mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for controlling an electric compressor which drives the compressor constituting an air conditioner by using a motor, wherein the apparatus is configured for: processing for avoiding motor overload caused by a pressure difference of a refrigerant between the inlet side and the outlet side of the compressor by keeping the number of revolutions of the motor not higher than a preset first number of revolutions when the actuation of the motor is started; and processing for increasing the number of revolutions of the motor to a second number of revolutions not lower than the first number of revolutions, characterized in that in the processing for avoiding motor overload, a rate of rise S1 of the number of revolutions of the motor is set lower than a rate of rise S2 of the number of revolutions of the motor in the processing for increasing the number of revolutions of the motor to the second number of revolutions, and immediately after the actuation of the motor has been started, the number of revolutions of the motor is increased at a rate of rise S3 higher than the rate of rise S1 of the number of revolutions of the motor; and when a current supplied to drive the motor exceeds a preset threshold value, the processing shifts to the processing for avoiding motor overload after the actuation of the motor is suspended. processing for avoiding motor overload caused by a pressure difference of a refrigerant between the inlet side and the outlet side of the compressor by keeping the number of revolutions of the motor not higher than a preset first number of revolutions when the actuation of the motor is started; and processing for increasing the number of revolutions of the motor to a second number of revolutions not lower than the first number of revolutions, in the processing for avoiding motor overload, a rate of rise S1 of the number of revolutions of the motor is set lower than a rate of rise S2 of the number of revolutions of the motor in the processing for increasing the number of revolutions of the motor to the second number of revolutions, and immediately after the actuation of the motor has been started, the number of revolutions of the motor is increased at a rate of rise S3 higher than the rate of rise S1 of the number of revolutions of the motor; and when a current supplied to drive the motor exceeds a preset threshold value, the processing shifts to the processing for avoiding motor overload after the actuation of the motor is suspended.
A method for evaporating waste water and reducing acid gas emissions in a combustion flue gas comprising the steps of: adding an alkaline reagent to the waste water prior to the waste water being contacted with a first portion of the flue gas, transporting the first portion of the flue gas emitted by a combustion unit to an evaporator device such that the first portion of the flue gas bypasses a preheater and contacting the first portion of the flue gas with alkaline waste water to cool and humidify the flue gas and dry solid particulates within the waste water as the waste water evaporates, separating the solid particulates from the cooled and humidified flue gas using a particulate collector, feeding a portion of the separated solid particulates to the waste water prior to the waste water being contacted with the first portion of the flue gas, passing a second portion of the flue gas emitted by the combustion unit to the pre-heater to heat fluid before that fluid is fed to the combustion unit, and merging the cooled and humidified first portion of the flue gas with the second portion of the flue gas after the second portion of the flue gas has passed through the preheater and before the merged first and second portions of the flue gas are passed to the particulate collector for separating the solid particulates from the cooled and humidified flue gas. adding an alkaline reagent to the waste water prior to the waste water being contacted with a first portion of the flue gas, transporting the first portion of the flue gas emitted by a combustion unit to an evaporator device such that the first portion of the flue gas bypasses a preheater and contacting the first portion of the flue gas with alkaline waste water to cool and humidify the flue gas and dry solid particulates within the waste water as the waste water evaporates, separating the solid particulates from the cooled and humidified flue gas using a particulate collector, feeding a portion of the separated solid particulates to the waste water prior to the waste water being contacted with the first portion of the flue gas, passing a second portion of the flue gas emitted by the combustion unit to the pre-heater to heat fluid before that fluid is fed to the combustion unit, and merging the cooled and humidified first portion of the flue gas with the second portion of the flue gas after the second portion of the flue gas has passed through the preheater and before the merged first and second portions of the flue gas are passed to the particulate collector for separating the solid particulates from the cooled and humidified flue gas.
A composition for a polyurethane foam, comprising: (i) at least one polyol selected from a polyoxyalkylene polyol and a polymer polyol wherein polymer fine particles obtained by polymerizing a compound having an unsaturated bond are dispersed in the polyoxyalkylene polyol, (ii) a compound having a P=N bond, (iii) an antioxidant having a hydroxyphenyl group, (iv) at least one acid selected from the group consisting of an acyclic aliphatic monocarboxylic acid of 2 to 25 carbon atoms, a hydroxycarboxylic acid of 2 to 25 carbon atoms, a polycarboxylic acid of 20 to 60 carbon atoms, an aromatic monocarboxylic acid represented by the following formula, a sulfonic acid and an acid having a sulfuric acid ester group, or its salt, (v) a catalyst for polyurethane foam production, and (vi) a blowing agent, wherein R 1 is a hydrocarbon group, and m represents a number of hydrogen atoms of a benzene ring having been replaced with R 1 and is any one of 0 to 5, wherein a lower limit of the content ratio of the compound (ii) contained in the composition for a polyurethane foam, calculated from the charge of each component, is 50 ppm. (i) at least one polyol selected from a polyoxyalkylene polyol and a polymer polyol wherein polymer fine particles obtained by polymerizing a compound having an unsaturated bond are dispersed in the polyoxyalkylene polyol, (ii) a compound having a P=N bond, (iii) an antioxidant having a hydroxyphenyl group, (iv) at least one acid selected from the group consisting of an acyclic aliphatic monocarboxylic acid of 2 to 25 carbon atoms, a hydroxycarboxylic acid of 2 to 25 carbon atoms, a polycarboxylic acid of 20 to 60 carbon atoms, an aromatic monocarboxylic acid represented by the following formula, a sulfonic acid and an acid having a sulfuric acid ester group, or its salt, (v) a catalyst for polyurethane foam production, and (vi) a blowing agent, wherein R 1 is a hydrocarbon group, and m represents a number of hydrogen atoms of a benzene ring having been replaced with R 1 and is any one of 0 to 5, wherein a lower limit of the content ratio of the compound (ii) contained in the composition for a polyurethane foam, calculated from the charge of each component, is 50 ppm.
A submersible power generation system comprising a submersible power generator comprising an outer rotational armature and an inner rotational armature opposing the outer rotational armature to rotate in a direction opposite to a direction of rotation of the outer rotational armature, and a pair of propellers (4a, 4b) disposed coaxially with blades of one of the pair of propellers (4a, 4b) and blades of the other of the pair of propellers (4a, 4b) twisted in opposite directions relative to an extending direction of a central axis of the pair of propellers (4a, 4b), wherein one of the propellers (4a, 4b) is connected to the inner rotational armature and the other of the propellers (4a, 4b) is connected to the outer rotational armature, and further comprises a casing for accommodating the inner and the outer rotational armatures and shielding them from an external environment, wherein the submersible power generator, as installed under water to operate in a water current, has a buoyancy F acting thereon which is larger than gravity W acting thereon during operation of the submersible power generator, wherein, as seen on a meridian plane, a vertical plane including a rotational axis of the propellers, a rotational moment center, around which a sum total of rotational moments generated by buoyancy F acting on the submersible power generator, gravity W acting on the submersible power generator and drag D acting on the submersible power generator in a water current becomes zero, comes to be located on the casing, and wherein the submersible power generator is moored in water by a mooring wire connected to the casing rotatably around an axis passing through the rotational moment center and crossing the meridian plane at right angles, wherein the relation among buoyancy F, gravity W, gravity acting on the mooring wire and buoyancy acting on the mooring wire is set at F > W + gravity acting on the mooring wire - buoyancy acting on the mooring wire.
A culture medium for growth of epithelial cells capable of being used to manufacture regenerated hair follicle germs, the culture medium comprising basal medium and at least through, below: at least one species of bone morphogenetic protein inhibitor; at least one species of fibroblast growth factor; and at least one species of sonic hedgehog and/or SHH agonist. at least one species of bone morphogenetic protein inhibitor; at least one species of fibroblast growth factor; and at least one species of sonic hedgehog and/or SHH agonist.
An actuator device for converting an electrical input into a mechanical output comprising: an electroactive polymer actuator; and a control circuit for driving the electroactive polymer actuator, wherein the control circuit comprises a voltage boosting circuit which comprises at least a capacitor, wherein the actuator device comprises an electroactive polymer layer having an active region for deforming as a function of an applied actuation signal, wherein the active region forms at least a part of the electroactive polymer actuator, characterised in that the actuator device further comprises a mechanically passive region, wherein the mechanically passive region forms at least a part of the dielectric of the capacitor. an electroactive polymer actuator; and a control circuit for driving the electroactive polymer actuator, wherein the control circuit comprises a voltage boosting circuit which comprises at least a capacitor, wherein the actuator device comprises an electroactive polymer layer having an active region for deforming as a function of an applied actuation signal, wherein the active region forms at least a part of the electroactive polymer actuator, characterised in that the actuator device further comprises a mechanically passive region, wherein the mechanically passive region forms at least a part of the dielectric of the capacitor.
A tamper-evidentclosure for a container, the closure comprising: - a first portion (25, 30, 37) including inner and outer parts (25, 30); and - a se c o nd p o rtio n (20, 36); the outer part is rotatable relative to the inner part from a first position in which at least part of the first and second portions (2, 5, 30, 37, 20, 36) are adjacent each other to a second position in which there is a gap therebetween, the first portion (25, 30, 37) comprises locking means for irreversibly locking the closure in the second position upon first opening so that the gap cannot be closed, characterized in that the inner part includes a line of weakness which breaks if the outer part is reverse rotated re la tive to the inner part. - a first portion (25, 30, 37) including inner and outer parts (25, 30); and - a se c o nd p o rtio n (20, 36);
A back-contact solar cell module, comprising a plurality of cells and a plurality of connecting ribbons; wherein, auxiliary gate electrodes for collecting currents are provided on the front side of each cell; a plurality of current collection holes are provided on a substrate of each cell; a plurality of main gate electrodes for gathering currents of the auxiliary gate electrodes and a back side electrode for leading out the currents are provided on the back side of each cell; wherein in each cell the auxiliary gate electrodes are connected to the main gate electrodes via the current collection holes; the main gate electrodes, located on the back side of the cell and in one-to-one correspondence with positions of current collection holes, are arranged linearly, parallel to the back side electrode, characterized in that, the back side electrode is linear; the back side electrode and the main gate electrodes are located at two ends of the back side of the cell respectively; the plurality of cells are arranged in parallel in columns, defining cell columns, between two adjacent cells, the main gate electrodes of one cell are arranged adjacent to the back side electrode of the other cell; the main gate electrodes of one cell are fixedly connected to the back side electrode of the other adjacent cell via the connecting ribbon, and wherein the soldering direction of the connecting ribbon is orthogonal to the length direction of the cell columns.
A process for preparing a zeolitic material having a framework structure comprising YO 2 and optionally comprising X 2 O 3, wherein Y is Si or Si and Ti, and wherein X is Al, said process comprising (i) preparing a mixture comprising a source of YO 2, optionally a source of X 2 O 3, and a liquid solvent system; (ii) feeding the mixture prepared in (i) as the reaction mixture into a reactor; (iii) heating the reaction mixture in the reactor for obtaining a reacted mixture containing a zeolitic material having a framework structure comprising YO 2 and optionally comprising X 2 O 3; and (iv) collecting the reacted mixture obtained in (iii) containing the zeolitic material as the effluent from the reactor; wherein the reactor is a Taylor-Couette reactor comprising an inner cylinder and an outer cylinder which are coaxially aligned. (i) preparing a mixture comprising a source of YO 2, optionally a source of X 2 O 3, and a liquid solvent system; (ii) feeding the mixture prepared in (i) as the reaction mixture into a reactor; (iii) heating the reaction mixture in the reactor for obtaining a reacted mixture containing a zeolitic material having a framework structure comprising YO 2 and optionally comprising X 2 O 3; and (iv) collecting the reacted mixture obtained in (iii) containing the zeolitic material as the effluent from the reactor;
An apparatus for producing nonwovens from continuous filaments, wherein at least one spinning device for spinning said filaments is provided, wherein the filaments are cooled and stretched and wherein a deposition device is provided for depositing the stretched filaments to form the nonwoven, wherein the deposition device is implemented in the form of a foraminous belt having a plurality of foraminous belt openings distributed over the foraminous belt surface, wherein air can be sucked through the foraminous belt surface or through the foraminous belt openings and wherein at least one extraction fan is arranged underneath the foraminous belt, wherein a portion of the foraminous belt openings is configured to be plugged, wherein the air permeability of the unplugged foraminous belt is between 300 to 1100 cfm (510 to 1870 m 3 /h), preferably 350 to 1050 cfm (595 to 1785 m 3 /h) and preferably 400 to 1000 cfm (680 to 1700 m 3 /h), wherein the air permeability of the partially plugged foraminous belt is 150 to 700 cfm (255 to 1190 m 3 /h), preferably 250 to 600 cfm (425 to 1020 m 3 /h) and preferably 350 to 500 cfm (595 to 850 m 3 /h) wherein the plugging mass of the plugged points is arranged in and/or underneath the foraminous belt surface and does not project beyond the foraminous belt surface or projects by a maximum of 1.0 mm, preferably by a maximum of 0.8 mm, very preferably by a maximum of 0.6 mm and particularly preferably by a maximum of 0.3 to 0.6 mm beyond the foraminous belt surface.
A storage method for a liquid comprising the steps of (a) preparing a preservative material by spinning a water-insoluble polymer to produce a nanofiber material having a plurality of pores, wherein nanofibers making up said nanofiber material have an average fiber diameter of 10 to 800 nm, and the diameter of the pores in said nanofiber material is from 0.001 to 100 μm, said nanofiber material being without added antibacterial agents but having antibacterial activities for liquid; and (b) contacting the liquid with the preservative material.
A fan slider (28, 128) for mounting on a gas turbine engine, the fan slider (28, 128) comprising a body (30, 130) formed with a polymer, and a coating (32, 132) disposed on the exterior surface (34, 134) of the body (30, 130), the coating (32, 132) comprising nanocrystalline metallic material, wherein nanocrystalline is defined as polycrystalline having a grain size of 100 nm or less, characterized in that the body includes a plurality of bores defined therein and extending through the body between an upper surface and a lower surface, wherein the coating (32, 132) is disposed within the bores to fill the bores and provide reinforcement pins that extend through the body (30, 130).
A flow sensor assembly, comprising: a housing defining: an inlet port connected to an inlet flow channel; an outlet port connected to an outlet flow channel; a top flowtube including the inlet port connected to the inlet flow channel and the outlet port connected to the outlet flow channel; a bottom flowtube with a shroud; an electronic circuit board; and a flow sensor included in the electronic circuit board; and wherein the housing is configured such that the top flowtube and the bottom flowtube are capable of being overlaid on the electronic circuit board; wherein the shroud includes a step less than a height of the flow sensor and the shroud is configured to guide fluid flow over the flow sensor and reduce turbulence, wherein the bottom flowtube acts as a cover over the electronic circuit board, and characterized in that the bottom flowtube includes a molded-in channel, and wherein the bottom flow tube includes a ramp which allows fluid to flow over the flow sensor. an inlet port connected to an inlet flow channel; an outlet port connected to an outlet flow channel; a top flowtube including the inlet port connected to the inlet flow channel and the outlet port connected to the outlet flow channel; a bottom flowtube with a shroud; an electronic circuit board; and a flow sensor included in the electronic circuit board; and wherein the housing is configured such that the top flowtube and the bottom flowtube are capable of being overlaid on the electronic circuit board; wherein the shroud includes a step less than a height of the flow sensor and the shroud is configured to guide fluid flow over the flow sensor and reduce turbulence, wherein the bottom flowtube acts as a cover over the electronic circuit board, and characterized in that the bottom flowtube includes a molded-in channel, and wherein the bottom flow tube includes a ramp which allows fluid to flow over the flow sensor.
Modular display system comprising - at least two display cubes comprising a bottom surface, two side surfaces and a top surface, wherein the side surfaces have A-connectors, the bottom surface has B-connectors, and the top surface has D-receptacles, and - at least two L-pillars comprising two L-shaped side surfaces, an outer and an inner back surface, an outer and an inner top surface and a transverse surface, characterized in that the inner back surface of one L-pillar has A-receptacles and C-connectors, the outer top surface has C-receptacles, and the transverse surface has D-connectors, and the L-pillars are joined into an S-shaped sheath and the display cubes are arranged inside of the S-shaped sheath. - at least two display cubes comprising a bottom surface, two side surfaces and a top surface, wherein the side surfaces have A-connectors, the bottom surface has B-connectors, and the top surface has D-receptacles, and - at least two L-pillars comprising two L-shaped side surfaces, an outer and an inner back surface, an outer and an inner top surface and a transverse surface,
A process for producing a thermosetting resin varnish containing a thermosetting resin composition, which contains an uncured semi-IPN composite, an inorganic filler, and a saturated thermoplastic elastomer, the process comprising the steps of: (i) preliminary reacting a butadiene polymer which contains in the molecule thereof 40% or more of a 1,2-butadiene unit having a 1,2-vinyl group in the side chain thereof, and which is not chemically modified and a crosslinking agent, in the presence of a polyphenylene ether to obtain a polyphenylene ether-modified butadiene prepolymer which is an uncured semi-IPN composite; (ii) mixing together an inorganic filler and a saturated thermoplastic elastomer to obtain a mixture; and (iii) mixing together the obtained mixture and the polyphenylene ether-modified butadiene prepolymer. (i) preliminary reacting a butadiene polymer which contains in the molecule thereof 40% or more of a 1,2-butadiene unit having a 1,2-vinyl group in the side chain thereof, and which is not chemically modified and a crosslinking agent, in the presence of a polyphenylene ether to obtain a polyphenylene ether-modified butadiene prepolymer which is an uncured semi-IPN composite; (ii) mixing together an inorganic filler and a saturated thermoplastic elastomer to obtain a mixture; and (iii) mixing together the obtained mixture and the polyphenylene ether-modified butadiene prepolymer.
An apparatus (100, 200, 300) for fabricating a container (101, 202, 302), comprising an injection head configured to establish fluid communication between an injection liquid source and a preform cavity (107A, 201A, 301A) of a substantially tubular preform (101A, 202A, 302A) through a nozzle of said injection head, a longitudinal axis of said injection head being substantially vertically oriented and passing through said nozzle, characterized in that said apparatus (100, 200, 300) further comprises a plurality of infrared-emitting elements (113, 204, 304) disposed so as to project infrared radiation (115, 207, 306) into an expansion zone (110, 208, 307), said expansion zone (110, 208, 307) being disposed adjacent to said nozzle and about said longitudinal axis of said injection head, and configured to accommodate said preform (101A, 202A, 302A) when said preform cavity (107A, 201A, 301A) is disposed in fluid communication with said nozzle of said injection head.
Automatic control system for mechanical ventilation of a patient based on the automation of a manual ventilator bag wherein the system comprises a programmable logic controller, a stepper cylinder, an actuator and a servomotor associated to the cylinder, such that translation of the cylinder step by step by means of the servomotor and the actuator associated with the cylinder compresses the ventilator bag in response to signals sent by the programmable logic controller wherein said programmable logic controller is connected to the servomotor and to at least one flow sensor and one pressure sensor and has a human-machine interface for the insertion of pressure and oxygen flow output values to be received by a patient, wherein the controller is adapted to modify the compression received by the mechanical ventilation device based on the sensor input and output values entered into the interface, characterised in that the controller and the sensors are connected via a TCP/IP communication network where the exchange of packets is done in a deterministic way guaranteeing the quality of service, and via a switch, wherein the switch performs passive link functions between the devices.