mhurhangee/ep-ind-claims huggingface dataset:
A holder management device comprising: a control device comprising a memory configured to store mounter information in correlation with tray information indicating a tray in which a component holder is accommodated, that can be used in the mounter indicated by the mounter information; a placement section on which the tray can be placed; a holder transfer device configured to transfer a component holder between the tray and a holder pallet, wherein the memory is configured to store mounter information indicating a mounter that is a target of a setup change task in correlation with holder information, which is information regarding a component holder to be accommodated in the tray during the setup change task, that is, a holder required during work in the mounter that is the target of the setup change task, and wherein the holder management device is configured to accommodate the holder on a tray, which is on the placement section, based on mounter information and by using the transfer device; and a display device configured to display information indicating a tray to be placed on the placement section together with information indicating a mounter, the information being stored in the memory in correlation with the information indicating the tray, and in a case where the memory stores information indicating multiple types of trays and mounters in correlation with each other, to display information indicating the multiple types of trays together with information indicating the mounters stored in the memory in correlation with the multiple types of trays. a control device comprising a memory configured to store mounter information in correlation with tray information indicating a tray in which a component holder is accommodated, that can be used in the mounter indicated by the mounter information; a placement section on which the tray can be placed; a holder transfer device configured to transfer a component holder between the tray and a holder pallet, wherein the memory is configured to store mounter information indicating a mounter that is a target of a setup change task in correlation with holder information, which is information regarding a component holder to be accommodated in the tray during the setup change task, that is, a holder required during work in the mounter that is the target of the setup change task, and wherein the holder management device is configured to accommodate the holder on a tray, which is on the placement section, based on mounter information and by using the transfer device; and a display device configured to display information indicating a tray to be placed on the placement section together with information indicating a mounter, the information being stored in the memory in correlation with the information indicating the tray, and in a case where the memory stores information indicating multiple types of trays and mounters in correlation with each other, to display information indicating the multiple types of trays together with information indicating the mounters stored in the memory in correlation with the multiple types of trays.
A power factor correction system, comprising: an adjustment module (1140-1; 1140-2) that generates N time advances based on N predetermined time advances and (N-1) time advance adjustments, wherein N is an integer greater than zero; a compensation module that generates N compensated versions of an input alternating current line signal by predicting ahead of the input AC line signal using a gradient of a sinusoidal reference signal and the N time advances, respectively, wherein the sinusoidal reference signal is synchronized with the input AC line signal in phase and frequency; and a duty cycle control module that generates PFC duty cycles based on the N compensated versions of the input AC line signal. an adjustment module (1140-1; 1140-2) that generates N time advances based on N predetermined time advances and (N-1) time advance adjustments, wherein N is an integer greater than zero; a compensation module that generates N compensated versions of an input alternating current line signal by predicting ahead of the input AC line signal using a gradient of a sinusoidal reference signal and the N time advances, respectively, wherein the sinusoidal reference signal is synchronized with the input AC line signal in phase and frequency; and a duty cycle control module that generates PFC duty cycles based on the N compensated versions of the input AC line signal.
A distributed control system comprising: a plurality of field controllers (2A, 2B) which are connected through a control network, wherein each of the field controllers (2A, 2B) is adapted to execute a control computation at a given control cycle and comprises: a control clock adapted to define a control timing of the field controller (2A, 2B); and an adjustment unit adapted to adjust a control time of the control clock depending on a network time obtained through the control network; wherein the adjustment unit is further adapted to synchronize the control time of the control clock with the network time; and wherein the adjustment unit is further adapted to change an advance speed of the control clock so as to synchronize the control time with the network time while maintaining continuity of a control computation at a controller; characterized in that if a difference between the control time and the network time is smaller than a threshold value which is an original control cycle of the field controller, the adjustment unit is further adapted to change the advance speed so as to synchronize the control time with the network time while maintaining the continuity of the control computation at the controller, and if the difference is larger than the threshold value, the adjustment unit is further adapted to discontinuously switch the control time to the network time. a control clock adapted to define a control timing of the field controller (2A, 2B); and an adjustment unit adapted to adjust a control time of the control clock depending on a network time obtained through the control network; wherein the adjustment unit is further adapted to synchronize the control time of the control clock with the network time; and wherein the adjustment unit is further adapted to change an advance speed of the control clock so as to synchronize the control time with the network time while maintaining continuity of a control computation at a controller; characterized in that if a difference between the control time and the network time is smaller than a threshold value which is an original control cycle of the field controller, the adjustment unit is further adapted to change the advance speed so as to synchronize the control time with the network time while maintaining the continuity of the control computation at the controller, and if the difference is larger than the threshold value, the adjustment unit is further adapted to discontinuously switch the control time to the network time.
An apparatus of the tobacco industry for rejection of defective rod-like articles from a mass flow of rod-like articles, comprising a monitoring unit adapted to optically determine geometrical parameters of rod-like articles, and at least one rejecting unit adapted to remove a rod-like article from the mass flow of rod-like articles, wherein the mass flow being transported on the conveyor, moreover the rejecting unit being placed behind the monitoring unit with reference to the direction of the mass flow of rod-like articles characterised in that the monitoring unit has optical recorders adapted to recording images of opposite side surfaces of the mass flow of rod-like articles on a conveyor, wherein said side surfaces are formed by front surfaces or rod-like articles moreover the apparatus comprises a controller adapted to identify defective rod-like articles (Rd) in the mass flow, and determine the position of the defective rod-like articles (Rd) in the mass flow, basing on the recorded images, using criteria concerning the geometrical parameters of the opposite front surfaces of rod-like articles, and determine the speed of the mass flow, moreover the controller adapted to generate the rejecting unit control signals based on a position of the defective rod-like articles (Rd) in the mass flow and the speed of the mass flow, and the rejecting unit comprises at least one rejecting element (201, 203, 204, 205, 205') adapted to reject the defective rod-like article (Rd), the rejection unit being adapted to move downstream of the mass flow in relation to the monitoring unit into a position enabling it to reject the defective rod-like article (Rd) and reject the defective rod-like article (Rd) as a response for control signals from the controller.
A method for communication between an LED module and an LED converter, characterized in that the LED module comprises a module communication device with an optoelectronic sensor for communication with the LED converter using a modulated optical signal, and wherein the optoelectronic sensor is adapted in order to be operated optionally as a receiver or transmitter, comprising: Generation of the modulated optical signal and transmission of the modulated optical signal between the LED module and the LED converter. Generation of the modulated optical signal and transmission of the modulated optical signal between the LED module and the LED converter.
A plate exchanger reactor, for implementing endothermic or exothermic catalytic reactions, including: - a reactor body, - a reactive circuit comprising a plurality of reactive channels with a rectangular cross-section comprising a catalyst, - a coolant circuit to cool the reactive channels, comprising a plurality of cooling channels with a rectangular cross-section, the cooling channels being oriented transversally relative to the reactive channels, characterised in that it further includes a plurality of enclosures for conditioning a catalyst, inserted one after the other into at least one reactive channel of the exchanger reactor, each enclosure including: - a main part for containing the catalyst, including an inner housing to receive the catalyst, said housing being open at at least two opposite ends (7a, 7b) of said housing, - two closure elements of said housing, respectively positioned at each of said at least two opposite ends (7a, 7b) of said housing to confine the catalyst inside said housing, the closure elements being porous to allow reactive gases to pass through the closure elements, said enclosures being in contact with each other through their closure elements', the main part being with a rectangular cross-section and including said housing with a rectangular cross-section open onto two opposite sides (7a, 7b), which are closed by the closure elements as rectangular plates. - a reactor body, - a reactive circuit comprising a plurality of reactive channels with a rectangular cross-section comprising a catalyst, - a coolant circuit to cool the reactive channels, comprising a plurality of cooling channels with a rectangular cross-section, the cooling channels being oriented transversally relative to the reactive channels, - a main part for containing the catalyst, including an inner housing to receive the catalyst, said housing being open at at least two opposite ends (7a, 7b) of said housing, - two closure elements of said housing, respectively positioned at each of said at least two opposite ends (7a, 7b) of said housing to confine the catalyst inside said housing, the closure elements being porous to allow reactive gases to pass through the closure elements, said enclosures being in contact with each other through their closure elements', the main part being with a rectangular cross-section and including said housing with a rectangular cross-section open onto two opposite sides (7a, 7b), which are closed by the closure elements as rectangular plates. said enclosures being in contact with each other through their closure elements', the main part being with a rectangular cross-section and including said housing with a rectangular cross-section open onto two opposite sides (7a, 7b), which are closed by the closure elements as rectangular plates.
A method for extinguishing a flame and terminating thermal runaway in a device powered by a lithium ion battery, which comprises: (a) providing an enclosure; (b) providing a device positioned within the enclosure, wherein the device comprises and is powered by a lithium ion battery; (c) providing a source of a thermal runaway termination agent, wherein the source comprises a container and a two-way control valve, wherein the container contains the thermal runaway termination agent, the two-way control valve is attached to an opening in the container, and the thermal runaway termination agent comprises inert gas and an amount of HFC-227ea that is sufficient to provide a concentration of at least 17% v/v of HFC-227ea when delivered to the enclosure; (d) providing a temperature sensitive tube containing an inert gas or a thermal runaway termination agent at a predetermined pressure and temperature suitable for normal operating conditions of the device, wherein the tube has two ends, wherein (i) one end is in communication with the control valve and the other end is capped, (ii) the tube is located within the enclosure and comprises a temperature sensor for detection of a threshold temperature, and (iii) the tube is disposed in proximity to the lithium ion battery; and (e) providing a heat stimulus, which generates a flame and initiates thermal runaway, whereupon the temperature sensitive tube ruptures, creating an opening in the temperature sensitive tube and causing release of the inert gas or thermal runaway termination agent within the temperature sensitive tube through the heat stimulus-created opening in the temperature sensitive tube and into the enclosure, resulting in a pressure drop within the temperature sensitive tube which actuates the control valve to deliver the thermal runaway termination agent from the storage container through the control valve to the temperature sensitive tube and out of the heat stimulus-created opening in the temperature sensitive tube and into the enclosure; wherein the delivery of the thermal runaway termination agent is characterized by a discharge time of at least 18 seconds, a HFC-227ea concentration of at least 17% v/v, and a hold time of 10 to 15 minutes or 15 to 30 minutes or 30 to 60 minutes that are sufficient to extinguish the flame and terminate thermal runaway and the hold time is sufficient to cool the enclosure and the lithium ion battery to a temperature sufficient to prevent reignition following the extinguishment of the flame.
Method for obtaining an air product (GOX-IC) using an air separation plant having a distillation column system (12, 38) and a tank system with a first tank and a second tank, in which a cryogenic liquid is withdrawn from the distillation column system (12, 38), is stored at least in part in the tank system, and is then used at least in part as the air product (GOX-IC), wherein the cryogenic liquid is supplied to the first tank and not to the second tank during a first period, and is supplied to the second tank and not to the first tank during a second period, and is withdrawn from the second tank and not from the first tank during the first period, and from the first tank and not from the second tank during the second period, characterized in that use is made, as the tank system, of a tank system having an additional third tank, and in that the cryogenic liquid which is withdrawn from the second tank during the first period, and from the first tank during the second period, is transferred at least partially unheated into the third tank, and in that the air product is provided at least in part by using the cryogenic liquid transferred, unheated, into the third tank, or part of this, wherein the cryogenic liquid from the third tank used for providing the air product (GOX-IC) is withdrawn from the third tank in the liquid state, is vaporized or converted from the liquid to the supercritical state, and is discharged from the air separation plant, and/or wherein the cryogenic liquid from the third tank used for providing the air product (GOX-IC) is withdrawn from the third tank in the liquid state and is stored in the liquid state in a fourth tank.
A foamable suspension gel, comprising: benzoyl peroxide as the sole active ingredient that is sparingly soluble to insoluble in water, suspended in an aqueous phase; one or more thickening agents; and an aerosol propellant; wherein the gel is aqueous, contains less than 1% by weight of oil and has a viscosity of 1000-20,000 centipoise at 25°C, and forms a homogeneous foam when dispensed from an aerosol container, and wherein the particle size of the active ingredient has an average diameter in the range of 0.5 to 100 μm. benzoyl peroxide as the sole active ingredient that is sparingly soluble to insoluble in water, suspended in an aqueous phase; one or more thickening agents; and an aerosol propellant; wherein the gel is aqueous, contains less than 1% by weight of oil and has a viscosity of 1000-20,000 centipoise at 25°C, and forms a homogeneous foam when dispensed from an aerosol container, and wherein the particle size of the active ingredient has an average diameter in the range of 0.5 to 100 μm.
D-cycloserine for use in the treatment of treatment-refractory depression in a subject in need thereof, by a daily oral dosage regimen consisting essentially of two active ingredients, wherein a first of said two active ingredients is D-cycloserine at a daily dosage of from about 500 mg/day - 1200 mg/day and wherein a second of said two active ingredients is venlafaxine or an antipsychotic agent, which antipsychotic agent is also approved for the treatment of depression.
A method for production of a boron-doped alumina catalyst supporting material for a catalyst that is suitable for use in a hydro processing application, characterized by comprising the steps of: - mixing aluminum alkoxide and C 1 -C 4 alcohol in order to obtain a solution such that the molarity of aluminum alkoxide in a mixing medium is 0.4-1; - heating the said solution to a temperature of 25-85°C; - adding into the heated solution a solution of a boron source selected from sodium tetraborate decahydrate, sodium metaborate, boron oxide and boric acid dissolved in water such that a mol ratio of 15-100 of water to aluminum alkoxide is obtained; - adding nitric acid into the resulting mixture in a mol ratio of 0.1-0.9 of nitric acid to aluminum alkoxide; - cooling the nitric acid added mixture, with stirring for 1-6 hours, to room temperature in order to obtain a gel; - aging the gel mixture by keeping it at room temperature for 48 hours; - drying the aged mixture at 100°C for 24 hours in order to obtain a particulate; - calcinating the resulting particulate at 500°C for 3 hours in order to obtain a boron-doped alumina catalyst supporting material in which the boron content of the synthesized boron-doped alumina catalyst supporting material is 1-5% by weight. - mixing aluminum alkoxide and C 1 -C 4 alcohol in order to obtain a solution such that the molarity of aluminum alkoxide in a mixing medium is 0.4-1; - heating the said solution to a temperature of 25-85°C; - adding into the heated solution a solution of a boron source selected from sodium tetraborate decahydrate, sodium metaborate, boron oxide and boric acid dissolved in water such that a mol ratio of 15-100 of water to aluminum alkoxide is obtained; - adding nitric acid into the resulting mixture in a mol ratio of 0.1-0.9 of nitric acid to aluminum alkoxide; - cooling the nitric acid added mixture, with stirring for 1-6 hours, to room temperature in order to obtain a gel; - aging the gel mixture by keeping it at room temperature for 48 hours; - drying the aged mixture at 100°C for 24 hours in order to obtain a particulate; - calcinating the resulting particulate at 500°C for 3 hours in order to obtain a boron-doped alumina catalyst supporting material in which the boron content of the synthesized boron-doped alumina catalyst supporting material is 1-5% by weight.
An interface and headgear assembly comprising: an interface comprising a frame and a seal supported by the frame; a headgear assembly removably connected to the interface, the headgear comprising a first strap configured to connect at a first end to the interface and at a second end to the interface, a crown strap connected to the first strap, the crown strap comprising a first bridge region and a second bridge region, the first bridge region defining a first passage that receives the first strap and the second bridge region defining a second passage that receives the first strap, wherein each of the first bridge region and the second bridge region is adjustable in position relative to the first strap, and wherein each of the first bridge region and the second bridge region comprises multiple supporting components configured to secure the first bridge region and the second bridge region, respectively, to the first strap, wherein the supporting components of each of the first bridge region and the second bridge region comprise a first loop and a second loop configured to receive the first strap, and wherein each of the first bridge region and the second bridge region further comprises a lower lip and at least one medial member positioned between the first loop and the second loop and extending vertically upward from the lower lip. an interface comprising a frame and a seal supported by the frame; a headgear assembly removably connected to the interface, the headgear comprising a first strap configured to connect at a first end to the interface and at a second end to the interface, a crown strap connected to the first strap, the crown strap comprising a first bridge region and a second bridge region, the first bridge region defining a first passage that receives the first strap and the second bridge region defining a second passage that receives the first strap, wherein each of the first bridge region and the second bridge region is adjustable in position relative to the first strap, and wherein each of the first bridge region and the second bridge region comprises multiple supporting components configured to secure the first bridge region and the second bridge region, respectively, to the first strap, wherein the supporting components of each of the first bridge region and the second bridge region comprise a first loop and a second loop configured to receive the first strap, and wherein each of the first bridge region and the second bridge region further comprises a lower lip and at least one medial member positioned between the first loop and the second loop and extending vertically upward from the lower lip.
Footwear comprising: an upper constructed and arranged to support a top portion of a foot; a tongue pivotally coupled to the upper, wherein the tongue is constructed and arranged to pivotally move relative to the upper between a first position and a second position; characterised in that the footwear comprises at least one resilient member (60, 62, 160, 162) coupled to the tongue to urge the tongue in desired positions, the positions being either the first position or the second position, wherein the at least one resilient member extends across the tongue from a medial side of the upper to a lateral side of the upper. an upper constructed and arranged to support a top portion of a foot; a tongue pivotally coupled to the upper, wherein the tongue is constructed and arranged to pivotally move relative to the upper between a first position and a second position; characterised in that the footwear comprises at least one resilient member (60, 62, 160, 162) coupled to the tongue to urge the tongue in desired positions, the positions being either the first position or the second position, wherein the at least one resilient member extends across the tongue from a medial side of the upper to a lateral side of the upper.