mhurhangee/ep-ind-claims huggingface dataset:
A particulate metering system, the system comprising: a plurality of particulate accelerators, each comprising: an air input receiving an air flow from an air production system; a plurality of air-particulate interfaces (340, 634), each of the air-particulate interfaces receiving particulate from a different one of a plurality of particulate containers (202, 203) via separate operated conveyances; a particulate-air mixing area comprising a confluence of the air flow from the air input and the particulate from the plurality of air-particulate interfaces; and an air-particulate output associated with a separate discharge of a plurality of discharges; wherein each operated conveyance is associated with one of the particulate containers (202, 203) and has a separate discharge at one air-particulate interface of one particulate accelerator; wherein one or more metering controls are in operative communication with the plurality of operated conveyances for controlling the amount of one or more types of particulate metered across the plurality of air-particulate interfaces. a plurality of particulate accelerators, each comprising: an air input receiving an air flow from an air production system; a plurality of air-particulate interfaces (340, 634), each of the air-particulate interfaces receiving particulate from a different one of a plurality of particulate containers (202, 203) via separate operated conveyances; a particulate-air mixing area comprising a confluence of the air flow from the air input and the particulate from the plurality of air-particulate interfaces; and an air-particulate output associated with a separate discharge of a plurality of discharges; an air input receiving an air flow from an air production system; a plurality of air-particulate interfaces (340, 634), each of the air-particulate interfaces receiving particulate from a different one of a plurality of particulate containers (202, 203) via separate operated conveyances; a particulate-air mixing area comprising a confluence of the air flow from the air input and the particulate from the plurality of air-particulate interfaces; and an air-particulate output associated with a separate discharge of a plurality of discharges; wherein each operated conveyance is associated with one of the particulate containers (202, 203) and has a separate discharge at one air-particulate interface of one particulate accelerator; wherein one or more metering controls are in operative communication with the plurality of operated conveyances for controlling the amount of one or more types of particulate metered across the plurality of air-particulate interfaces.
A method of reducing tonal noise emissions of a wind turbine, the method comprising: receiving data indicative of wind conditions in the vicinity of the wind turbine; determining an operational set point signal in accordance with a desired operation of the wind turbine, the operational set point signal being determined in dependence on the received data; applying a perturbation signal to the operational set point signal to obtain a modified operational set point signal; and, controlling operation of the wind turbine using the modified operational set point signal to reduce noise emissions of the wind turbine, wherein the perturbation signal is applied such that the modified operational set point signal has greater temporal variation than the operational set point signal. noise emissions of a wind turbine, the method comprising: receiving data indicative of wind conditions in the vicinity of the wind turbine; determining an operational set point signal in accordance with a desired operation of the wind turbine, the operational set point signal being determined in dependence on the received data; applying a perturbation signal to the operational set point signal to obtain a modified operational set point signal; and, controlling operation of the wind turbine using the modified operational set point signal to reduce noise emissions of the wind turbine, receiving data indicative of wind conditions in the vicinity of the wind turbine; determining an operational set point signal in accordance with a desired operation of the wind turbine, the operational set point signal being determined in dependence on the received data; applying a perturbation signal to the operational set point signal to obtain a modified operational set point signal; and, controlling operation of the wind turbine using the modified operational set point signal to reduce noise emissions of the wind turbine, wherein the perturbation signal is applied such that the modified operational set point signal has greater temporal variation than the operational set point signal.
A method of manufacturing a polymer film, the method comprising: melting a resin; extruding the melted resin through a die to produce a polymer film; shaping the polymer film; cooling the polymer film; capturing an image of a test pattern through the polymer film; calculating a modulation transfer function value from the image; and characterised by continuously adjusting a process parameter of the melting, the extruding, the shaping, or the cooling based on the calculated modulation transfer function value. melting a resin; extruding the melted resin through a die to produce a polymer film; shaping the polymer film; cooling the polymer film; capturing an image of a test pattern through the polymer film; calculating a modulation transfer function value from the image; and characterised by continuously adjusting a process parameter of the melting, the extruding, the shaping, or the cooling based on the calculated modulation transfer function value.
An automatic cell cultivation apparatus having a multijoint robot, comprising a cultivation apparatus main body arranged to cultivate cells in one or more culture containers, the cultivation apparatus main body being equipped with one or more incubators accommodating the one or more culture containers, a chemical suction machine arranged to suck chemicals out of the or each culture container, and a multijoint robot arranged to convey the or each culture container, characterised in that the multijoint robot is configured to convey a culture container, detach and attach the lid of a culture container, and incline a container when sucking chemicals out of the culture container.
A cold spray apparatus for applying a coating of particles to a substrate comprising: a nozzle assembly comprising a plurality of nozzles, each nozzle having an inner passage, the inner passage extending in a flow direction from a convergent section adjacent a nozzle entrance through a throat to a divergent section adjacent a nozzle exit, wherein the inner passage of each nozzle terminates at a common nozzle exit for the entire assembly; a gas supply member configured for supplying a gas to inner passage of each nozzle to flow through the inner passage of the nozzle and accelerate through inner passage by passage through the convergent section, the throat, and the divergent section of the inner passage; a particle supply member in direct communication with the inner passage of each nozzle, the particle supply member configured for supplying the particles to flow in the gas supplied by the gas supply member and out of the nozzle via the nozzle exit toward the substrate to coat the substrate; wherein a laser source is provided that emits a laser beam that is transmitted through the inner passage of each nozzle containing the supplied gas, the laser heating the particles below the particles' melting point and heating the substrate to promote cold spray coating of the substrate with the particles; wherein the nozzle assembly has a substantially rectangular nozzle geometry including side powder injection points (13a, 13b; 28a, 28b) located in the divergent section of the inner passage; and wherein the laser source is configured to effect a coaxial laser coupling. a nozzle assembly comprising a plurality of nozzles, each nozzle having an inner passage, the inner passage extending in a flow direction from a convergent section adjacent a nozzle entrance through a throat to a divergent section adjacent a nozzle exit, wherein the inner passage of each nozzle terminates at a common nozzle exit for the entire assembly; a gas supply member configured for supplying a gas to inner passage of each nozzle to flow through the inner passage of the nozzle and accelerate through inner passage by passage through the convergent section, the throat, and the divergent section of the inner passage; a particle supply member in direct communication with the inner passage of each nozzle, the particle supply member configured for supplying the particles to flow in the gas supplied by the gas supply member and out of the nozzle via the nozzle exit toward the substrate to coat the substrate; wherein a laser source is provided that emits a laser beam that is transmitted through the inner passage of each nozzle containing the supplied gas, the laser heating the particles below the particles' melting point and heating the substrate to promote cold spray coating of the substrate with the particles; wherein the nozzle assembly has a substantially rectangular nozzle geometry including side powder injection points (13a, 13b; 28a, 28b) located in the divergent section of the inner passage; and wherein the laser source is configured to effect a coaxial laser coupling.
A method of fabricating a vacuum insulated refrigerator structure, the method comprising: injection molding a first layer of a first thermoplastic polymer material; injection molding a second layer of a second thermoplastic polymer material over at least a portion of the first layer; injection molding a third layer of a third thermoplastic polymer material over at least a portion of the second layer to form a first component (18, 20, 22); securing a second component (18, 20, 22) to the first component (18, 20, 22) to form a vacuum cavity therebetween; filling the vacuum cavity with a porous material; evacuating the vacuum cavity; wherein at least one of the first and third layers (38, 42) includes at least one structural reinforcement (28, 52, 54, 56) of increased thickness formed during the injection molding process, and wherein at least one of the first, second, and third polymer materials is impervious to at least one atmospheric gas. injection molding a first layer of a first thermoplastic polymer material; injection molding a second layer of a second thermoplastic polymer material over at least a portion of the first layer; injection molding a third layer of a third thermoplastic polymer material over at least a portion of the second layer to form a first component (18, 20, 22); securing a second component (18, 20, 22) to the first component (18, 20, 22) to form a vacuum cavity therebetween; filling the vacuum cavity with a porous material; evacuating the vacuum cavity; wherein at least one of the first and third layers (38, 42) includes at least one structural reinforcement (28, 52, 54, 56) of increased thickness formed during the injection molding process, and wherein at least one of the first, second, and third polymer materials is impervious to at least one atmospheric gas.
An interlayer comprising: a layer comprising a poly(vinyl acetal) resin, wherein said resin layer exhibits a peel adhesion retention to glass of at least 25 percent after exposure to 95% relative humidity at 50 °C for 1 week, wherein said layer further comprises at least one silanol-containing adhesion stabilizing agent, wherein said layer comprises one or more surface-treated locations exhibiting a silanol concentration gradient that is such that a surface concentration of elemental silicon is greater than a mid-thickness concentration of elemental silicon.
A compound of formula: or a pharmaceutically acceptable salt thereof, wherein: A and B are C 1 -C 6 alkyl, mono- to per-halo C 1 -C 6 alkyl, -(CH 2) n M, -C≡N, or with the proviso that: ▪ A is different from B, ▪ when one of A and B is methyl, the other is not -CF 3, and ▪ when one of A and B is C 2 -C 6 alkyl, the other is not C 2 -C 6 fluoroalkyl; n is 1 to 3; R 1 is R 2 is the same or different, preferably the same, and is C 1 -C 6 alkyl; M is -OR 3, -SR 3, aryl, -C OR 3, or -OC R 4; R 3 is -H, C 1 -C 6 alkyl, aryl, aryl-C 1 -C 6 alkyl, C 1 -C 6 alkylaryl, wherein each of the alkyl and aryl groups is optionally substituted with one or more groups selected from halo, mono- to per-halo C 1 -C 6 alkyl, -CN, -C OH, -C OR 4, -N 3, -C 1 -C 6 alkyl-C OR 4, -CF 3, -C 1 -C 6 alkyl-N 3, and -SiF 5; R 4 is C 1 -C 6 alkyl, aryl, heteroaryl, C 1 -C 6 alkylaryl, aryl-C 1 -C 6 alkyl, wherein each of the alkyl, aryl and heteroaryl groups is optionally substituted with one or more groups selected from halo, -CN, alkynyl, alkynyloxy, -C OH, -N 3, -CF 3, -C 1 -C 6 alkyl-N 3, -SiF 5, -NH 2, and -NHR 3; C and D are independently -H, halo, azido, -OR 3, -CN, or -CF 3; X is O or S; and Base is: R 5 is -H, -C -C 1 -C 4 alkyl, aryl, alkylaryl, or arylalkyl, wherein each of the alkyl and aryl group is optionally substituted with one or more groups selected from halo, -R 4, -CF 3, and -N 3. A and B are C 1 -C 6 alkyl, mono- to per-halo C 1 -C 6 alkyl, -(CH 2) n M, -C≡N, or with the proviso that: ▪ A is different from B, ▪ when one of A and B is methyl, the other is not -CF 3, and ▪ when one of A and B is C 2 -C 6 alkyl, the other is not C 2 -C 6 fluoroalkyl; ▪ A is different from B, ▪ when one of A and B is methyl, the other is not -CF 3, and ▪ when one of A and B is C 2 -C 6 alkyl, the other is not C 2 -C 6 fluoroalkyl; n is 1 to 3; R 1 is R 2 is the same or different, preferably the same, and is C 1 -C 6 alkyl; M is -OR 3, -SR 3, aryl, -C OR 3, or -OC R 4; R 3 is -H, C 1 -C 6 alkyl, aryl, aryl-C 1 -C 6 alkyl, C 1 -C 6 alkylaryl, wherein each of the alkyl and aryl groups is optionally substituted with one or more groups selected from halo, mono- to per-halo C 1 -C 6 alkyl, -CN, -C OH, -C OR 4, -N 3, -C 1 -C 6 alkyl-C OR 4, -CF 3, -C 1 -C 6 alkyl-N 3, and -SiF 5; R 4 is C 1 -C 6 alkyl, aryl, heteroaryl, C 1 -C 6 alkylaryl, aryl-C 1 -C 6 alkyl, wherein each of the alkyl, aryl and heteroaryl groups is optionally substituted with one or more groups selected from halo, -CN, alkynyl, alkynyloxy, -C OH, -N 3, -CF 3, -C 1 -C 6 alkyl-N 3, -SiF 5, -NH 2, and -NHR 3; C and D are independently -H, halo, azido, -OR 3, -CN, or -CF 3; X is O or S; and Base is: R 5 is -H, -C -C 1 -C 4 alkyl, aryl, alkylaryl, or arylalkyl, wherein each of the alkyl and aryl group is optionally substituted with one or more groups selected from halo, -R 4, -CF 3, and -N 3.
An analysis tool (1; 1'; 1") comprising: a reagent portion; and a first electrode sheet (3, 3'; 3") and a second electrode sheet (5; 5'; 5") and the analysis tool further comprises an insulating sheet (4; 4'; 4") interposed between the first and second electrode sheets, wherein the first electrode sheet and the second electrode sheet include a porous conductive portion where the reagent portion is formed, further comprising first (2; 2'; 2") and second cover sheets (6; 6', 6") between which the first and second electrode sheets are interposed, wherein the first cover sheet, the first electrode sheet, the insulating sheet, the second electrode sheet, and the second cover sheet are stacked in this order, and at least one of the first and second cover sheets has a hole (20, 21; 21, 22'; 20, 21, 22"; 60, 61; 61, 62'; 61) for exposing the first and second electrode sheets, characterized in that a hydrophobic area is formed in a region surrounding a circumference of the reagent portion, and wherein a hydrophilic area is formed in a region where the reagent portion is provided. a reagent portion; and a first electrode sheet (3, 3'; 3") and a second electrode sheet (5; 5'; 5") and the analysis tool further comprises an insulating sheet (4; 4'; 4") interposed between the first and second electrode sheets, wherein the first electrode sheet and the second electrode sheet include a porous conductive portion where the reagent portion is formed, further comprising first (2; 2'; 2") and second cover sheets (6; 6', 6") between which the first and second electrode sheets are interposed, wherein the first cover sheet, the first electrode sheet, the insulating sheet, the second electrode sheet, and the second cover sheet are stacked in this order, and at least one of the first and second cover sheets has a hole (20, 21; 21, 22'; 20, 21, 22"; 60, 61; 61, 62'; 61) for exposing the first and second electrode sheets, characterized in that a hydrophobic area is formed in a region surrounding a circumference of the reagent portion, and wherein a hydrophilic area is formed in a region where the reagent portion is provided.
Pump electronics of a pump assembly as part of technical building equipment, comprising a circuit configuration for processing an output signal (U E, I E, U T, U PWM, U IW) of a device (31, 32, 33, 34, 35), with a multifunctional input comprising two connections (2a, 2b) for the connection of the device (31, 32, 33, 34, 35), in which the circuit configuration can be operated in at least two different modes and at least three different device types with different kinds of output signals can be connected to the input, and having an internal circuit of the input with at least one controllable switch (7, 10, 13, 24, 27) to change the internal circuit depending on the connected device type, in which one of the modes is a mode where a PT100 or PT1000 as a resistance thermometer can be connected to the input, and where a current source that can be activated with a switch is connected to the input to supply the resistance thermometer with a measuring current and to generate a voltage signal (U T) as the output signal, and in which an analogue-digital converter is connected to the input to record the voltage across the resistance thermometer.
A blocking device for the car of an elevator system comprising a latch, a latch guide body, a position switch and a latch receiver, wherein the latch lies displaceably in the latch guide body and, in an extended state, can engage in a latch receiving opening of the latch receiver when the latch is at a correspondingly aligned height with respect to the latch receiving opening of the latch receiver, the latch receiver being mountable on a car guide rail, and the latch guide body, which preferably carries the latch and the position switch, being mountable on a sling of the car, characterized in that the latch receiver is at least partially designed as a Z-profile or step-profile having a longer and a shorter horizontal leg.
A motion compensation system for controlling relative movements between a floating vessel and an elongate element, where the elongate element is suspended by the vessel at a first end and extends into a body of water below the floating vessel; - an active motion compensator connected to the elongate element first end via an element arranged in an upper region of an erect support structure, and - a passive motion compensator (12a,b) connected to the elongate element first end via the element, characterized in that the motion compensators (8, 12a,b) are structurally and operationally separate and independent units and are configured for separate and mutually independent operation, and wherein the active motion compensator is configured for being at rest in a static state when the passive motion compensator (12a,b) is in operation, and vice versa. - an active motion compensator connected to the elongate element first end via an element arranged in an upper region of an erect support structure, and - a passive motion compensator (12a,b) connected to the elongate element first end via the element, characterized in that the motion compensators (8, 12a,b) are structurally and operationally separate and independent units and are configured for separate and mutually independent operation, and wherein the active motion compensator is configured for being at rest in a static state when the passive motion compensator (12a,b) is in operation, and vice versa.
A stroke-controlled balancing device for hydraulic braking systems, comprising: - a balancing duct of the braking system, - a normally closed balancing valve, configured, in use, to maintain a connection between the hydraulic braking system and the balancing duct either closed or open, - a stem (107, 108) having an external surface and an internal surface, a balancing channel being provided on said internal surface, said balancing channel being configured to contain brake fluid and being hydraulically connected to the balancing duct, characterized in that said balancing valve comprises a gasket, a case and a bushing, said gasket being fitted on said case and being configured to slide, in use, along said external surface of said stem (107, 108) in order to open the connection between the braking system and the balancing duct. - a balancing duct of the braking system, - a normally closed balancing valve, configured, in use, to maintain a connection between the hydraulic braking system and the balancing duct either closed or open, - a stem (107, 108) having an external surface and an internal surface, a balancing channel being provided on said internal surface, said balancing channel being configured to contain brake fluid and being hydraulically connected to the balancing duct,
A mobile station in a wireless communication network, comprising: a radio communication unit configured to communicate with a target base station via a communication channel formed by aggregating first and second component carriers, transmit an access request message to the target base station via the first component carrier, and receive a timing adjustment value in response to the access request message from the target base station; an adjustment value storage unit configured to store the timing adjustment value; and a control unit configured to adjust access timing corresponding to the second component carrier based on the timing adjustment value stored in the adjustment value storage unit, to control a handover from a source base station to the target base station characterized in that the control unit is further configured to skip a random access to the target base station on the second component carrier, when the second component carrier is within a predetermined frequency range of the first component carrier. a radio communication unit configured to communicate with a target base station via a communication channel formed by aggregating first and second component carriers, transmit an access request message to the target base station via the first component carrier, and receive a timing adjustment value in response to the access request message from the target base station; an adjustment value storage unit configured to store the timing adjustment value; and a control unit configured to adjust access timing corresponding to the second component carrier based on the timing adjustment value stored in the adjustment value storage unit, to control a handover from a source base station to the target base station characterized in that the control unit is further configured to skip a random access to the target base station on the second component carrier, when the second component carrier is within a predetermined frequency range of the first component carrier.