mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for continuously producing 1,1,1,2,3-pentafluoropropane, comprising: a reactor configured to bring a CoF 3 -containing cobalt fluoride into countercurrent contact with 3,3,3-trifluoropropene to produce a CoF 2 -containing cobalt fluoride and 1,1,1,2,3-pentafluoropropane; a first screw conveyor configured to draw the CoF 2 -containing cobalt fluoride from the reactor; a regenerator configured to receive the CoF 2 -containing cobalt fluoride from the first screw conveyor and bring the received CoF 2 -containing cobalt fluoride into countercurrent contact with fluorine gas to regenerate a CoF 3 -containing cobalt fluoride; and a second screw conveyor configured to draw the CoF 3 -containing cobalt fluoride from the regenerator and transfer the CoF 3 -containing cobalt fluoride to the reactor, wherein the first screw conveyor is coupled to a discharge port disposed at a lower portion of the reactor and a supply port disposed at an upper portion of the regenerator so that an upward slope is formed from the reactor to the regenerator, and wherein the second screw conveyor is coupled to a discharge port disposed at a lower portion of the regenerator and a supply port disposed at an upper portion of the reactor so that an upward slope is formed from the regenerator to the reactor. a reactor configured to bring a CoF 3 -containing cobalt fluoride into countercurrent contact with 3,3,3-trifluoropropene to produce a CoF 2 -containing cobalt fluoride and 1,1,1,2,3-pentafluoropropane; a first screw conveyor configured to draw the CoF 2 -containing cobalt fluoride from the reactor; a regenerator configured to receive the CoF 2 -containing cobalt fluoride from the first screw conveyor and bring the received CoF 2 -containing cobalt fluoride into countercurrent contact with fluorine gas to regenerate a CoF 3 -containing cobalt fluoride; and a second screw conveyor configured to draw the CoF 3 -containing cobalt fluoride from the regenerator and transfer the CoF 3 -containing cobalt fluoride to the reactor, wherein the first screw conveyor is coupled to a discharge port disposed at a lower portion of the reactor and a supply port disposed at an upper portion of the regenerator so that an upward slope is formed from the reactor to the regenerator, and wherein the second screw conveyor is coupled to a discharge port disposed at a lower portion of the regenerator and a supply port disposed at an upper portion of the reactor so that an upward slope is formed from the regenerator to the reactor.
A recombinant bi-functional fusion protein, comprising the first extracellular Ig-like domain of signal-regulator protein alpha (SIRPαD1), linked to an Fc fragment of an immunoglobulin, wherein the SIRPαD1 contains the mutation N89A at position 89 according to SEQ ID NO: 6, wherein the recombinant bi-functional fusion protein comprises an amino acid sequence having at least 80%, at least 85%, at least 90%, at least 95%, at least 98% or at least 99% identity to SEQ ID NO.: 6, and wherein the recombinant bi-functional fusion protein can bind to CD47 and Fc Receptors, block the binding of CD47 to SIRP on surfaces of macrophages and stimulate phagocytosis of tumor cells by the macrophages.
Movement device for a movable furniture component, in particular furniture flap, door or drawer or the like, with a drive and an output for the movable furniture component which can be driven by the drive, which output has at least one output part which can be or is connected to the movable furniture component, wherein a coupling device intercalated between the drive and the output is provided, which has at least two coupling parts (16, 17) and coupling means associated with both coupling parts (16, 17), which coupling means can be moved between a coupling position coupling the two coupling parts (16, 17) to one another and a release position making possible a relative movement of the two coupling parts (16, 17), wherein detecting means are provided which cause the coupling device to assume a neutral position decoupling the output from the drive in at least one end position of the output, wherein the detecting means are associated with a decoupler which can be actuated by the detecting means such that when the end position of the output is reached, a decoupling of the output from the drive can be induced, and wherein the decoupler is formed by an auxiliary drive, wherein the coupling means can be or are motion-coupled to the auxiliary drive, characterised in that the coupling means comprise an engage/disengage gearing mechanism, with a control member which can be driven by the auxiliary drive and an engage/disengage element which is or can be motion-coupled on the one hand to the drive and on the other hand to one of the two coupling parts (16, 17), which engage/disengage element can be moved by the drive between an engage position coupling the two coupling parts (16, 17) to one another and a disengage position uncoupling the two coupling parts (16, 17) from one another.
An apparatus for preparing enzyme-immobilized beads, comprising: a) a first tank into which a mixed liquid containing an enzyme-containing material and an excipient is injected; b) a nozzle unit disposed at a lower end of the first tank and comprising a nozzle, the nozzle having an inner diameter of 0.1 mm to 1 mm and a cylindrical lower end and including a liquid outlet cut perpendicularly to a vertical axis of the nozzle at the lower end thereof; and c) a second tank disposed below the nozzle unit and containing a calcium chloride solution, said second tank being provided with means for injecting air into the calcium chloride solution. a) a first tank into which a mixed liquid containing an enzyme-containing material and an excipient is injected; b) a nozzle unit disposed at a lower end of the first tank and comprising a nozzle, the nozzle having an inner diameter of 0.1 mm to 1 mm and a cylindrical lower end and including a liquid outlet cut perpendicularly to a vertical axis of the nozzle at the lower end thereof; and c) a second tank disposed below the nozzle unit and containing a calcium chloride solution, said second tank being provided with means for injecting air into the calcium chloride solution.
Optical fiber comprising an optical core and an optical cladding (13; 30, 50) surrounding the optical core, the optical core having an α graded-index profile with α ≥ 1, α being a non-dimensional parameter that defines the index profile shape of the optical core, and the optical core having a maximal refractive index n co at its center, said optical cladding having at its outer edge a refractive index n Cl, said optical cladding comprising a region of depressed refractive index n trench, called a trench, with a negative refractive index difference Δ n t = n trench - n Cl with respect to said optical cladding, said trench having an outer radius R trench, wherein said optical core and said optical cladding are configured to support propagation of at least six spatial modes and at maximum fifty-five spatial modes at an operating wavelength λ op between, and including, 1460 nm and 1675 nm, characterized in that said optical core satisfies an ovality criterion between 0.05 and 0.30, when said ovality criterion is measured at a circumference of equal index n eq within said core, such that Δ n eq = n eq - n Cl is less than 75% of Δn co = n co - n Cl, said ovality criterion o being defined by the following equation: o = a − b a + b where a is a length of a semi-major axis of said circumference and b is a length of a semi-minor axis of said circumference, and in that a maximum Max | Δn eff o | of effective index differences between any two subsequent spatial modes propagating in said optical core, except LP 01, LP 11a and LP 11b spatial modes, is such that Max | Δn eff o | ≤ 1.0×10 -3. where a is a length of a semi-major axis of said circumference and b is a length of a semi-minor axis of said circumference, and in that a maximum Max | Δn eff o | of effective index differences between any two subsequent spatial modes propagating in said optical core, except LP 01, LP 11a and LP 11b spatial modes, is such that Max | Δn eff o | ≤ 1.0×10 -3.
(Meth)acrylic oligomers prepared from C 1 -C 20 alkyl and C 5 -C 20 cycloalkyl (meth)acrylates, wherein said oligomers have a M n of from about 300 to about 3000 g/mole; a M z of from about 900 to 10,000 g/mole; wherein the Yellowness Index, according to ASTM E313 is less than 2, and wherein M n and M z are determined according to the method mentioned in the specification.
A process for producing water enriched with natural orthosilicic acid, said process comprising at least the following successive steps: a. a step of reverse osmosis of a raw water containing an amount of orthosilicic acid less than 45 mg/l of SiO 2 in order to obtain a retentate; b. a step of electrodialysis of the retentate obtained in step a) with an electrodialysis stack comprising alternating pairs of cation selective membranes and anion selective membranes, said cation selective membranes and anion selective membranes being selected in the group of monovalent selective membranes and standard grade membranes such that the stack contains at least one cation standard grade membrane, one cation monovalent selective membrane, one anion standard grade membrane and one anion monovalent selective membrane; c. a step of recovery of a final water having a orthosilicic acid weight content equal to at least 150%, particularly at least 200%, more particularly at least 300% of the orthosilicic acid weight content of the raw water, and a dissolved valuable mineral ions weight content comprised in the range of 70 to 130%, particularly in the range of 80 to 120%, more particularly in the range of 90 to 110 % of the dissolved valuable mineral ions weight content of the raw water, the valuable mineral ions being chosen from among calcium, magnesium, sodium, potassium, bicarbonate, sulfate and chloride ions. a. a step of reverse osmosis of a raw water containing an amount of orthosilicic acid less than 45 mg/l of SiO 2 in order to obtain a retentate; b. a step of electrodialysis of the retentate obtained in step a) with an electrodialysis stack comprising alternating pairs of cation selective membranes and anion selective membranes, said cation selective membranes and anion selective membranes being selected in the group of monovalent selective membranes and standard grade membranes such that the stack contains at least one cation standard grade membrane, one cation monovalent selective membrane, one anion standard grade membrane and one anion monovalent selective membrane; c. a step of recovery of a final water having a orthosilicic acid weight content equal to at least 150%, particularly at least 200%, more particularly at least 300% of the orthosilicic acid weight content of the raw water, and a dissolved valuable mineral ions weight content comprised in the range of 70 to 130%, particularly in the range of 80 to 120%, more particularly in the range of 90 to 110 % of the dissolved valuable mineral ions weight content of the raw water, the valuable mineral ions being chosen from among calcium, magnesium, sodium, potassium, bicarbonate, sulfate and chloride ions.
Filter medium, in particular for filtering air for the passenger compartment of a motor vehicle, comprising a first filter layer for retaining particles as well as a second filter layer, which features an antimicrobial substance and an antiallergenic substance and further comprising an adsorption layer with hydrophobic activated carbon, which features a water absorption of <10 mass percent at a relative humidity of 50%, wherein the adsorption layer is disposed between the first and second filter layers (2, 3).
A deep drawing sheet packaging with a packaging body comprising a shell and a cover film, wherein the cover film closes the shell and the shell is formed from a deep drawing sheet, wherein a printed material portion is arranged on the packaging body and only attached to the packaging body at a part of a circumferential edge by an fastening seam, characterized in that the cover film and/or the printed material portion and/or the deep drawing sheet are configured to be multi- layered and have at least one outer layer of polyolefin and wherein the printed material portion is arranged on the cover film and the fastening seam is configured as a heat-sealing seam or as an adhesive seam.
An optical device, comprising: a substrate; a first intermediate layer deposited on the substrate; a first semiconductor layer (710; 414), deposited on the first intermediate layer; a second intermediate layer deposited on the first semiconductor layer; a second layer (414; 710), deposited on the second intermediate layer; a heater in one of the first semiconductor and second layers; and a thermally tunable waveguide in the other of the first semiconductor and second layers, the device being characterised in that the second layer is a semiconductor layer. a substrate; a first intermediate layer deposited on the substrate; a first semiconductor layer (710; 414), deposited on the first intermediate layer; a second intermediate layer deposited on the first semiconductor layer; a second layer (414; 710), deposited on the second intermediate layer; a heater in one of the first semiconductor and second layers; and a thermally tunable waveguide in the other of the first semiconductor and second layers, the device being characterised in that the second layer is a semiconductor layer.
A method for wireless communication at a user equipment, UE, comprising: receiving a subframe configuration; characterized in that the subframe configuration is a semi-static partial subframe configuration, wherein the semi-static partial subframe configuration is associated with a partial subframe duration having a control portion and a data portion; receiving at least one partial subframe identifier corresponding to the semi-static partial subframe configuration; receiving a grant for a partial subframe, the grant identifying the partial subframe identifier; and receiving data scheduled for the partial subframe over a shared radio frequency spectrum band based at least in part on the semi-static partial subframe configuration. receiving a subframe configuration; characterized in that the subframe configuration is a semi-static partial subframe configuration, wherein the semi-static partial subframe configuration is associated with a partial subframe duration having a control portion and a data portion; receiving at least one partial subframe identifier corresponding to the semi-static partial subframe configuration; receiving a grant for a partial subframe, the grant identifying the partial subframe identifier; and receiving data scheduled for the partial subframe over a shared radio frequency spectrum band based at least in part on the semi-static partial subframe configuration.
A coffee grinder-dispenser consisting of a support base containing a grinding chamber, said base housing: - an electric motor, to the shaft of which a second shaft is rotoidally constrained but axially free, for rotating the driven grinding wheel, - a sleeve within which said second shaft rotates freely but is axially restrained, said sleeve having its threaded lateral surface cooperating with a threaded portion rigid with the base, said driven grinding wheel being axially constrained to said sleeve, - a fixed grinding wheel facing said driven grinding wheel in the interior of the grinding chamber, said fixed grinding wheel being fixed in a determined position to the base frame in a non removable manner, characterised by comprising means (34, 38) for axially rotating said sleeve. - an electric motor, to the shaft of which a second shaft is rotoidally constrained but axially free, for rotating the driven grinding wheel, - a sleeve within which said second shaft rotates freely but is axially restrained, said sleeve having its threaded lateral surface cooperating with a threaded portion rigid with the base, said driven grinding wheel being axially constrained to said sleeve, - a fixed grinding wheel facing said driven grinding wheel in the interior of the grinding chamber, said fixed grinding wheel being fixed in a determined position to the base frame in a non removable manner,
A measurement processing system suitable for supporting condition monitoring of a wind turbine, comprising: (i) means for inputting measurements (130, 230, 430) performed on at least one electrical part of the wind turbine; (ii) means for inputting measurements (140, 240, 440) performed on at least one mechanical part of the wind turbine; (iii) means for determining whether the wind turbine is connected to the electrical grid or not; and (iv) computation means adapted for determining information representative for shaft torque (110, 210, 310, 410) of the wind turbine and suited for condition monitoring of the wind turbine, based on said measurements (130, 230, 430, 140, 240, 440); whereby the determining of such information takes into account whether the wind turbine is connected to the electrical grid or not; wherein the computation means further being adapted for determining shaft torque (110, 210, 310, 410) of the wind turbine from measurements (130, 230, 430) performed on at least one electrical part of the wind turbine by use of an analytical model of at least a part of the wind turbine; whereby the determining of such information takes into account whether the wind turbine is connected to the electrical grid or not, comprises determining shaft torque (110, 210, 310, 410) of the wind turbine or other parameters from measurements (130, 133, 230, 430) performed on at least one electrical part of the wind turbine if such measurements are available; and otherwise determining shaft torque (110, 210, 310, 410) of the wind turbine from measurements (140, 240, 440) performed on at least one of the mechanical parts of the wind turbine.
A method for performing liquid blow molding using a polypropylene preform 1, comprising the following steps: attaching the preform 1 being heated to a temperature capable of realizing a stretching effect to a molding die, molding the desired container by incorporating the preform 1 in a shape according to the cavity of the molding die by vertically stretching by a stretching rod of a blow molding device and stretching in an expanded state by a pressurizing liquid inserted into the preform 1 by a nozzle given to an opening portion 4 of the preform 1, characterized in that, when measured with a differential scanning calorimeter, a relationship between the melting start temperature (Ts), melting peak temperature (Tm), and melting enthalpy (Hm) of the preform 1 is (Tm-Ts)/ Hm=0.88-0.95.
A method for isolating a nucleic acid from a formalin-fixed, paraffin-embedded (FFPE) tissue, comprising: (a) lysing FFPE tissue fragments in 90 μl or 200 μl lysis buffer comprising a chelating agent, an ionic surfactant, and Tris-CI, and 10 μl proteinase K, to prepare a separated sample; (b) adding, to the separated sample, 100 μl solution which comprises 2.5 M of sodium chloride, and 20% (w/v) polyethylene glycol (PEG-8000), and 100 μl magnetic bead solution; and (c) isolating the nucleic acid from the magnetic beads after obtaining the magnetic beads from the sample comprising the same. (a) lysing FFPE tissue fragments in 90 μl or 200 μl lysis buffer comprising a chelating agent, an ionic surfactant, and Tris-CI, and 10 μl proteinase K, to prepare a separated sample; (b) adding, to the separated sample, 100 μl solution which comprises 2.5 M of sodium chloride, and 20% (w/v) polyethylene glycol (PEG-8000), and 100 μl magnetic bead solution; and (c) isolating the nucleic acid from the magnetic beads after obtaining the magnetic beads from the sample comprising the same.
A hot stamping machine, wherein the hot stamping machine comprises: a machine table; a processing platform, arranged on the machine table, and connected to a processing platform lifting cylinder at the bottom of the processing platform; a hot stamping device, comprising an upper heating plate, a single-rod cylinder, a carbon ribbon and a carbon ribbon conveying mechanism, wherein the upper heating plate is fixed above the processing platform, the single-rod cylinder is connected to the upper heating plate and pushes the upper heating plate to move horizontally; the carbon ribbon is arranged between the upper heating plate and the processing platform, and the carbon ribbon conveying mechanism configured for conveying the carbon ribbon; and a license plate conveying device, comprising two lifting plates, two groups of lifting mechanisms, two groups of grabbing devices and grabbing device moving mechanisms, wherein the two lifting plates are each arranged on two sides of the machine table and are configured for placing license plates; the two groups of lifting mechanisms are configured for driving the lifting plates to move in the vertical direction; tops of the two groups of grabbing devices are connected, and the grabbing device moving mechanisms are configured for driving the grabbing devices to move linearly between the two groups of lifting plates and the processing platform up and down and horizontally. a machine table; a processing platform, arranged on the machine table, and connected to a processing platform lifting cylinder at the bottom of the processing platform; a hot stamping device, comprising an upper heating plate, a single-rod cylinder, a carbon ribbon and a carbon ribbon conveying mechanism, wherein the upper heating plate is fixed above the processing platform, the single-rod cylinder is connected to the upper heating plate and pushes the upper heating plate to move horizontally; the carbon ribbon is arranged between the upper heating plate and the processing platform, and the carbon ribbon conveying mechanism configured for conveying the carbon ribbon; and a license plate conveying device, comprising two lifting plates, two groups of lifting mechanisms, two groups of grabbing devices and grabbing device moving mechanisms, wherein the two lifting plates are each arranged on two sides of the machine table and are configured for placing license plates; the two groups of lifting mechanisms are configured for driving the lifting plates to move in the vertical direction; tops of the two groups of grabbing devices are connected, and the grabbing device moving mechanisms are configured for driving the grabbing devices to move linearly between the two groups of lifting plates and the processing platform up and down and horizontally.
An HF coaxial cable that comprises a cable inner conductor and a cable outer conductor, as well as an angular plug connection at at least one of its two cable ends, in which the HF coaxial cable is constructed as a conventional corrugated sheath cable having a cable outer conductor constructed as a metal corrugated tube, to which a line impedance Z k and also a minimum bending radius r k,min are allocated, and in which at the at least one cable end, the cable inner conductor is joined with an inner conductor of a straight plug connector and the cable outer conductor is joined with an outer conductor of the straight plug connector, characterized - in that said corrugated sheath cable has, directly or indirectly following the straight plug connector, a bend that has a bending radius r α, where 0.2 r k,min ≤ r α ≤ 0.9 r k,min, which alters the line impedance Z k by a maximum of 1 Ohm, and - in that the bend with the bending radius r α is produced by cold forming said corrugated sheath cable with introduction of bending forces and tensile forces directed along said corrugated sheath cable. - in that said corrugated sheath cable has, directly or indirectly following the straight plug connector, a bend that has a bending radius r α, where 0.2 r k,min ≤ r α ≤ 0.9 r k,min, which alters the line impedance Z k by a maximum of 1 Ohm, and - in that the bend with the bending radius r α is produced by cold forming said corrugated sheath cable with introduction of bending forces and tensile forces directed along said corrugated sheath cable.