mhurhangee/ep-ind-claims huggingface dataset:
A liquid crystal composition having a nematic phase that comprises at least one compound selected from the group of compounds represented by formulas as a first component and at least one compound selected from the group of compounds represented by formula as a second component: wherein R 1 is alkyl having 1 to 12 carbons, alkoxy having 1 to 12 carbons or alkenyl having 2 to 12 carbons; R 6 is a straight-chain alkyl having 1 to 12 carbons; R 7 is a straight-chain alkenyl having 2 to 12 carbons; Z 1, Z 2 and Z 3 are each independently a single bond, ethylene, carbonyloxy or difluoromethyleneoxy, wherein at least one of Z 1, Z 2 and Z 3 is difluoromethyleneoxy; X 1, X 2, X 3, X 4, X 5, X 6, X 7 and X 8 are each independently hydrogen or fluorine; and Y 1 is fluorine, chlorine or trifluoromethoxy with the proviso that the liquid crystal composition does not include the compositions A and B below: Composition A 5-BB(F,F)XB B B(F,F)-F 5% 5-BB B(F,F)B(F,F)XB(F,F)-F 5% 3-BEB -C 8% 3-HB-C 8% V-HB-C 8% 1V-HB-C 8% 3-HB-02 3% 3-HH-2V 11% 3-HH-2V1 7% V2-HHB-1 8% 3-HHB-1 5% 3-HHEB-F 7% 3-H2BTB-2 6% 3-H2BTB-3 6% 3-H2BTB-4 5% Composition B 5-BB B (F, F) XB B -OCF3 6% 5-BB (F, F) XB B B (F, F) -F 6% 5-BEB -C 5% V-HB-C 11% 5-PyB-C 6% 4-BB-3 11% 3-HH-2V 10% 5-HH-V 11% V-HHB-1 7% V2-HHB-1 9% 3-HHB-1 9% 1V2-HBB-2 4% 3-HHEBH-3 5% Composition A 5-BB(F,F)XB B B(F,F)-F 5% 5-BB B(F,F)B(F,F)XB(F,F)-F 5% 3-BEB -C 8% 3-HB-C 8% V-HB-C 8% 1V-HB-C 8% 3-HB-02 3% 3-HH-2V 11% 3-HH-2V1 7% V2-HHB-1 8% 3-HHB-1 5% 3-HHEB-F 7% 3-H2BTB-2 6% 3-H2BTB-3 6% 3-H2BTB-4 5% 5-BB(F,F)XB B B(F,F)-F 5% 5-BB B(F,F)B(F,F)XB(F,F)-F 5% 3-BEB -C 8% 3-HB-C 8% V-HB-C 8% 1V-HB-C 8% 3-HB-02 3% 3-HH-2V 11% 3-HH-2V1 7% V2-HHB-1 8% 3-HHB-1 5% 3-HHEB-F 7% 3-H2BTB-2 6% 3-H2BTB-3 6% 3-H2BTB-4 5% Composition B 5-BB B (F, F) XB B -OCF3 6% 5-BB (F, F) XB B B (F, F) -F 6% 5-BEB -C 5% V-HB-C 11% 5-PyB-C 6% 4-BB-3 11% 3-HH-2V 10% 5-HH-V 11% V-HHB-1 7% V2-HHB-1 9% 3-HHB-1 9% 1V2-HBB-2 4% 3-HHEBH-3 5% 5-BB B (F, F) XB B -OCF3 6% 5-BB (F, F) XB B B (F, F) -F 6% 5-BEB -C 5% V-HB-C 11% 5-PyB-C 6% 4-BB-3 11% 3-HH-2V 10% 5-HH-V 11% V-HHB-1 7% V2-HHB-1 9% 3-HHB-1 9% 1V2-HBB-2 4% 3-HHEBH-3 5%
A robotic palletizing method comprising: conveying to-be-grouped items to a location in a vicinity of a palletizing robot; selectively operating the palletizing robot between at least a pregrouping state, in which the palletizing robot seizes the conveyed to-be-grouped items and groups the to-be-grouped items at a pregrouping station, and a principal grouping state, in which the palletizing robot seizes the conveyed to-be-grouped items and groups the to-be-grouped items at a principal grouping station; and selectively operating a load securing machine between a securing state, in which the load securing machine at least partially secures to-be-grouped items grouped at the principal grouping station, and a non-operational state, the method further comprises operating the palletizing robot in the principal grouping state when the load securing machine is in the non-operational state. conveying to-be-grouped items to a location in a vicinity of a palletizing robot; selectively operating the palletizing robot between at least a pregrouping state, in which the palletizing robot seizes the conveyed to-be-grouped items and groups the to-be-grouped items at a pregrouping station, and a principal grouping state, in which the palletizing robot seizes the conveyed to-be-grouped items and groups the to-be-grouped items at a principal grouping station; and selectively operating a load securing machine between a securing state, in which the load securing machine at least partially secures to-be-grouped items grouped at the principal grouping station, and a non-operational state, the method further comprises operating the palletizing robot in the principal grouping state when the load securing machine is in the non-operational state.
A method, comprising: transmitting, from an encoding client to a first remote computing system, an encoded video stream that includes a plurality of first-resolution frames and a plurality of second-resolution frames; periodically transmitting, from the encoding client to the first remote computing system in the encoded video stream, a first-resolution non-displayed anchor frame; receiving, at the encoding client from the first remote computing system, a request to change resolution; and in response to receiving the request to change resolution, transmitting, from the encoding client to the first remote computing system in the encoded video stream, a set of frames that comprises: a first-resolution frame encoded relative to a previously-transmitted first-resolution non-displayed anchor frame; and a second-resolution frame encoded relative to either the previously-transmitted first-resolution non-displayed anchor frame or the first-resolution frame. transmitting, from an encoding client to a first remote computing system, an encoded video stream that includes a plurality of first-resolution frames and a plurality of second-resolution frames; periodically transmitting, from the encoding client to the first remote computing system in the encoded video stream, a first-resolution non-displayed anchor frame; receiving, at the encoding client from the first remote computing system, a request to change resolution; and in response to receiving the request to change resolution, transmitting, from the encoding client to the first remote computing system in the encoded video stream, a set of frames that comprises: a first-resolution frame encoded relative to a previously-transmitted first-resolution non-displayed anchor frame; and a second-resolution frame encoded relative to either the previously-transmitted first-resolution non-displayed anchor frame or the first-resolution frame. a first-resolution frame encoded relative to a previously-transmitted first-resolution non-displayed anchor frame; and a second-resolution frame encoded relative to either the previously-transmitted first-resolution non-displayed anchor frame or the first-resolution frame.
A load test system for performing a load test of a generator, characterized by the load test system comprising: a plurality of chargers having an AC/DC conversion function being connected in parallel, to which AC power generated from the generator is inputted; one storage battery to which AC power inputted to the plurality of chargers having the AC/DC conversion function being connected in parallel is converted into DC power of a predetermined output voltage and then inputted, a load resistor to which AC power generated from the generator is inputted, and a DC/AC converter for converting DC power from the one storage battery into AC power, wherein the plurality of chargers having the AC/DC conversion function are connected to the one storage battery, the load resistor has a dry-type resistor unit for converting the inputted AC power into thermal energy, and at an instantaneous power loss, power charged in the one storage battery is supplied to a cooling fan of the load resistor, then the load test system is stopped. a plurality of chargers having an AC/DC conversion function being connected in parallel, to which AC power generated from the generator is inputted; one storage battery to which AC power inputted to the plurality of chargers having the AC/DC conversion function being connected in parallel is converted into DC power of a predetermined output voltage and then inputted, a load resistor to which AC power generated from the generator is inputted, and a DC/AC converter for converting DC power from the one storage battery into AC power, wherein the plurality of chargers having the AC/DC conversion function are connected to the one storage battery, the load resistor has a dry-type resistor unit for converting the inputted AC power into thermal energy, and at an instantaneous power loss, power charged in the one storage battery is supplied to a cooling fan of the load resistor, then the load test system is stopped.
A catalyst for propane dehydrogenation to propylene, the catalyst comprising a support, an active component and a promoter supported on the support, wherein the support is an alumina ball, the active component is Pt, and the promoter includes rare earth elements of the first promoter, tin of the second promoter and alkali metal elements of the third promoter wherein based on the total mass of the catalyst, the mass fraction of the carrier is 80%-99.6%, the mass fraction of the active component Pt is 0.1%-5%, the mass fraction of rare earth elements in the first promoter is 0. 1%-5%, the mass fraction of Sn in the second promoter is 0. 1%-5%, and the mass fraction of alkali metal element in the third promoter is 0. 1%-5%, and characterized in that the rare earth element of the first promoter is Y and the alkali metal element of the third promoter is K.
A laminated rotor structure of a rotor for a permanent magnet synchronous machine, the laminated rotor structure comprising disks of ferromagnetic material constituting a body of the rotor that includes bars of a damper winding extending axially close to an outer surface of the rotor from one end of the body of the rotor to another end of the body of the rotor, and a circle of permanent magnets arranged to constitute pairs of permanent magnets so that the permanent magnets of each pair of permanent magnets are disposed in a V-shaped configuration forming a V-shaped area close to an outer perimeter of the rotor and between the two magnets of each pair of permanent magnets inside a circle formed by the bars, wherein first ends of the permanent magnets of each pair of permanent magnets are disposed close to the outer perimeter of the rotor and second ends of the permanent magnets of each pair of permanent magnets are disposed closer to a central axis of the rotor than the first ends of the the permanent magnets, and wherein the permanent magnets of each pair of permanent magnets are disposed at an angle (α) to each other so that their first ends are disposed at a distance from each other and their second ends in proximity to each other, and that each pair of permanent magnets includes an air channel system that extends axially through the laminated rotor structure of the rotor and is in a direct heat transfer contact with the second ends of the permanent magnets of the pair of permanent magnets, wherein each V-shaped area includes a non-ferromagnetic support structure that extends axially through the rotor, characterized in that the support structure includes two non-ferromagnetic support bolts disposed at a distance from each other in a radial direction of the rotor and an air gap provided in the radial direction of the rotor to connect them, wherein each air channel system is symmetrical relative to a bisector of the angle (α) in the radial direction of the rotor and each air channel system includes a ferromagnetic neck disposed in the direction of the bisector of the angle, dividing the air channel system under consideration in two subchannels that are symmetrical relative to the neck.
A transparent plastic substrate which comprises (i) a resin component constituting the transparent plastic substrate, selected from a thiourethane resin formed of a combination of a polythiol compound containing 1,2-bis(2-mercaptoethylthio)-3-mercaptopropane and a polyisocyanate compound which is an alicyclic isocyanate, provided that isophorone diisocyanate is excluded; and (ii) 0.10-2.00 parts by mass, per 100 parts by mass of the resin component constituting the transparent plastic substrate, of a benzotriazole compound of the formula: wherein R 1 is C 1-3 -alkyl or C 1-3 -alkoxy, m is 0 or 1, and R 2 is C 1-12 -alkyl or C 1-12 -alkoxy, and has a cut rate of light having a wavelength of 410 nm of ≥ 50%. (i) a resin component constituting the transparent plastic substrate, selected from a thiourethane resin formed of a combination of a polythiol compound containing 1,2-bis(2-mercaptoethylthio)-3-mercaptopropane and a polyisocyanate compound which is an alicyclic isocyanate, provided that isophorone diisocyanate is excluded; and (ii) 0.10-2.00 parts by mass, per 100 parts by mass of the resin component constituting the transparent plastic substrate, of a benzotriazole compound of the formula: wherein R 1 is C 1-3 -alkyl or C 1-3 -alkoxy, m is 0 or 1, and R 2 is C 1-12 -alkyl or C 1-12 -alkoxy,
A pellet-type formulation capable of producing CO 2 gas when coming into contact with an acid, wherein the pellet-type formulation is produced by preparing a pellet through extrusion molding of a composition comprising a major amount of sodium carbonate (Na 2 CO 3) and a minor amount of gelatin, wherein the gelatin has a particle size of 50 to 100 mesh, coating the pellet one or more times with a resin solution that hardly reacts with the acid, and forming a recess or hole at the center of the coated pellet.
A semiconductor device comprising: a source region and a drain region defined in a substrate; a first dielectric layer supported by the substrate, the first dielectric layer including a fixed dielectric portion and a proof mass portion; an oxide layer located between the substrate and the first dielectric layer; a routing layer located above the first dielectric layer; a portion of a bond layer supported by the proof mass portion; a second dielectric layer located above the routing layer and under the bond layer; a silicon layer bonded to the bond layer, the silicon layer including a first silicon portion and a second silicon portion, the first silicon portion fixed with respect to the fixed dielectric portion and the second silicon portion moveable with the proof mass portion, and a cap attached to the first silicon portion and defining a cap cavity fluidly coupled to a gap, wherein the gap is defined between the proof mass portion and the oxide layer. a source region and a drain region defined in a substrate; a first dielectric layer supported by the substrate, the first dielectric layer including a fixed dielectric portion and a proof mass portion; an oxide layer located between the substrate and the first dielectric layer; a routing layer located above the first dielectric layer; a portion of a bond layer supported by the proof mass portion; a second dielectric layer located above the routing layer and under the bond layer; a silicon layer bonded to the bond layer, the silicon layer including a first silicon portion and a second silicon portion, the first silicon portion fixed with respect to the fixed dielectric portion and the second silicon portion moveable with the proof mass portion, and a cap attached to the first silicon portion and defining a cap cavity fluidly coupled to a gap,
Device for processing the end of a cable with an inner part and a sleeve surrounding the inner part, with means for radially widening a section of the sleeve and with a cutting device comprising a first cutting body and a second cutting body which can be moved towards one another in the axial direction with respect to the cable end, thus severing the radially widened section of the sleeve in one region, wherein the first cutting body penetrates into an opening of the second cutting body, cutting through the sleeve, wherein the device includes a foldback tube which can be inserted axially into the gap between the radially widened section of the sleeve and the inner part in order to bend over said section of the sleeve, characterised in that the foldback tube is connected, in a spring-loaded manner, with the first cutting body and is inserted into the gap through an axial movement of the first cutting body until the foldback tube reaches an axial stop and a further movement of the first cutting body takes place in a movement relative to the foldback tube wherein the first cutting body is tubular in form and, following the severing action, folds back the remaining radially widened section of the sleeve by sliding over the section of the cable adjacent the end which is to be processed.
A two-wheeled vehicle, comprising: a chassis; a first wheel carriage moveably coupled to, and longitudinally displaceable relative to the chassis; at least a first wheel rotationally mounted on the first wheel carriage, the first wheel coupled to the chassis through the first wheel carriage; a first linear actuator system coupled to the first wheel carriage, and configured to longitudinally displace the first wheel carriage relative to the chassis; a first motor mounted to the first wheel and the first wheel carriage, configured to provide a drive energy to the first wheel, and to be displaced along with the first wheel carriage as the first wheel is displaced by the first linear actuator system; a second wheel mounted on a second wheel carriage, the second wheel carriage disposed at a side of the two-wheeled vehicle opposite to the first wheel carriage; a second linear actuator system coupled to the second wheel carriage at a side of the two-wheeled vehicle opposite to the first linear actuator system, and configured to longitudinally displace the second wheel carriage relative to the chassis; and a second motor mounted to the second wheel and the second wheel carriage, configured to provide a drive energy to the second wheel, and to be displaced along with the second wheel carriage as the second wheel is displaced by second linear actuator system. a chassis; a first wheel carriage moveably coupled to, and longitudinally displaceable relative to the chassis; at least a first wheel rotationally mounted on the first wheel carriage, the first wheel coupled to the chassis through the first wheel carriage; a first linear actuator system coupled to the first wheel carriage, and configured to longitudinally displace the first wheel carriage relative to the chassis; a first motor mounted to the first wheel and the first wheel carriage, configured to provide a drive energy to the first wheel, and to be displaced along with the first wheel carriage as the first wheel is displaced by the first linear actuator system; a second wheel mounted on a second wheel carriage, the second wheel carriage disposed at a side of the two-wheeled vehicle opposite to the first wheel carriage; a second linear actuator system coupled to the second wheel carriage at a side of the two-wheeled vehicle opposite to the first linear actuator system, and configured to longitudinally displace the second wheel carriage relative to the chassis; and a second motor mounted to the second wheel and the second wheel carriage, configured to provide a drive energy to the second wheel, and to be displaced along with the second wheel carriage as the second wheel is displaced by second linear actuator system.
A process for treating waste water from an industrial process for producing propylene oxide, which process comprises subjecting the waste water to a catalytic wet oxidation treatment in the presence of a catalyst comprising metal nanoparticles-doped porous carbon beads, wherein the waste water treatment is carried out at a temperature in the range of from 120 to 300 °C and a pressure in the range of from 2 to 15 MPa, wherein the metal nanoparticles are incorporated within the beads, and wherein the catalyst has been prepared by a method comprising:- (i) preparing a mixture of one or more aromatic alcohol monomers and/or non-aromatic monomers, solvent, polymerization catalyst, crosslinking agent, suspension stabilizing agent and one or more metal salts, under conditions sufficient to produce polymeric beads doped with one or more metals or salts thereof; and (ii) carbonizing, activating and then reducing the polymeric beads produced in step (i) to produce metal nanoparticles-doped porous carbon beads. (i) preparing a mixture of one or more aromatic alcohol monomers and/or non-aromatic monomers, solvent, polymerization catalyst, crosslinking agent, suspension stabilizing agent and one or more metal salts, under conditions sufficient to produce polymeric beads doped with one or more metals or salts thereof; and (ii) carbonizing, activating and then reducing the polymeric beads produced in step (i) to produce metal nanoparticles-doped porous carbon beads.
A heat dissipation assembly, comprising: a shielding element, wherein the shielding element has a via hole, the shielding element is electrically connected to a ground copper of a printed circuit board, PCB,, and a heat-generating electronic element is disposed on the PCB; a heat pipe, located on the via hole, wherein the heat pipe is electrically connected to the shielding element, and the heat pipe, the PCB, and the shielding element form an electromagnetic shielding can that is used to accommodate the heat-generating electronic element; and a first elastic thermal interface material, located between the heat pipe and the heat-generating electronic element, and mutually fitted to the heat pipe and the heat-generating electronic element; wherein the heat dissipation assembly further comprises: a second elastic thermal interface material, mutually fitted to the heat pipe; and a thermally conductive metal block, disposed between the second elastic thermal interface material and the PCB, and mutually fitted to the second elastic thermal interface material, wherein the thermally conductive metal block is connected to the heat-generating electronic element by using a thermally conductive layer on the PCB. a shielding element, wherein the shielding element has a via hole, the shielding element is electrically connected to a ground copper of a printed circuit board, PCB,, and a heat-generating electronic element is disposed on the PCB; a heat pipe, located on the via hole, wherein the heat pipe is electrically connected to the shielding element, and the heat pipe, the PCB, and the shielding element form an electromagnetic shielding can that is used to accommodate the heat-generating electronic element; and a first elastic thermal interface material, located between the heat pipe and the heat-generating electronic element, and mutually fitted to the heat pipe and the heat-generating electronic element; wherein the heat dissipation assembly further comprises: a second elastic thermal interface material, mutually fitted to the heat pipe; and a thermally conductive metal block, disposed between the second elastic thermal interface material and the PCB, and mutually fitted to the second elastic thermal interface material, wherein the thermally conductive metal block is connected to the heat-generating electronic element by using a thermally conductive layer on the PCB. a second elastic thermal interface material, mutually fitted to the heat pipe; and a thermally conductive metal block, disposed between the second elastic thermal interface material and the PCB, and mutually fitted to the second elastic thermal interface material, wherein the thermally conductive metal block is connected to the heat-generating electronic element by using a thermally conductive layer on the PCB.