mhurhangee/ep-ind-claims huggingface dataset:
A polyester composition for extrusion blow molding, comprising a first polyester copolymer which does not show a peak crystallization time of less than 45 minutes, a second polyester having a peak crystallization time of less than 45 minutes, and from 0.1 to 5 wt% of a chain extender selected from the group consisting of trimellitic anhydride, pyromellitic dianhydride, trimellitic acid, haloformyl derivatives thereof, and combinations thereof, wherein the first polyester copolymer and the second polyester have a weight ratio of from 10:90 to 90: 10, wherein peak crystallization time is defined as the maxima corresponding to the exotherm accompanying crystallization as determined using differential scanning calorimetry when plotting normalized heat flow (W/g) versus time (min.) for an amorphous quenched polymer held isothermally at 170 °C under nitrogen.
A ventilator configured to blow air through a flow path from an opening part, the ventilator comprising: a first louver on which a knob is mounted; a plurality of second louvers each extending in a direction intersecting a longitudinal direction of the first louver, and arranged further to an upstream side in an airflow direction than the first louver; a pair of side walls (22, 23) rotatably supporting the first louver, and the side walls (22, 23) defining a portion of the opening part; and a first inclined member that forms another portion of the opening part between the pair of side walls (22, 23), and the first inclined member being inclined so that an opening area of the opening part widens from the upstream side to a downstream side in the airflow direction, the first inclined member having a vertex of inclination in a cross-sectional view that is positioned at the upstream side in the airflow direction; wherein in a maximum angle state in which the first louver is rotated so that an upstream end part of the first louver is closest to the first inclined member, the upstream end part is positioned further to the downstream side in the airflow direction than the vertex, characterized by a convex part being arranged adjacent at the upstream side in the airflow direction to the vertex, wherein the convex part projects further to an inside of the flow path than the vertex in a direction orthogonal to both a rotation axis of the first louver and the airflow direction, and the convex part extends across the plurality of second louvers when seen along the airflow direction. a first louver on which a knob is mounted; a plurality of second louvers each extending in a direction intersecting a longitudinal direction of the first louver, and arranged further to an upstream side in an airflow direction than the first louver; a pair of side walls (22, 23) rotatably supporting the first louver, and the side walls (22, 23) defining a portion of the opening part; and a first inclined member that forms another portion of the opening part between the pair of side walls (22, 23), and the first inclined member being inclined so that an opening area of the opening part widens from the upstream side to a downstream side in the airflow direction, the first inclined member having a vertex of inclination in a cross-sectional view that is positioned at the upstream side in the airflow direction; wherein in a maximum angle state in which the first louver is rotated so that an upstream end part of the first louver is closest to the first inclined member, the upstream end part is positioned further to the downstream side in the airflow direction than the vertex, characterized by a convex part being arranged adjacent at the upstream side in the airflow direction to the vertex, wherein the convex part projects further to an inside of the flow path than the vertex in a direction orthogonal to both a rotation axis of the first louver and the airflow direction, and the convex part extends across the plurality of second louvers when seen along the airflow direction.
Method for expressing a protein in a cell-free expression system using a lysate from E. coli, comprising the steps: (a) linearizing in the multiple cloning site an expression vector which contains the T7 promoter, a ribosomal binding site and the T7 terminator as control elements, (b) amplifying by PCR the linearized vector fragment of step (a) together with the protein-coding gene whose two ends have complementary regions to the two ends of the linearized vector, using a primer pair which binds upstream of the T7 promoter and downstream of the T7 terminator on the vector, wherein the protein-coding gene whose ends have regions that are complementary to the two ends of the linearized vector fragment is produced in a PCR reaction in which the protein-coding gene is amplified using gene-specific primers whose 5' end have regions which overlap the linearized vector fragment and in this manner the amplified gene is extended by the overlapping regions of the primers, wherein a linear DNA fragment for the in vitro expression of the protein is produced; and (c) in vitro transcription and translation, characterized in that the regions of the amplified gene which overlap the linearized vector fragment have a length from 21 to 22 nucleotides. (a) linearizing in the multiple cloning site an expression vector which contains the T7 promoter, a ribosomal binding site and the T7 terminator as control elements, (b) amplifying by PCR the linearized vector fragment of step (a) together with the protein-coding gene whose two ends have complementary regions to the two ends of the linearized vector, using a primer pair which binds upstream of the T7 promoter and downstream of the T7 terminator on the vector, wherein the protein-coding gene whose ends have regions that are complementary to the two ends of the linearized vector fragment is produced in a PCR reaction in which the protein-coding gene is amplified using gene-specific primers whose 5' end have regions which overlap the linearized vector fragment and in this manner the amplified gene is extended by the overlapping regions of the primers, wherein a linear DNA fragment for the in vitro expression of the protein is produced; and (c) in vitro transcription and translation,
A method of producing a tissue construct suitable for implantation into a subject, which is preferably a human subject, the method comprising the steps of: (i) providing an acellular scaffold; (ii) seeding a combination of mesoangioblasts and fibroblast cells into and/or onto the scaffold; and (iii) culturing the seeded scaffold to produce said construct, wherein the ratio of mesoangioblasts: fibroblasts used for seeding is from 50:50 to 99:1. (i) providing an acellular scaffold; (ii) seeding a combination of mesoangioblasts and fibroblast cells into and/or onto the scaffold; and (iii) culturing the seeded scaffold to produce said construct,
Wind turbine blade comprising one or more electric powered modules, the wind turbine blade being characterised in that it comprises power supply means converting light beams to electrical power for said one or more modules, and in that said light beams are transmitted to the power supply means in the blade structure and/or interior from an external light source.
Transfer device for transferring an at least partially ferromagnetic tire component, wherein the transfer device comprises a first transfer member and a second transfer member (2, 102) which are movable relative to each other into a first transfer state on opposite sides of a first transfer plane, wherein the first transfer member comprises a plurality of first magnetic field sources (11, 211) that form a first magnetic field array (12, 212) for retaining the tire component to the first transfer member with a first magnetic attraction force, wherein the second transfer member (2, 102) comprises a plurality of second magnetic field sources (21, 121, 221) that form a second magnetic field array (22, 122, 222) for retaining the tire component to the second transfer member (2, 102) with a second magnetic attraction force, wherein in the first transfer state the second magnetic attraction force at the first transfer plane is larger than the first magnetic attraction force at the first transfer plane to transfer the tire component from the first transfer member to the second transfer member (2, 102), characterised in that in the first transfer state the second magnetic field array (22, 122, 222) is at least partially offset with respect to the first magnetic field array (12, 212).
A method for processing data cells comprising: configuring a unicast routing table and a multicast routing table, wherein, the unicast routing table includes a corresponding relation between unicast destination addresses and port trunking, Trunks, and the multicast routing table includes a corresponding relation between multicast group addresses and Trunks; receiving data cells; determining a corresponding Trunk according to a type of the data cell, if the data cell is a unicast cell, extracting a destination address of the unicast cell, querying the unicast routing table, and obtaining a Trunk corresponding to the unicast cell; and if the data cell is a multicast cell, extracting a multicast group address of the multicast cell, querying the multicast routing table, and obtaining one or more Trunks corresponding to the multicast cell; and selecting an output link from the determined Trunks according to a preset load balancing policy, and sending the data cells through the selected output link. configuring a unicast routing table and a multicast routing table, wherein, the unicast routing table includes a corresponding relation between unicast destination addresses and port trunking, Trunks, and the multicast routing table includes a corresponding relation between multicast group addresses and Trunks; receiving data cells; determining a corresponding Trunk according to a type of the data cell, if the data cell is a unicast cell, extracting a destination address of the unicast cell, querying the unicast routing table, and obtaining a Trunk corresponding to the unicast cell; and if the data cell is a multicast cell, extracting a multicast group address of the multicast cell, querying the multicast routing table, and obtaining one or more Trunks corresponding to the multicast cell; and selecting an output link from the determined Trunks according to a preset load balancing policy, and sending the data cells through the selected output link.
A method for producing an organic EL element having a pair of electrodes and at least one organic layer arranged between the electrodes, at least one light-emitting layer being provided as the at least one organic layer; the method comprising the steps of forming one of the pair of electrodes, forming one or a plurality of organic layers, and forming the other of the pair of electrodes; wherein, in the step of forming the one or a plurality of organic layers, an object to be coated to become the organic EL element is arranged such that a surface to form the organic layer faces down, a nozzle having a plurality of slit-shaped outlets for discharging thereabove a coating liquid containing a material to become the organic layer is arranged under the object to be coated, and a coating step of moving the nozzle and the object relative to each other in a predetermined coating direction while keeping the coating liquid discharged from the nozzle in contact with the object and a non-coating step of moving the nozzle and the object relative to each other in the coating direction while keeping the coating liquid away from the object are alternately repeated, so as to apply the coating liquid to the surface and form a film, and solidify the applied and formed film, thereby forming the organic layer, characterized in that: said nozzle has downwardly depressed cutouts respectively formed at both end parts of each of the slit-shaped outlets. said nozzle has downwardly depressed cutouts respectively formed at both end parts of each of the slit-shaped outlets.
A system for monitoring an overhead storage bin comprising: a proximity sensor, a load sensor, and a latch mechanism sensor; and a controller (204,205) operatively connected to the proximity sensor, the load sensor and the latch mechanism sensor, the controller configured to: retrieve proximity data from the proximity sensor indicative of a space status of an overhead storage bin; retrieve load data from the load sensor indicative of a stowage weight status of the overhead storage bin; retrieve a latch status from the latch mechanism sensor indicative of a latch status of an access door of the overhead storage bin; determine, based on the space status, the weight data, and the latch status, a probability indicative of whether an item stowed in the overhead storage bin may fall from the bin; output, based on the probability, an indication on an output device configured on an exterior surface of the overhead storage bin, characterised in that the load sensor comprises an array of load sensors configured on a base of the overhead storage bin. a proximity sensor, a load sensor, and a latch mechanism sensor; and a controller (204,205) operatively connected to the proximity sensor, the load sensor and the latch mechanism sensor, the controller configured to: retrieve proximity data from the proximity sensor indicative of a space status of an overhead storage bin; retrieve load data from the load sensor indicative of a stowage weight status of the overhead storage bin; retrieve a latch status from the latch mechanism sensor indicative of a latch status of an access door of the overhead storage bin; determine, based on the space status, the weight data, and the latch status, a probability indicative of whether an item stowed in the overhead storage bin may fall from the bin; output, based on the probability, an indication on an output device configured on an exterior surface of the overhead storage bin, retrieve proximity data from the proximity sensor indicative of a space status of an overhead storage bin; retrieve load data from the load sensor indicative of a stowage weight status of the overhead storage bin; retrieve a latch status from the latch mechanism sensor indicative of a latch status of an access door of the overhead storage bin; determine, based on the space status, the weight data, and the latch status, a probability indicative of whether an item stowed in the overhead storage bin may fall from the bin; output, based on the probability, an indication on an output device configured on an exterior surface of the overhead storage bin, characterised in that the load sensor comprises an array of load sensors configured on a base of the overhead storage bin.
A catalyst system for tetramerising ethylene, comprising a chromium or a chromium precursor, a co-catalyst, and a P-C-C-P backbone structure ligand being selected from the group consisting of (phenyl) 2 P-CH(methyl)CH(methyl)-P(phenyl) 2, (4-methoxyphenyl) 2 P-CH(methyl)CH(methyl)-P(4-methoxyphenyl) 2, (4-methylphenyl) 2 P-CH(methyl)CH(methyl)-P(4-methylphenyl) 2, (4-ethylphenyl) 2 P-CH(methyl)CH(methyl)-P(phenyl) 2, (4-ethylphenyl) 2 P-CH(ethyl)CH(methyl)-P(4-ethylphenyl) 2, (4-methoxyphenyl) 2 P-CH(ethyl)CH(methyl)-P(phenyl) 2, (4-ethylphenyl 2 P-CH(ethyl)CH(ethyl)-P(4-ethylphenyl) 2, (phenyl) 2 P-CH(ethyl)CH(ethyl)-P(phenyl) 2, (phenyl) 2 P-CH(isopropyl)CH(methyl)-P(phenyl) 2, (4-methoxyphenyl) 2 P-CH(isopropyl)CH(methyl)-P(4-methoxyphenyl) 2, (4-ethylphenyl) 2 P-CH(isopropyl)CH(methyl)-P(4-ethylphenyl) 2, (phenyl) 2 P-CH(n-propyl)CH(methyl)-P(phenyl) 2, (4-methoxyphenyl) 2 P-CH(n-propyl)CH(methyl)-P(4-methoxyphenyl) 2, (4-ethylphenyl) 2 P-CH(n-propyl)CH(methyl)-P(4-ethylphenyl) 2, (phenyl) 2 P-CH(isopropyl)CH(ethyl)-P(phenyl) 2, (4-methoxyphenyl) 2 P-CH(isopropyl)CH(ethyl)-P(4-methoxyphenyl) 2, (4-ethylphenyl) 2 P-CH(isopropyl)CH(ethyl)-P(4-ethylphenyl) 2,, (3-methoxyphenyl) 2 P-CH(methyl)CH(methyl)-P(3-methoxyphenyl) 2, (4-dimethylaminephenyl) 2 P-CH(methyl)CH(methyl)P(4-dimethylaminephenyl) 2, and and wherein the co-catalyst includes alkylaluminoxane.
A method for preparing -2-acetyloxypropionioc acid in a preparation assembly comprising a distillation section and reaction section, the distillation section comprising a top portion and a bottom portion connected to said reaction Section, the method comprising the steps of: a. continuously feeding an aqueous solution of -lactic acid to the top portion of the distillation section; b. feeding acetic anhydride into the reaction section; c. reacting -lactic acid with acetic anhydride in the Reaction section, thus forming -2-acetyloxypropionic acid and acetic acid; d. evaporating a mixture of the formed acetic acid and of unreacted acetic anhydride from reaction section; e. feeding the vaporized mixture of step d to distillation section for stripping water from the aqueous solution of -lactic acid which counterflows through said distillation section towards reaction section, so that a mixture of substantially anhydrous -lactic acid and acetic acid enters the reaction section from the bottom portion of the distillation section; f. recovering -2-acetyloxypropionic acid from the Reaction section; g. collecting a diluted aqueous solution of acetic acid at the top portion of the Distillation section. a. continuously feeding an aqueous solution of -lactic acid to the top portion of the distillation section; b. feeding acetic anhydride into the reaction section; c. reacting -lactic acid with acetic anhydride in the Reaction section, thus forming -2-acetyloxypropionic acid and acetic acid; d. evaporating a mixture of the formed acetic acid and of unreacted acetic anhydride from reaction section; e. feeding the vaporized mixture of step d to distillation section for stripping water from the aqueous solution of -lactic acid which counterflows through said distillation section towards reaction section, so that a mixture of substantially anhydrous -lactic acid and acetic acid enters the reaction section from the bottom portion of the distillation section; f. recovering -2-acetyloxypropionic acid from the Reaction section; g. collecting a diluted aqueous solution of acetic acid at the top portion of the Distillation section.
A garment formed from substantially impermeable panels (6, 7, 8, 9) and intended, in use, to cover a wearer's body between the waist and thighs, the garment comprising: a waist band formed from one or more panels of material (10, 11), the waist band having a top edge and bottom edge, the top edge being shorter than the bottom edge and the bottom edge being joined to a top edge of the remainder of the garment, two rear panels (7, 8) joined together along adjacent curved edges, and leg bands which are resiliently stretchable, wherein the waistband is formed from a resiliently stretchable fabric, and characterised in that the garment is shaped so that the top edge of the waist band at the rear of the garment extends beyond the top edge of the waist band at the front of the garment so that, in use, the garment extends further up the wearer's back than the wearer's front, the top edge of the back of the garment extends above the wearer's coccyx in use, and the top edge of the front of the remainder of the garment is concave and the top edge of the rear of the remainder of the garment is convex. a waist band formed from one or more panels of material (10, 11), the waist band having a top edge and bottom edge, the top edge being shorter than the bottom edge and the bottom edge being joined to a top edge of the remainder of the garment, two rear panels (7, 8) joined together along adjacent curved edges, and leg bands which are resiliently stretchable, wherein the waistband is formed from a resiliently stretchable fabric, and characterised in that the garment is shaped so that the top edge of the waist band at the rear of the garment extends beyond the top edge of the waist band at the front of the garment so that, in use, the garment extends further up the wearer's back than the wearer's front, the top edge of the back of the garment extends above the wearer's coccyx in use, and the top edge of the front of the remainder of the garment is concave and the top edge of the rear of the remainder of the garment is convex.
A method for fabricating a silicone-containing copolymer molded article comprising a silicone monomer unit, hydrophilic monomer unit, and crosslinking monomer unit, and having a hydrophilic surface; by polymerizing a monomer solution containing (a) at least one silicone monomer comprising a (meth)acryloyl group; (b) at least one hydrophilic monomer comprising a vinyl group; (c) at least one crosslinkable monomer; and (d) at least one polymerization initiator; in a cavity of a mold having a hydrophobic cavity surface; wherein the polymerization initiator has a 10-hour half-life temperature (abbreviated to T10 hereinafter) of 70°C or higher and 100°C or lower, and the polymerization is conducted by means of a step P1 of maintaining a temperature within a range of from the T10 of the polymerization initiator contained in the monomer solution to 35°C below T10 for one hour or more; and a step P2 of maintaining a temperature higher than the T10 of the polymerization initiator contained in the monomer solution for one hour or more.
Circuit arrangement for electrically connecting at least one fuel cell installation and at least one rechargeable battery to a load network, particularly a propulsion network of an underwater vehicle having an outside-air-independent drive and power supply, wherein at least one DC-DC converter is provided that is connected firstly to the fuel cell installation and secondly to the at least one battery, and the at least one DC-DC converter is designed to be able to act in two directions, wherein the at least one DC-DC converter can act as a step-down converter in one direction, in order to transfer energy from the fuel cell installation to the load network, and wherein the fuel cell installation is connected via a semiconductor switch (3, 3') directly to the load network, characterized in that if the semiconductor switch (3, 3') is off, energy is transferred from the fuel cell installation via the DC-DC converter to the load network and the load network voltage is determined by the battery.
A long-fiber-reinforced thermoplastic resin preform having pellet-like shapes or sheet-like shapes which is produced by cutting to a length of 3.0 to 50 mm glass fiber bundles impregnated with a thermoplastic resin and at the same time holding the thermoplastic resin around the glass fiber bundles and which includes the glass fiber bundles as long fiber bundles, wherein the glass fiber bundles impregnated with a thermoplastic resin and at the same time holding the thermoplastic resin around the glass fiber bundles are obtained by a process wherein a glass composition as a raw material for glass fibers is melted into a molten glass, the continuous glass fibers spun from the molten glass are bundled into glass fiber bundles, and a thermoplastic resin is impregnated in the glass fiber bundles and at the same time being held around the glass fiber bundles, wherein the glass fibers have a composition wherein a content of SiO 2 is 57.0 to 63.0% by mass, a content of Al 2 O 3 is 19.0 to 23.0% by mass, a content of MgO is 10.0 to 15.0% by mass and a content of CaO is 10.5 to 11.0% by mass, a content of alkali metal oxides, Fe 2 O 3, TiO 2, ZrO 2, MoO 3 and Cr 2 O 3 is less than 0.5% by mass, based on a total amount of the glass fibers, and a ratio of the content of MgO to the content of CaO, MgO/CaO falls within a range from 0.8 to 2.0.