mhurhangee/ep-ind-claims huggingface dataset:
An aerosolization device (100, 800, 900) for ensuring proper delivery of an aerosolized medication to a user's respiratory system, the aerosolization device (100, 800, 900) comprising: a conduit having a mouthpiece end by which a user may cause an inspiratory flow through the conduit; an aerosol generator (104, 406) in communication with the conduit and comprising a vibratable mesh; characterized in that a restrictor is disposed within the conduit, wherein the restrictor defines a plurality of apertures (302a, 302i) disposed along an outer periphery of the restrictor, the plurality of apertures (302a, 302i) being configured to: provide an increase in pressure differential that varies with an inspiratory flow rate within the conduit; and provide a relatively laminar flow downstream of the restrictor; the plurality of apertures (302a, 302i) being positioned about a solid center portion, thereby allowing airflow through the plurality of apertures (302a, 302i) disposed along the outer periphery of the restrictor while preventing airflow through the solid center portion of the restrictor. a conduit having a mouthpiece end by which a user may cause an inspiratory flow through the conduit; an aerosol generator (104, 406) in communication with the conduit and comprising a vibratable mesh; characterized in that a restrictor is disposed within the conduit, wherein the restrictor defines a plurality of apertures (302a, 302i) disposed along an outer periphery of the restrictor, the plurality of apertures (302a, 302i) being configured to: provide an increase in pressure differential that varies with an inspiratory flow rate within the conduit; and provide a relatively laminar flow downstream of the restrictor; the plurality of apertures (302a, 302i) being positioned about a solid center portion, thereby allowing airflow through the plurality of apertures (302a, 302i) disposed along the outer periphery of the restrictor while preventing airflow through the solid center portion of the restrictor. provide an increase in pressure differential that varies with an inspiratory flow rate within the conduit; and provide a relatively laminar flow downstream of the restrictor; the plurality of apertures (302a, 302i) being positioned about a solid center portion, thereby allowing airflow through the plurality of apertures (302a, 302i) disposed along the outer periphery of the restrictor while preventing airflow through the solid center portion of the restrictor.
A dual-frequency optical source comprising: (a) first and second pump laser sources (130a, 130b) arranged to generate optical pump power at respective first and second pump laser frequencies v pump1 and v pump2; and (b) a fiber optical resonator exhibiting a Brillouin shift frequency v B and a free spectral range that is substantially equal to an integer submultiple of the Brillouin shift frequency, wherein: (c) each one of the first and second pump laser sources (130a, 130b) is frequency-locked to a corresponding resonant optical mode of the fiber optical resonator; (d) first and second optical output signals (120a, 120b) of the dual-frequency optical source at respective first and second output frequencies v 1 = v pump1- v B and v 2 = v pump2 -v B comprise stimulated Brillouin laser output generated by simultaneous optical pumping of the fiber optical resonator by the first and second pump laser sources (130a, 130b), respectively; characterized in that: (e) an output difference frequency v 2 - v 1 is greater than about 300 GHz; and (f) the fiber optical resonator comprises an optical fiber greater than or equal to about 100 meters in length. (a) first and second pump laser sources (130a, 130b) arranged to generate optical pump power at respective first and second pump laser frequencies v pump1 and v pump2; and (b) a fiber optical resonator exhibiting a Brillouin shift frequency v B and a free spectral range that is substantially equal to an integer submultiple of the Brillouin shift frequency, (c) each one of the first and second pump laser sources (130a, 130b) is frequency-locked to a corresponding resonant optical mode of the fiber optical resonator; (d) first and second optical output signals (120a, 120b) of the dual-frequency optical source at respective first and second output frequencies v 1 = v pump1- v B and v 2 = v pump2 -v B comprise stimulated Brillouin laser output generated by simultaneous optical pumping of the fiber optical resonator by the first and second pump laser sources (130a, 130b), respectively; (e) an output difference frequency v 2 - v 1 is greater than about 300 GHz; and (f) the fiber optical resonator comprises an optical fiber greater than or equal to about 100 meters in length.
An organic light emitting display apparatus comprising: a substrate configured to include an active area and a pad area; an anode electrode (180, 200) disposed in the active area of the substrate; an organic emission layer disposed on the anode electrode (180, 200); a cathode electrode disposed on the organic emission layer; an auxiliary electrode (190, 210) connected to the cathode electrode, wherein the auxiliary electrode (190, 210) and the anode electrode (180, 200) are disposed on the same layer; a signal pad disposed in the pad area of the substrate; and a pad electrode connected to the signal pad through a contact hole to cover a top of the signal pad, wherein a top of the pad electrode is lower in oxidation rate than the top of the signal pad characterized in that the anode electrode (180, 200) comprises a first anode electrode and a second anode electrode disposed to cover a top and a side surface of the first anode electrode, wherein the first anode electrode comprises a first lower anode electrode and a first upper anode electrode, and the second anode electrode comprises a second lower anode electrode, a second center anode electrode, and a second upper anode electrode and the pad electrode is formed of the same material as a material of the first lower anode electrode. a substrate configured to include an active area and a pad area; an anode electrode (180, 200) disposed in the active area of the substrate; an organic emission layer disposed on the anode electrode (180, 200); a cathode electrode disposed on the organic emission layer; an auxiliary electrode (190, 210) connected to the cathode electrode, wherein the auxiliary electrode (190, 210) and the anode electrode (180, 200) are disposed on the same layer; a signal pad disposed in the pad area of the substrate; and a pad electrode connected to the signal pad through a contact hole to cover a top of the signal pad, wherein a top of the pad electrode is lower in oxidation rate than the top of the signal pad characterized in that the anode electrode (180, 200) comprises a first anode electrode and a second anode electrode disposed to cover a top and a side surface of the first anode electrode, wherein the first anode electrode comprises a first lower anode electrode and a first upper anode electrode, and the second anode electrode comprises a second lower anode electrode, a second center anode electrode, and a second upper anode electrode and the pad electrode is formed of the same material as a material of the first lower anode electrode.
A fiber optic connector, comprising: a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end, wherein a part of the rear portion of the housing comprises a round cross-section and a part of the front portion of the housing comprises a non-round cross-section (NRCS) with a transition region disposed between the rear portion and the front portion, wherein the transition region comprises an asymmetric transition with respect to a longitudinal axis of the housing, and the housing provides a first connector footprint; a ferrule holder; a ferrule comprising a fiber bore extending from a rear end to a front end, wherein the ferrule is disposed within a portion of the ferrule holder; a conversion housing (80,82), wherein the conversion housing (80, 82) cooperates with the housing for changing the fiber optic connector from the first connector footprint to a second connector footprint. a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end, wherein a part of the rear portion of the housing comprises a round cross-section and a part of the front portion of the housing comprises a non-round cross-section (NRCS) with a transition region disposed between the rear portion and the front portion, wherein the transition region comprises an asymmetric transition with respect to a longitudinal axis of the housing, and the housing provides a first connector footprint; a ferrule holder; a ferrule comprising a fiber bore extending from a rear end to a front end, wherein the ferrule is disposed within a portion of the ferrule holder; a conversion housing (80,82), wherein the conversion housing (80, 82) cooperates with the housing for changing the fiber optic connector from the first connector footprint to a second connector footprint.
An apparatus for measuring the position of the electrodes in an electric furnace which envisages an electrode-holder column, comprising a lifting group, integral with a base structure and carrying an electrode-holder arm containing at least one electrode immersed in a bath and/or in contact with scrap, characterized in that it comprises at least one laser group positioned on at least a part of the base structure which collaborates with a reference element integral with the at least one electrode,or said reference element consists of a plate integral with a moveable part of said lifting group or said reference element is integral with said electrode-holder arm,said reference element reflecting a laser radiation emitted by said laser group for controlling the position of said electrode inside said bath and/or in contact with said scrap.
Method for configuring data transmission over a plurality of data lines connected to a single access device using vectoring technology, wherein interference introduces dependencies between the data rates that are achievable on the data lines, the method being executed by a monitoring device and comprising: - obtaining operational data of the data lines, wherein the operational data includes data rates of the data lines and information indicative of channel conditions, including complex crosstalk channel coefficients; - outputting the data rates to an operator; - providing the operator with an input mechanism to input at least one data rate balance related control such as per line priority levels, a utility specification, a fairness parameter, an upstream/downstream ratio; - receiving the at least one data rate balance related control via the input mechanism; - determining configuration parameters for the access device in function of the at least one data rate balance related control; - outputting a predicted effect of the configuration parameters on the data rates to the operator and providing the operator with the input mechanism to change the at least one data rate balance related control; and - configuring the access device using the determined configuration parameters. - obtaining operational data of the data lines, wherein the operational data includes data rates of the data lines and information indicative of channel conditions, including complex crosstalk channel coefficients; - outputting the data rates to an operator; - providing the operator with an input mechanism to input at least one data rate balance related control such as per line priority levels, a utility specification, a fairness parameter, an upstream/downstream ratio; - receiving the at least one data rate balance related control via the input mechanism; - determining configuration parameters for the access device in function of the at least one data rate balance related control; - outputting a predicted effect of the configuration parameters on the data rates to the operator and providing the operator with the input mechanism to change the at least one data rate balance related control; and - configuring the access device using the determined configuration parameters.
An additive manufacturing method comprising: defining, by a computing device, a digital representation (16d, 16f) of an inclined channel (18a, 18b,18d, 18f) within an additively manufactured component (36a, 36b, 36d, 36f), including an angle θ, based on a formula θ = 2 tan -1 [tan(λ/2)/sin(α)], the angle λ, and the angle α, wherein the inclined channel (18a, 18b, 18d, 18f) defines a longitudinal axis (15d, 15f) inclined at the angle α relative to a build direction (13d, 13f) of the component (36a, 36b, 36d, 36f), wherein the digital representation (16d, 16f) of the inclined channel (18a, 18b, 18d, 18f) includes a gabled roof (19b, 19d, 19f) configured to collapse into an arched roof (39c, 39e, 39g), wherein the angle λ is a predetermined interior angle of the gabled roof (19b, 19d, 19f) measured in a plane substantially parallel to the build direction (13d, 13f), and wherein the angle θ is an interior angle of the gabled roof (19b, 19d, 19f) in a plane substantially normal to the inclined longitudinal axis (15d, 15f); and controlling, by the computing device, based on the digital representation (16d, 16f), an additive manufacturing tool to deposit a material (20, 26) along the build direction (13d, 13f) to fabricate the component (36a, 36b, 36d, 36f) including the inclined channel (38b, 38d, 38f) having a geometry defined by the angles θ, λ, and α. defining, by a computing device, a digital representation (16d, 16f) of an inclined channel (18a, 18b,18d, 18f) within an additively manufactured component (36a, 36b, 36d, 36f), including an angle θ, based on a formula θ = 2 tan -1 [tan(λ/2)/sin(α)], the angle λ, and the angle α, wherein the inclined channel (18a, 18b, 18d, 18f) defines a longitudinal axis (15d, 15f) inclined at the angle α relative to a build direction (13d, 13f) of the component (36a, 36b, 36d, 36f), wherein the digital representation (16d, 16f) of the inclined channel (18a, 18b, 18d, 18f) includes a gabled roof (19b, 19d, 19f) configured to collapse into an arched roof (39c, 39e, 39g), wherein the angle λ is a predetermined interior angle of the gabled roof (19b, 19d, 19f) measured in a plane substantially parallel to the build direction (13d, 13f), and wherein the angle θ is an interior angle of the gabled roof (19b, 19d, 19f) in a plane substantially normal to the inclined longitudinal axis (15d, 15f); and controlling, by the computing device, based on the digital representation (16d, 16f), an additive manufacturing tool to deposit a material (20, 26) along the build direction (13d, 13f) to fabricate the component (36a, 36b, 36d, 36f) including the inclined channel (38b, 38d, 38f) having a geometry defined by the angles θ, λ, and α.
A drive chain for stitch formation members of a circular knitting machine, comprising: - - an element incorporating a stitch formation member or operatively coupled or to be coupled with a stitch formation member; wherein said element has a first butt configured for engaging into first paths defined by first actuating cams of a circular knitting machine; - - an oscillating lever connected to said element on a junction area and extending, with respect to said element, on the opposed side to said stitch formation member; the oscillating lever exhibiting a second butt; wherein the oscillating lever is configured for interacting with at least one selecting device of the circular knitting machine so as to oscillate with respect to said element between an extracted position, in which the second butt is taken out of a respective groove of a support of the circular knitting machine and is engaged with second paths defined by second actuating cams, and a retracted position, in which the second butt is retracted into the respective groove so as not to engage into said second paths; said drive chain being characterized in that, along a main direction of development of the drive chain, said junction area is placed between the stitch formation member and the first butt. - - an element incorporating a stitch formation member or operatively coupled or to be coupled with a stitch formation member; wherein said element has a first butt configured for engaging into first paths defined by first actuating cams of a circular knitting machine; - - an oscillating lever connected to said element on a junction area and extending, with respect to said element, on the opposed side to said stitch formation member; the oscillating lever exhibiting a second butt; wherein the oscillating lever is configured for interacting with at least one selecting device of the circular knitting machine so as to oscillate with respect to said element between an extracted position, in which the second butt is taken out of a respective groove of a support of the circular knitting machine and is engaged with second paths defined by second actuating cams, and a retracted position, in which the second butt is retracted into the respective groove so as not to engage into said second paths; said drive chain being characterized in that, along a main direction of development of the drive chain, said junction area is placed between the stitch formation member and the first butt.
A container sterilization system comprising: a conveyance path along which a plurality of containers are continuously conveyed; a sterilization region that is provided on the conveyance path, the sterilization region being partitioned by a chamber that contains the conveyance path; a sheet-shaped heater being provided in the chamber; and a humid gas generation unit that generates a humid ozone gas, the humid ozone gas being supplied to the sterilization region, the humid ozone gas being an ozone gas that has humidity; a temperature sensor configured to measure the temperature of the container to be conveyed; characterized in that the container sterilization system further comprises a control unit for controlling the operations of the humid gas generation unit and a sterilization unit, wherein the control unit is adapted to control the relative humidity of the humid ozone gas to be generated in the humid gas generation unit, and further controls the temperature of the heater such that the temperature of the chamber is maintained at a higher temperature than that of the container to be conveyed based on the measurement result of the temperature sensor configured to measure the temperature of the container to be conveyed. a conveyance path along which a plurality of containers are continuously conveyed; a sterilization region that is provided on the conveyance path, the sterilization region being partitioned by a chamber that contains the conveyance path; a sheet-shaped heater being provided in the chamber; and a humid gas generation unit that generates a humid ozone gas, the humid ozone gas being supplied to the sterilization region, the humid ozone gas being an ozone gas that has humidity; a temperature sensor configured to measure the temperature of the container to be conveyed; characterized in that the container sterilization system further comprises a control unit for controlling the operations of the humid gas generation unit and a sterilization unit, wherein the control unit is adapted to control the relative humidity of the humid ozone gas to be generated in the humid gas generation unit, and further controls the temperature of the heater such that the temperature of the chamber is maintained at a higher temperature than that of the container to be conveyed based on the measurement result of the temperature sensor configured to measure the temperature of the container to be conveyed.
A parking assistance method of a parking assistance device for generating a peripheral image indicating a periphery of a moving object as viewed from above, detecting an unoccupied parking space (Q1 to Q4, Q21 to Q24) around the moving object, and displaying, on the peripheral image, an assistance image (21, 22) indicating that the detected unoccupied parking space (Q1 to Q4, Q21 to Q24) is an available parking space, characterized by: determining whether the moving object intrudes on the unoccupied parking space (Q1 to Q4, Q21 to Q24); and inhibiting the assistance image (21, 22) from being displayed on the unoccupied parking space (Q1 to Q4, Q21 to Q24) on which the moving object is determined to intrude in the peripheral image. determining whether the moving object intrudes on the unoccupied parking space (Q1 to Q4, Q21 to Q24); and inhibiting the assistance image (21, 22) from being displayed on the unoccupied parking space (Q1 to Q4, Q21 to Q24) on which the moving object is determined to intrude in the peripheral image.
A device comprising: a coil antenna (202-2, 202-4) of continuous loop; and a near field communications module (100-2, 100-4) coupled to the coil antenna, an indicator that is configured to indicate amount of received power, characterized in that the NFC module comprises an amplitude detector that is configured to measure an induced current in the coil antenna at receive mode, wherein the measured induced current is utilized as a basis for re-aligning the device if the measured induced current is lower than a receiver threshold, the receiver threshold is configured to include a minimum value of the measured induced current to determine if re-aligning is required. a coil antenna (202-2, 202-4) of continuous loop; and a near field communications module (100-2, 100-4) coupled to the coil antenna, an indicator that is configured to indicate amount of received power, characterized in that the NFC module comprises an amplitude detector that is configured to measure an induced current in the coil antenna at receive mode, wherein the measured induced current is utilized as a basis for re-aligning the device if the measured induced current is lower than a receiver threshold, the receiver threshold is configured to include a minimum value of the measured induced current to determine if re-aligning is required.
Expiration valve of a ventilator, comprising a valve body in which a fluid inlet and a fluid outlet for breathing air of a patient are formed, wherein the valve body defines a fluid flow path between the fluid inlet and the fluid outlet, the cross-section of which widens towards the fluid outlet; wherein the valve body forms a cup-shaped valve plenum which is at least partially enclosed by a valve bottom and into which the fluid inlet opens; and wherein the valve bottom extends from an edge of the fluid inlet defining a fluid inlet surface; characterized in that the valve bottom bulges in an axial direction in a region around the fluid inlet with a bulge having a depth varying around the circumference of the fluid inlet. a valve body in which a fluid inlet and a fluid outlet for breathing air of a patient are formed, wherein the valve body defines a fluid flow path between the fluid inlet and the fluid outlet, the cross-section of which widens towards the fluid outlet; wherein the valve body forms a cup-shaped valve plenum which is at least partially enclosed by a valve bottom and into which the fluid inlet opens; and wherein the valve bottom extends from an edge of the fluid inlet defining a fluid inlet surface; characterized in that the valve bottom bulges in an axial direction in a region around the fluid inlet with a bulge having a depth varying around the circumference of the fluid inlet.