing the slurry of step (a) and a reducing agent to form a mixture comprising compound D; wherein: OPG is an alcohol protecting group selected from the group consisting of an ether, an acetal or ketal, an acyl, a sulfonyl, and a silyl ether; R 1 is H or C 1-6 alkyl; and R 2 is a protected aldehyde. OPG is an alcohol protecting group selected from the group consisting of an ether, an acetal or ketal, an acyl, a sulfonyl, and a silyl ether; R 1 is H or C 1-6 alkyl; and R 2 is a protected aldehyde.
A process for the elongation and/or densification of fibers, on a keratin material, in particular on the skin and/or on the keratin fibers, more particularly on the keratin fibers, preferably on the eyelashes or the eyebrows, and more preferentially on the eyelashes, characterized in that it employs a composition, especially a cosmetic composition, in particular a makeup composition, comprising at least: - one volatile hydrocarbon-based oil, - particles of at least one polymer that is surface-stabilized with a stabilizer, the polymer of the particles being a C 1 -C 4 alkyl (meth)acrylate polymer; the stabilizer being an isobornyl (meth)acrylate polymer chosen from isobornyl (meth)acrylate homopolymer and statistical copolymers of isobornyl (meth)acrylate and of C 1 -C 4 alkyl (meth)acrylate present in an isobornyl (meth)acrylate/C 1 -C 4 alkyl (meth)acrylate weight ratio of greater than 4; and - a hydrophobic film-forming polymer, chosen from hydrocarbon-based block copolymers, hydrocarbon-based resins, and mixtures thereof, wherein the hydrocarbon-based block copolymers are chosen from hydrogenated diblock copolymers, and wherein the hydrocarbon-based resins are chosen from indene hydrocarbon-based resins, aliphatic pentadiene resins, mixed resins of pentanediene and of indene, diene resins of cyclopentanediene dimers, diene resins of isoprene dimers and mixtures thereof. - one volatile hydrocarbon-based oil, - particles of at least one polymer that is surface-stabilized with a stabilizer, the polymer of the particles being a C 1 -C 4 alkyl (meth)acrylate polymer; the stabilizer being an isobornyl (meth)acrylate polymer chosen from isobornyl (meth)acrylate homopolymer and statistical copolymers of isobornyl (meth)acrylate and of C 1 -C 4 alkyl (meth)acrylate present in an isobornyl (meth)acrylate/C 1 -C 4 alkyl (meth)acrylate weight ratio of greater than 4; and - a hydrophobic film-forming polymer, chosen from hydrocarbon-based block copolymers, hydrocarbon-based resins, and mixtures thereof, wherein the hydrocarbon-based block copolymers are chosen from hydrogenated diblock copolymers, and wherein the hydrocarbon-based resins are chosen from indene hydrocarbon-based resins, aliphatic pentadiene resins, mixed resins of pentanediene and of indene, diene resins of cyclopentanediene dimers, diene resins of isoprene dimers and mixtures thereof. wherein the hydrocarbon-based block copolymers are chosen from hydrogenated diblock copolymers, and wherein the hydrocarbon-based resins are chosen from indene hydrocarbon-based resins, aliphatic pentadiene resins, mixed resins of pentanediene and of indene, diene resins of cyclopentanediene dimers, diene resins of isoprene dimers and mixtures thereof.
A quick disconnect coupling, comprising: a tube including a retention shoulder, wherein the retention shoulder is offset from an end of the tube, and the tube includes an outer surface extending between the end of the tube and the retention shoulder; a swivel rotatably disposed on the tube and retained on the tube by the retention shoulder, the swivel including at least one tab projecting outwardly of the retention shoulder; an adapter defining a bore for receiving the tube, the adapter including an internal flange dimensioned to allow passage of the retention shoulder and selective passage of the at least one tab depending on a rotational orientation of the swivel, wherein in a first rotational orientation of the swivel relative to the adapter the internal flange allows passage of the at least one tab, and wherein upon passage of the at least one tab the swivel is rotatable relative to the adapter to a second rotational orientation in which the swivel and the adapter are engaged together, wherein the retention shoulder of the tube is disposed inside of the adapter; characterised in that the quick disconnect coupling further comprises: a structure defining a port, wherein the adapter is threaded into the structure; and wherein: the end of the tube and at least part of the outer surface of the tube are disposed inside the structure beyond the adapter. a tube including a retention shoulder, wherein the retention shoulder is offset from an end of the tube, and the tube includes an outer surface extending between the end of the tube and the retention shoulder; a swivel rotatably disposed on the tube and retained on the tube by the retention shoulder, the swivel including at least one tab projecting outwardly of the retention shoulder; an adapter defining a bore for receiving the tube, the adapter including an internal flange dimensioned to allow passage of the retention shoulder and selective passage of the at least one tab depending on a rotational orientation of the swivel, wherein in a first rotational orientation of the swivel relative to the adapter the internal flange allows passage of the at least one tab, and wherein upon passage of the at least one tab the swivel is rotatable relative to the adapter to a second rotational orientation in which the swivel and the adapter are engaged together, wherein the retention shoulder of the tube is disposed inside of the adapter; characterised in that the quick disconnect coupling further comprises: a structure defining a port, wherein the adapter is threaded into the structure; and wherein: the end of the tube and at least part of the outer surface of the tube are disposed inside the structure beyond the adapter.
A tire comprising a tread portion provided with main grooves including a pair of axially innermost crown main grooves extending continuously in the tire circumferential direction, a plurality of outward transverse grooves extending axially outwardly from the crown main grooves, and a plurality of inward transverse grooves extending axially inwardly from the crown main grooves, the crown main groove is a zigzag groove comprising a plurality of axially outer segments extending along the tire circumferential direction, a plurality of axially inner segments extending along the tire circumferential direction on the axially inner side of the axially outer segments, and a plurality of oblique segments inclined with respect to the tire circumferential direction and linking the axially outer segments and the axially inner segments, each of the inward transverse grooves is connected to one of axially inner intersections of the axially inner segments and the oblique segments, and each of the outward transverse grooves is connected to one of axially outer intersections of the axially outer segments and the oblique segments, wherein, the outward transverse groove comprises an axially inner portion connected to the crown main groove, an axially outer portion located axially outside the axially inner portion, the groove width of the axially inner portion is more than the groove width of the axially outer portion, characterized in that the angle (θ4) of the inward transverse groove with respect to the tire axial direction is less than the angle (θ3) of the outward transverse groove with respect to the tire axial direction.
A transportation system comprising: construction equipment that includes a chassis (30, 40), a prime mover supported by the chassis, and a driven element, the construction equipment having an operational weight that is borne by the driven element during ordinary operation of the construction equipment, the driven element adapted to be actuated under the influence of the prime mover during operation of the construction equipment to perform work; a frame; and a plurality of supports mounted to the frame, the supports receiving a portion of the construction equipment chassis (30, 40) and support at least a portion of the operational weight; wherein the transportation system is adapted to be loaded on a transporter for transportation of the construction equipment. construction equipment that includes a chassis (30, 40), a prime mover supported by the chassis, and a driven element, the construction equipment having an operational weight that is borne by the driven element during ordinary operation of the construction equipment, the driven element adapted to be actuated under the influence of the prime mover during operation of the construction equipment to perform work; a frame; and a plurality of supports mounted to the frame, the supports receiving a portion of the construction equipment chassis (30, 40) and support at least a portion of the operational weight; wherein the transportation system is adapted to be loaded on a transporter for transportation of the construction equipment.
Thermoforming apparatus comprising: - a die for thermoforming plate or sheet material heated to a temperature suitable for thermoforming; - at least one frame arranged above said die and movable at least in a vertical direction; - support means arranged to support said frame; - at least one further frame that is movable at least in a vertical direction in both directions with respect to said at least one frame; the apparatus being characterized in that it further comprises - at least one fluid outlet port arranged on said further frame and configured to emit a cooling fluid; - generating means configured to generate a flow of the cooling fluid emitted by said at least one port. - a die for thermoforming plate or sheet material heated to a temperature suitable for thermoforming; - at least one frame arranged above said die and movable at least in a vertical direction; - support means arranged to support said frame; - at least one further frame that is movable at least in a vertical direction in both directions with respect to said at least one frame; the apparatus being characterized in that it further comprises - at least one fluid outlet port arranged on said further frame and configured to emit a cooling fluid; - generating means configured to generate a flow of the cooling fluid emitted by said at least one port.
A method for use in a remote central processor (102, 103, 302, 602, 802, 902, 1300) of a wireless communication system (100, 200, 300, 400, 600, 800) comprising a user equipment and a remote sampler, the user equipment being configured to communicate with the remote central processor via the remote sampler using compressive sampling, the method comprising: transmitting, to the user equipment, over a wireless channel, an instruction indicating a first set of representation parameters, comprising sparsity parameters for generating a S-sparse combination of a set of vectors, which sparsity parameters are used to configure the user equipment to transmit signals having a predetermined sparseness and a predetermined sparse representation matrix (Ψ) comprising said set of vectors; and transmitting, to the remote sampler, an instruction indicating a set of sensing parameters. transmitting, to the user equipment, over a wireless channel, an instruction indicating a first set of representation parameters, comprising sparsity parameters for generating a S-sparse combination of a set of vectors, which sparsity parameters are used to configure the user equipment to transmit signals having a predetermined sparseness and a predetermined sparse representation matrix (Ψ) comprising said set of vectors; and transmitting, to the remote sampler, an instruction indicating a set of sensing parameters.
Method for producing at least drinking water enriched with CO 2 and drinking water not enriched with CO 2, in which the non-enriched drinking water and/or the enriched drinking water can be taken as and when required by means of one or more suitable discharge valves (14, 16, 18), characterized by the following steps: a) non-enriched drinking water is passed, in particular pumped, by means of a pipeline system from a water source along a CO 2 -enrichment device, in which the non-enriched drinking water is enriched with CO 2, up to a discharge valve for the enriched drinking water, by way of which the enriched drinking water can be taken, b) arranged upstream of the CO 2 -enrichment device in the pipeline system is a discharge valve (14, 16), by way of which the non-enriched drinking water can be taken. a) non-enriched drinking water is passed, in particular pumped, by means of a pipeline system from a water source along a CO 2 -enrichment device, in which the non-enriched drinking water is enriched with CO 2, up to a discharge valve for the enriched drinking water, by way of which the enriched drinking water can be taken, b) arranged upstream of the CO 2 -enrichment device in the pipeline system is a discharge valve (14, 16), by way of which the non-enriched drinking water can be taken.
A device, comprising: - a sensor portion, wherein the sensor portion comprises a plurality of sensing devices; - a chassis portion connected to the sensor portion, wherein the chassis portion comprises a first track and a second track, said first track and said second track having, each, a predetermined width, whereby said first track is positioned adjacent to said second track and parallel thereto characterised in that the collective width of said first track and of said second track substantially covers the entire width of said chassis portion such that the first and second tracks collectively form substantially the entire front, bottom and rear structure of the chassis portion. - a sensor portion, wherein the sensor portion comprises a plurality of sensing devices; - a chassis portion connected to the sensor portion, wherein the chassis portion comprises a first track and a second track, said first track and said second track having, each, a predetermined width, whereby said first track is positioned adjacent to said second track and parallel thereto
An arrangement for shimming a background magnetic field of a cylindrical superconducting magnet for a magnetic resonance imaging apparatus, said arrangement comprising a cylindrical outer vacuum chamber bore tube, wherein rails (8, 9) are provided on a radially inner surface of the OVC bore tube and shim trays containing shim elements are mounted between respective rails, wherein multiple arrangements of shim trays retained by rails (8, 9) are located adjacent one another around the radially inner surface of the cylindrical OVC bore tube,- the rails (8, 9) having grooves, to accommodate respective edges of respective shim trays; - an interference fit being provided between each shim tray and at least one of the respective grooves; characterized in that - at least some of the rails (8, 9) comprise a passageway, said passageways being connected by conduits (14, 20) into a coolant circuit for circulation of a coolant fluid therethrough, - the rails (8, 9) and the shim tray are at least partially constructed of a thermally conductive material, and are in thermal contact with one another and the OVC bore tube, whereby the coolant fluid acts to stabilize the temperature of the OVC bore tube, the shim tray and the shim elements, - the shim tray comprises a bottom part and a lid which is secured to the bottom part, wherein the bottom part contains shim pockets for accommodating shim elements, and wherein the bottom part and the lid are in thermal contact with each other, and are both in thermal contact with the rails, wherein the shim trays and rails extend around the OVC bore tube, forming a thermal shield for the OVC bore tube. - an interference fit being provided between each shim tray and at least one of the respective grooves; characterized in that - at least some of the rails (8, 9) comprise a passageway, said passageways being connected by conduits (14, 20) into a coolant circuit for circulation of a coolant fluid therethrough, - the rails (8, 9) and the shim tray are at least partially constructed of a thermally conductive material, and are in thermal contact with one another and the OVC bore tube, whereby the coolant fluid acts to stabilize the temperature of the OVC bore tube, the shim tray and the shim elements, - the shim tray comprises a bottom part and a lid which is secured to the bottom part, wherein the bottom part contains shim pockets for accommodating shim elements, and wherein the bottom part and the lid are in thermal contact with each other, and are both in thermal contact with the rails,
An apparatus, comprising: a memory; and a processor operatively coupled to the memory, the processor configured to be operatively coupled to a forward error correction, FEC, decoder of an optical transponder, the processor configured to receive, from the FEC decoder, a first plurality of pre-FEC bit error rate, BER, values at a plurality of times to identify a degradation over a first transmission path that includes the optical transponder, the processor configured to determine, based on the first plurality of pre-FEC BER values at the plurality of times, a signal pattern, the processor configured to adaptively adjust, based on the signal pattern, a set of parameters including a first threshold and a second threshold, the processor configured to send, in response to a second pre-FEC BER value exceeding the second threshold and being below the first threshold, a signal to trigger traffic rerouting to a second transmission path to reduce traffic loss due to the degradation over the first transmission path. a memory; and a processor operatively coupled to the memory, the processor configured to be operatively coupled to a forward error correction, FEC, decoder of an optical transponder, the processor configured to receive, from the FEC decoder, a first plurality of pre-FEC bit error rate, BER, values at a plurality of times to identify a degradation over a first transmission path that includes the optical transponder, the processor configured to determine, based on the first plurality of pre-FEC BER values at the plurality of times, a signal pattern, the processor configured to adaptively adjust, based on the signal pattern, a set of parameters including a first threshold and a second threshold, the processor configured to send, in response to a second pre-FEC BER value exceeding the second threshold and being below the first threshold, a signal to trigger traffic rerouting to a second transmission path to reduce traffic loss due to the degradation over the first transmission path. the processor configured to be operatively coupled to a forward error correction, FEC, decoder of an optical transponder, the processor configured to receive, from the FEC decoder, a first plurality of pre-FEC bit error rate, BER, values at a plurality of times to identify a degradation over a first transmission path that includes the optical transponder, the processor configured to determine, based on the first plurality of pre-FEC BER values at the plurality of times, a signal pattern, the processor configured to adaptively adjust, based on the signal pattern, a set of parameters including a first threshold and a second threshold, the processor configured to send, in response to a second pre-FEC BER value exceeding the second threshold and being below the first threshold, a signal to trigger traffic rerouting to a second transmission path to reduce traffic loss due to the degradation over the first transmission path.
A composition for use in treating a disorder characterized by a high serum phosphate level, the composition comprising an amount of pharmaceutical grade ferric citrate effective to reduce serum phosphate levels wherein the amount administered of pharmaceutical grade ferric citrate is from 2 grams per day to 30 grams per day and wherein the ferric citrate is obtainable by a method comprising the steps of: (a) dissolving an appropriate amount of ferric chloride hexahydrate in water to form a ferric chloride hexahydrate solution; (b) dissolving an appropriate amount of NaOH in water to form a NaOH solution; (c) mixing the ferric chloride hexahydrate solution and NaOH solution to form a solution with Fe 3 precipitate; (d) maintaining the pH of the solution with Fe 3 precipitate above 7.0; (e) isolating the Fe 3 precipitate; (f) washing the Fe 3 precipitate three times with water; (g) suspending the Fe 3 precipitate in water; (h) adding citric acid to the Fe 3 precipitate to form a ferric-organic acid solution; (i) stirring and heating the ferric-organic acid solution at 90-100°C for 30 to 120 minutes; (j) removing solids in the ferric-organic acid solution by adding citric acid; (k) allowing the ferric-organic acid solution to cool to below 30°C; (l) maintaining the pH of the ferric-organic acid solution to between 0.8-1.5; (m) filtering the ferric-organic acid solution to obtain a liquid filtrate; (n) mixing acetone and liquid filtrate to form ferric citrate, (o) isolating ferric citrate, (p) washing ferric citrate with acetone three times; and (q) drying the ferric citrate. (a) dissolving an appropriate amount of ferric chloride hexahydrate in water to form a ferric chloride hexahydrate solution; (b) dissolving an appropriate amount of NaOH in water to form a NaOH solution; (c) mixing the ferric chloride hexahydrate solution and NaOH solution to form a solution with Fe 3 precipitate; (d) maintaining the pH of the solution with Fe 3 precipitate above 7.0; (e) isolating the Fe 3 precipitate; (f) washing the Fe 3 precipitate three times with water; (g) suspending the Fe 3 precipitate in water; (h) adding citric acid to the Fe 3 precipitate to form a ferric-organic acid solution; (i) stirring and heating the ferric-organic acid solution at 90-100°C for 30 to 120 minutes; (j) removing solids in the ferric-organic acid solution by adding citric acid; (k) allowing the ferric-organic acid solution to cool to below 30°C; (l) maintaining the pH of the ferric-organic acid solution to between 0.8-1.5; (m) filtering the ferric-organic acid solution to obtain a liquid filtrate; (n) mixing acetone and liquid filtrate to form ferric citrate, (o) isolating ferric citrate, (p) washing ferric citrate with acetone three times; and (q) drying the ferric citrate.