mhurhangee/ep-ind-claims huggingface dataset:
A fuel cell system comprising: a fuel cell that includes an anode and a cathode and generates electricity by reducing a mediator at the cathode; a regenerator that oxidizes the mediator reduced by the cathode; a first path that leads from the cathode to the regenerator and through which the mediator reduced by and discharged from the cathode is guided to the regenerator; a second path that leads from the regenerator to the cathode and through which the mediator oxidized at the regenerator is returned to the cathode; and a first heat exchanger that exchanges heat between a first fluid and a second fluid, the first fluid being a fluid flowing in the first path and containing the mediator reduced by cathode, and the second fluid being a fluid flowing in the second path and containing the mediator oxidized at the regenerator. a fuel cell that includes an anode and a cathode and generates electricity by reducing a mediator at the cathode; a regenerator that oxidizes the mediator reduced by the cathode; a first path that leads from the cathode to the regenerator and through which the mediator reduced by and discharged from the cathode is guided to the regenerator; a second path that leads from the regenerator to the cathode and through which the mediator oxidized at the regenerator is returned to the cathode; and a first heat exchanger that exchanges heat between a first fluid and a second fluid, the first fluid being a fluid flowing in the first path and containing the mediator reduced by cathode, and the second fluid being a fluid flowing in the second path and containing the mediator oxidized at the regenerator.
A pharmaceutical composition comprising an active ingredient, at least one binder, at least one disintegrant, at least one lubricant, and at least one filler, wherein the active ingredient is lapatinib or a pharmaceutically acceptable salt or solvate or solvated salt thereof; the binder is selected from the group consisting of polyvinyl pyrrolidone, hydroxypropylmethylcellulose and combinations thereof; the disintegrant is selected from the group consisting of sodium starch glycolate, croscarmellose sodium and combinations thereof; the lubricant is selected from the group consisting of magnesium stearate, calcium stearate, sodium stearyl fumarate, magnesium behenate, calcium behenate, magnesium arachinate, calcium arachinate and combinations thereof; and the filler comprises microcrystalline cellulose in an amount of 10 to 30% by weight, relative to the weight of the pharmaceutical composition, and lactose in an amount of 10 to 20% by weight, relative to the weight of the pharmaceutical composition; and wherein the microcrystalline cellulose has a median particle size of 50 to 100μm.
A stator of a gas dispersion mechanism to be used in a froth flotation tank, the stator comprising: an annular top plate having an inner circumference; an annular array comprising a plurality of radial stator blades (124, 126), each stator blade having an inner edge and an outer edge, the inner edges of the stator blades defining an interior space for a rotor, inner edges of at least two stator blades of the plurality of stator blades defining an inner circumference of the annular array, the at least two stator blades (124, 126) having innermost inner edges among the plurality of stator blades, the annular array being disposed below the annular top plate and being coaxial with the annular top plate; and an annular bottom plate disposed below the annular array, the annular bottom plate being coaxial with the annular array, the annular bottom plate having an inner circumference, the inner circumference of the annular bottom plate having a radius which is smaller than a radius of the inner circumference of the annular array, the difference (Wb) between the radius of the inner circumference of the annular bottom plate and radius of the inner circumference of the annular array forming a flow guide for guiding a flow of slurry towards an axis of the annular bottom plate; characterized in that the stator comprises a cylindrical member disposed between the annular array and the annular bottom plate, the cylindrical member being coaxial with the annular array, and having a height from 50% to 150% of a height of the annular array. an annular top plate having an inner circumference; an annular array comprising a plurality of radial stator blades (124, 126), each stator blade having an inner edge and an outer edge, the inner edges of the stator blades defining an interior space for a rotor, inner edges of at least two stator blades of the plurality of stator blades defining an inner circumference of the annular array, the at least two stator blades (124, 126) having innermost inner edges among the plurality of stator blades, the annular array being disposed below the annular top plate and being coaxial with the annular top plate; and an annular bottom plate disposed below the annular array, the annular bottom plate being coaxial with the annular array, the annular bottom plate having an inner circumference, the inner circumference of the annular bottom plate having a radius which is smaller than a radius of the inner circumference of the annular array, the difference (Wb) between the radius of the inner circumference of the annular bottom plate and radius of the inner circumference of the annular array forming a flow guide for guiding a flow of slurry towards an axis of the annular bottom plate; characterized in that the stator comprises a cylindrical member disposed between the annular array and the annular bottom plate, the cylindrical member being coaxial with the annular array, and having a height from 50% to 150% of a height of the annular array.
A push-type pump dispenser that discharges liquid within a cylinder portion from a nozzle head portion by pushing down the nozzle head portion located above a grip portion in a state where the grip portion has been grasped by a user, comprising the cylinder portion and the grip portion attached to the cylinder portion, a piston portion slidable within the cylinder portion, a piston shaft portion attached to the piston portion, the nozzle head portion attached to the piston shaft portion, a spring portion for causing the piston portion to return, a cap portion for attaching the cylinder portion to a container, a first valve portion, and second valve portion, wherein the nozzle head portion has a nozzle portion in front thereof and includes a finger putting portion largely extending backward, the grip portion has a cylindrical base portion in which the piston shaft portion is inserted to be guided, and the piston portion is moved to apply a pressure to inside of the cylinder portion to discharge liquid through the nozzle portion by pulling down the finger putting portion of the nozzle head portion to cause the finger putting portion to come close to the grip portion, wherein the piston shaft portion has a rib portion in an axial direction thereof, and a vertically long groove portion (12A2) fitted with the rib portion is provided in the cylindrical base portion of the grip portion, an upper portion of the piston shaft portion is attached to the nozzle head portion by press fitting, and an upper portion of the cylinder portion is attached to the grip portion by press fitting, the cylindrical base portion has a cylindrical space portion (12A1), a finger abutting portion of the grip portion is located behind a power point of the nozzle head portion, the grip portion is formed in an L shape, and a ratio of a length of the cylindrical base portion of the grip portion to an outer diameter of the piston shaft portion is in a range of 1 to 3. the piston shaft portion has a rib portion in an axial direction thereof, and a vertically long groove portion (12A2) fitted with the rib portion is provided in the cylindrical base portion of the grip portion, an upper portion of the piston shaft portion is attached to the nozzle head portion by press fitting, and an upper portion of the cylinder portion is attached to the grip portion by press fitting, the cylindrical base portion has a cylindrical space portion (12A1), a finger abutting portion of the grip portion is located behind a power point of the nozzle head portion, the grip portion is formed in an L shape, and a ratio of a length of the cylindrical base portion of the grip portion to an outer diameter of the piston shaft portion is in a range of 1 to 3.
An annealing separator for grain-oriented electrical steel sheet, comprising: magnesia that contains 0.05 mass% or more and 0.20 mass% or less of B and is mainly composed of MgO, a phosphate in 0.1 parts by mass or more and 1.0 part by mass or less in terms of P per 100 parts by mass of the magnesia, and titanium oxide in 1.0 part by mass or more and 10.0 parts by mass or less per 100 parts by mass of the magnesia, where the titanium oxide contains one or more types of alkali metals in a total amount of 0.050 mass% or more and 1.0 mass% or less and is mainly composed of TiO 2, wherein the titanium oxide is capable of adsorbing P in an amount of 1.0 × 10 -4 g or less on 1 g of the titanium oxide, and the amount of P that can be adsorbed on 1 g of the titanium oxide is measured according to the method disclosed in the description. magnesia that contains 0.05 mass% or more and 0.20 mass% or less of B and is mainly composed of MgO, a phosphate in 0.1 parts by mass or more and 1.0 part by mass or less in terms of P per 100 parts by mass of the magnesia, and titanium oxide in 1.0 part by mass or more and 10.0 parts by mass or less per 100 parts by mass of the magnesia, where the titanium oxide contains one or more types of alkali metals in a total amount of 0.050 mass% or more and 1.0 mass% or less and is mainly composed of TiO 2, wherein the titanium oxide is capable of adsorbing P in an amount of 1.0 × 10 -4 g or less on 1 g of the titanium oxide, and the amount of P that can be adsorbed on 1 g of the titanium oxide is measured according to the method disclosed in the description.
A method for determining a condition of a road surface under a tire in motion by detecting tire vibration by a vibration detecting means disposed within the tire, the method comprising the steps of: (a) detecting the vibration of the tire in motion; (b) extracting a time-series waveform of the detected tire vibration; (c) extracting time-series waveforms in respective time windows of a predetermined time width by windowing the time-series waveform of tire vibration; (d) calculating feature vectors for the time-series waveforms in the respective time windows; (e) calculating kernel functions from the feature vectors calculated in step (d) and road surface feature vectors, which are feature vectors of the respective time windows calculated from the time-series waveforms of tire vibration having been determined in advance for distinctive road surface conditions; characterized in that the method comprises further the steps of: (f) determining a road surface condition based on the values of discriminant functions using the kernel functions; wherein the kernel functions are the global alignment kernel functions, the dynamic time warping kernel functions, or the computed values of the kernel functions, wherein in step (e), the kernel functions are calculated after each of path elements calculated from one of the calculated feature vectors for the respective time widths and one of the road surface feature vectors is weighted by a weighting parameter ω using a time-series waveform length corresponding value in the time-series waveform of tire vibration extracted in step (b) and a previously determined time-series waveform length corresponding value in the time-series waveform of tire vibration, and wherein in step (f), a road surface condition is determined by comparing the values of discriminant functions determined for the distinctive road surface conditions. (a) detecting the vibration of the tire in motion; (b) extracting a time-series waveform of the detected tire vibration; (c) extracting time-series waveforms in respective time windows of a predetermined time width by windowing the time-series waveform of tire vibration; (d) calculating feature vectors for the time-series waveforms in the respective time windows; (e) calculating kernel functions from the feature vectors calculated in step (d) and road surface feature vectors, which are feature vectors of the respective time windows calculated from the time-series waveforms of tire vibration having been determined in advance for distinctive road surface conditions; (f) determining a road surface condition based on the values of discriminant functions using the kernel functions;
A foldable type portable wireless terminal comprising: a first housing and a second housing coupled by a hinge section; a camera; a first electronic zooming means for zooming in or out a picture of an object by hardware; a second electronic zooming means for zooming in or out a picture of an object by software; a control unit for controlling the first and the second electronic zooming means; a display; an operation key section; and a sensor that outputs an output value corresponding to an angle between the first housing and the second housing, wherein the control unit selects a scale factor of a picture based on the output value, and the first or the second electronic zooming means is operable according to the scale factor. a first housing and a second housing coupled by a hinge section; a camera; a first electronic zooming means for zooming in or out a picture of an object by hardware; a second electronic zooming means for zooming in or out a picture of an object by software; a control unit for controlling the first and the second electronic zooming means; a display; an operation key section; and a sensor that outputs an output value corresponding to an angle between the first housing and the second housing, wherein the control unit selects a scale factor of a picture based on the output value, and the first or the second electronic zooming means is operable according to the scale factor.
A method, comprising: receiving, by a processor of an apparatus, a first reject message from a network apparatus in a location area; receiving, by the processor, a second reject message from the network apparatus in the location area; storing, by the processor, an identification of the location area in a forbidden location area list; and searching, by the processor, for another location area or tracking area characterized in that the first reject message comprises a first reject cause, the second reject message comprises a second reject cause, and the first reject cause and the second reject cause are different. receiving, by a processor of an apparatus, a first reject message from a network apparatus in a location area; receiving, by the processor, a second reject message from the network apparatus in the location area; storing, by the processor, an identification of the location area in a forbidden location area list; and searching, by the processor, for another location area or tracking area characterized in that the first reject message comprises a first reject cause, the second reject message comprises a second reject cause, and the first reject cause and the second reject cause are different.
A method of pooling a transport layer connection to a server, the method comprising: opening, by an interface unit located between clients (C1, C2) and a server, a first connection between the interface unit and a first client; receiving, by the interface unit, a first request from the first client to access a server; forwarding, by the interface unit, the first request via a second connection between the interface unit and the server; forwarding, by the interface unit, to the client via the first connection a response from the server to the first request; closing the first connection while the interface unit keeps open the second connection to the server; opening, by the interface unit, a third connection between the interface unit and a second client; receiving, by the interface unit, a second request from the second client to access the server; determining, by the interface unit, that the second connection is a free open connection; modifying, by the interface unit, a sequence number of a packet of the second request according to a sequence number of a packet of the response from the server to the first request; and forwarding, by the interface unit, the second request from the second client to access the server via the second connection to the server. opening, by an interface unit located between clients (C1, C2) and a server, a first connection between the interface unit and a first client; receiving, by the interface unit, a first request from the first client to access a server; forwarding, by the interface unit, the first request via a second connection between the interface unit and the server; forwarding, by the interface unit, to the client via the first connection a response from the server to the first request; closing the first connection while the interface unit keeps open the second connection to the server; opening, by the interface unit, a third connection between the interface unit and a second client; receiving, by the interface unit, a second request from the second client to access the server; determining, by the interface unit, that the second connection is a free open connection; modifying, by the interface unit, a sequence number of a packet of the second request according to a sequence number of a packet of the response from the server to the first request; and forwarding, by the interface unit, the second request from the second client to access the server via the second connection to the server.
Device configured to connect the airways of a patient on ventilatory support with a source of a breathing gas and a source of an aerosol, said device comprising a contact component adapted to be positioned in contact with the airways, wherein the contact component is a nasal prong, the contact component comprising: two tubes (18, 20) each comprising a corresponding first lumen (18a, 20a) through which breathing gas and aerosol can be delivered to the airways of the patient; a second lumen which is in fluid connection with the first lumens (18a, 20a) of the two tubes (18, 20) and having a longitudinal axis extending at an angle of 90° ± 15° to longitudinal axes (18c, 20c) of the first lumens (18a, 20a); and a port through which aerosol can be introduced into said second lumen and arranged such that the aerosol and a breathing gas can be mixed in the second lumen, the port being configured such that, in use, the aerosol is injected into the second lumen in an aerosol flow direction, wherein the aerosol flow direction is at an angle of 90° ± 15° to the longitudinal axes of the two tubes (18, 20); wherein the contact component is removably connected to a contact component holder of the device, said contact component holder comprising a third lumen, the third lumen being connectable via tubing to a device for generating a flow of breathing gas, wherein the second lumen is positioned proximal to, and is in fluid connection with, said third lumen. two tubes (18, 20) each comprising a corresponding first lumen (18a, 20a) through which breathing gas and aerosol can be delivered to the airways of the patient; a second lumen which is in fluid connection with the first lumens (18a, 20a) of the two tubes (18, 20) and having a longitudinal axis extending at an angle of 90° ± 15° to longitudinal axes (18c, 20c) of the first lumens (18a, 20a); and a port through which aerosol can be introduced into said second lumen and arranged such that the aerosol and a breathing gas can be mixed in the second lumen, the port being configured such that, in use, the aerosol is injected into the second lumen in an aerosol flow direction, wherein the aerosol flow direction is at an angle of 90° ± 15° to the longitudinal axes of the two tubes (18, 20); wherein the contact component is removably connected to a contact component holder of the device, said contact component holder comprising a third lumen, the third lumen being connectable via tubing to a device for generating a flow of breathing gas, wherein the second lumen is positioned proximal to, and is in fluid connection with, said third lumen.
A foldable side rail comprising multiple strut members pivotally rotatably connected between an upper crosspiece member and a lower crosspiece member, to form a parallel link mechanism, in such a manner that the side rail can be operated between a deployed state for use where the strut members are kept upright and a stowed state of non-use where the strut members are laid down, wherein a first holding mechanism is provided for holding said strut members in the upright position; and second holding mechanisms are provided on the lower crosspiece member for supporting the strut members in a state just before the above mentioned stowed state is reached, each of the second holding mechanisms comprising a holding piece pivotally rotatable between a holding position and a non-holding position, a spring for urging the holding piece toward the holding position, characterized in that the second holding mechanisms further comprise a locking mechanism for locking the holding piece in the non-holding position, and an unlocking mechanism.