mhurhangee/ep-ind-claims huggingface dataset:
A fluid collection system for collecting bodily fluids from a tissue site using reduced pressure, the fluid collection system comprising: a canister comprising an inlet, an outlet, and a container, said inlet adapted to be in fluid communication with a wound dressing in a tissue site, said outlet adapted to be in fluid communication with a reduced pressure source, and said container having a chamber configured to be volumetrically expandable, substantially impervious to fluid, and in fluid communication with said inlet and said outlet; and a plurality of layers of wicking material positioned proximate to a plurality of layers of absorptive material, said plurality of layers of wicking material and said plurality of layers of absorptive material disposed within said container and further comprising a tube situated within said container, said tube in fluid communication with said inlet and with said chamber, and oriented essentially perpendicular to said plurality of layers of wicking material. a canister comprising an inlet, an outlet, and a container, said inlet adapted to be in fluid communication with a wound dressing in a tissue site, said outlet adapted to be in fluid communication with a reduced pressure source, and said container having a chamber configured to be volumetrically expandable, substantially impervious to fluid, and in fluid communication with said inlet and said outlet; and a plurality of layers of wicking material positioned proximate to a plurality of layers of absorptive material, said plurality of layers of wicking material and said plurality of layers of absorptive material disposed within said container and further comprising a tube situated within said container, said tube in fluid communication with said inlet and with said chamber, and oriented essentially perpendicular to said plurality of layers of wicking material.
System for controlling the vanes of a variable-geometry turbine supplying an internal combustion engine of a motor vehicle, characterized in that it includes a subtracter able to determine the difference between a turbocharging pressure setpoint and a turbocharging pressure measurement, a proportional-integral-derivative controller that is able to output a control signal to the vanes of a variable-geometry turbine, a pre-positioning map that is able to determine a vane position setpoint as a function of the rotational speed of the engine and of a torque setpoint, and means for determining learning conditions that are able to emit a Boolean control signal to control learning means, the control learning means being able to output a correction of the control signal to the vanes of a variable-geometry turbine as a function of the signals received from the pre-positioning map and from the controller, the control learning means being able to learn the pre-positioning signals on receipt of a signal from the means for determining learning conditions, the control learning means furthermore include a summer of the signal from the integral part of the controller and the pre-positioning control signal received from the pre-positioning map, and a switch that is able to authorize the value determined by the summer to be copied into a control map as a function of the signal received from the means for determining learning conditions.
A method comprising: discovering by a proxy device, one or more devices (125, 130) coupled to the proxy device via an HDMI (High Definition Multimedia Interface) compatible network; generating by the proxy device virtual identifiers representing each of the one or more devices (125, 130) discovered by the proxy device; generating by the proxy device capability vectors for each of the one or more devices (125, 130) in the HDMI compatible network, each of the capability vectors indicating one or more types of data that a corresponding device is capable of receiving or transmitting; periodically broadcasting by the proxy device on an internet protocol network, the virtual identifiers representing each of the one or more devices (125, 130) in the HDMI compatible network discovered by the proxy device and the corresponding capability vectors; receiving by the proxy device from a command device via the IP network, a CEC (Consumer Electronics Control) command directed to a target virtual identifier from the virtual identifiers broadcasted by the proxy device, the command device being outside the HDMI compatible network, the target virtual identifier corresponding to a target device coupled to the HDMI compatible network; and forwarding the CEC command from the proxy device to the target device via the HDMI compatible network. discovering by a proxy device, one or more devices (125, 130) coupled to the proxy device via an HDMI (High Definition Multimedia Interface) compatible network; generating by the proxy device virtual identifiers representing each of the one or more devices (125, 130) discovered by the proxy device; generating by the proxy device capability vectors for each of the one or more devices (125, 130) in the HDMI compatible network, each of the capability vectors indicating one or more types of data that a corresponding device is capable of receiving or transmitting; periodically broadcasting by the proxy device on an internet protocol network, the virtual identifiers representing each of the one or more devices (125, 130) in the HDMI compatible network discovered by the proxy device and the corresponding capability vectors; receiving by the proxy device from a command device via the IP network, a CEC (Consumer Electronics Control) command directed to a target virtual identifier from the virtual identifiers broadcasted by the proxy device, the command device being outside the HDMI compatible network, the target virtual identifier corresponding to a target device coupled to the HDMI compatible network; and forwarding the CEC command from the proxy device to the target device via the HDMI compatible network.
A method for data sending in a multi-user multiple-input multiple-output MIMO system, comprising: sending a request to send RTS to a primary user on at least two bandwidths (step S101); receiving a clear to send CTS that is sent by the primary user on each bandwidth, wherein the CTS is a response of the primary user to the RTS (step S103); if the number of primary users is greater than one, firstly a RTS is sent to all primary users; sending an RTS to a secondary user on the at least one bandwidth on which the CTS sent by one of the primary users is received (step S105); receiving a CTS sent by the secondary user, wherein the CTS is a response of the secondary user to the RTS (step S107); and sending data to one of the primary users and the secondary user on the at least one bandwidth on which the CTS sent by the one of the primary users and the CTS sent by the secondary user are received (step S109), wherein the sending the RTS to the secondary user on the at least one bandwidth on which the CTS sent by one of the primary users is received then comprises: determining a maximum value of the bandwidths on which CTSs are sent by the primary users; and wherein the bandwidth on which the RTS is sent to the secondary user does not exceed the bandwidth with the maximum value, and wherein the primary user of the step of sending data refers to a primary user that corresponds to the maximum value of the bandwidths on which the CTSs are sent by the primary users. sending a request to send RTS to a primary user on at least two bandwidths (step S101); receiving a clear to send CTS that is sent by the primary user on each bandwidth, wherein the CTS is a response of the primary user to the RTS (step S103); if the number of primary users is greater than one, firstly a RTS is sent to all primary users; sending an RTS to a secondary user on the at least one bandwidth on which the CTS sent by one of the primary users is received (step S105); receiving a CTS sent by the secondary user, wherein the CTS is a response of the secondary user to the RTS (step S107); and sending data to one of the primary users and the secondary user on the at least one bandwidth on which the CTS sent by the one of the primary users and the CTS sent by the secondary user are received (step S109), wherein the sending the RTS to the secondary user on the at least one bandwidth on which the CTS sent by one of the primary users is received then comprises: determining a maximum value of the bandwidths on which CTSs are sent by the primary users; and wherein the bandwidth on which the RTS is sent to the secondary user does not exceed the bandwidth with the maximum value, and wherein the primary user of the step of sending data refers to a primary user that corresponds to the maximum value of the bandwidths on which the CTSs are sent by the primary users.
PV device having - a multi-PV cell group having at least one first PV cell of a first cell type and one second PV cell of a second cell type, wherein the first and the second cell type differ from one another and wherein each of the PV cells (11, 21) provides an electric cell voltage U1, U2 under light incidence on the respective PV cell (11, 21), characterized by - power electronics having a separate first power electronics unit that is assigned to the first PV cell and a separate second power electronics unit that is assigned to the second PV cell, wherein the electric cell voltage U1, U2 generated in the respective PV cell (11, 21) and a corresponding current yield I1, I2 are able to be fed to the separate power electronics unit (31, 32) assigned to the respective PV cell (11, 21), - a control device for controlling the power electronics, wherein - the first and the second power electronics unit are able to be operated independently of one another by way of the control device such that each PV subsystem (10, 20), each of which has one of the PV cells (11, 21) and the power electronics unit (31, 32) assigned to the respective PV cell (11, 21), operates at its optimum operating point. - a multi-PV cell group having at least one first PV cell of a first cell type and one second PV cell of a second cell type, wherein the first and the second cell type differ from one another and wherein each of the PV cells (11, 21) provides an electric cell voltage U1, U2 under light incidence on the respective PV cell (11, 21), characterized by - power electronics having a separate first power electronics unit that is assigned to the first PV cell and a separate second power electronics unit that is assigned to the second PV cell, wherein the electric cell voltage U1, U2 generated in the respective PV cell (11, 21) and a corresponding current yield I1, I2 are able to be fed to the separate power electronics unit (31, 32) assigned to the respective PV cell (11, 21), - a control device for controlling the power electronics, wherein - the first and the second power electronics unit are able to be operated independently of one another by way of the control device such that each PV subsystem (10, 20), each of which has one of the PV cells (11, 21) and the power electronics unit (31, 32) assigned to the respective PV cell (11, 21), operates at its optimum operating point.
A resin composition for a semiconductor package, comprising: (a) a modified phenylene ether oligomer or a modified poly(phenylene ether) having ethylenically unsaturated groups at both ends thereof; (b) one or more compounds selected from the group consisting of polybutadiene having 1,2-vinyl groups in a molecule, a styrene-butadiene copolymer, a bismaleimide resin, and a cyanate ester resin; (c) a quinone compound; (d) an alkoxysilane oligomer; and (e) an inorganic filler. (a) a modified phenylene ether oligomer or a modified poly(phenylene ether) having ethylenically unsaturated groups at both ends thereof; (b) one or more compounds selected from the group consisting of polybutadiene having 1,2-vinyl groups in a molecule, a styrene-butadiene copolymer, a bismaleimide resin, and a cyanate ester resin; (c) a quinone compound; (d) an alkoxysilane oligomer; and (e) an inorganic filler.
An oral care system comprising: a toothbrush having a cavity extending along a longitudinal axis and an opening forming a passageway into the cavity, the opening having a first transverse cross-sectional profile; a dispenser comprising a housing having a reservoir containing a fluid and a dispensing orifice, the housing having a second transverse cross-sectional profile that fits entirely within the first transverse cross-sectional profile; and a cap detachably coupled to the dispenser, the cap having a portion having a third cross-sectional profile that does not fit entirely within the first transverse cross-sectional profile; and a plug extending axially from a transverse end wall of the cavity, wherein when the cap is detached from the dispenser, the dispenser can be inserted into the cavity so that the plug penetrates and seals the dispensing orifice and the dispenser is detachably coupled to the toothbrush a toothbrush having a cavity extending along a longitudinal axis and an opening forming a passageway into the cavity, the opening having a first transverse cross-sectional profile; a dispenser comprising a housing having a reservoir containing a fluid and a dispensing orifice, the housing having a second transverse cross-sectional profile that fits entirely within the first transverse cross-sectional profile; and a cap detachably coupled to the dispenser, the cap having a portion having a third cross-sectional profile that does not fit entirely within the first transverse cross-sectional profile; and a plug extending axially from a transverse end wall of the cavity, wherein when the cap is detached from the dispenser, the dispenser can be inserted into the cavity so that the plug penetrates and seals the dispensing orifice and the dispenser is detachably coupled to the toothbrush
An inhaler comprising: a piezoelectric element substrate having an IDT constructed by use of a pair of interlocking comb-shaped metallic electrodes; a liquid supplier (1208A, 1208B) for supplying liquid, which is to be atomized, to a front surface of the piezoelectric element substrate on which the pair of interlocking comb-shaped metallic electrodes is positioned; characterized in that the inhaler further comprises a sensor, which comprises at least a pair of detection parts (1070A, 1070B) which are opposite to each other, for detecting liquid supplied to the front surface of the piezoelectric element substrate; and a controller for controlling, based on result of detection by the sensor, the liquid supplier (1208A, 1208B) in such a manner that the liquid supplier (1208A, 1208B) supplies a certain quantity of the liquid to the front surface of the piezoelectric element substrate. a piezoelectric element substrate having an IDT constructed by use of a pair of interlocking comb-shaped metallic electrodes; a liquid supplier (1208A, 1208B) for supplying liquid, which is to be atomized, to a front surface of the piezoelectric element substrate on which the pair of interlocking comb-shaped metallic electrodes is positioned; characterized in that the inhaler further comprises a sensor, which comprises at least a pair of detection parts (1070A, 1070B) which are opposite to each other, for detecting liquid supplied to the front surface of the piezoelectric element substrate; and a controller for controlling, based on result of detection by the sensor, the liquid supplier (1208A, 1208B) in such a manner that the liquid supplier (1208A, 1208B) supplies a certain quantity of the liquid to the front surface of the piezoelectric element substrate.
A composition comprising timolol as an active ingredient and a transdermal permeation enhancing composition, consisting of white Vaseline, a light liquid paraffin and white beeswax, wherein an amount of the white Vaseline is from 68wt% to 93wt%, an amount of the light liquid paraffin is from 5wt% to 30wt%, and the amount of the white beeswax is from 2wt% to 8wt%, wherein a concentration of timolol is 0.1wt% to 3wt%.
A PTC heater comprising at least one PTC heating element, - wherein the at least one PTC heating element has a heating layer of a PTC material, which is arranged between two electrode plates (4a, 4b) and is electrically contacted therewith, - wherein the PTC heater has a housing, in which the at least one PTC heating element is arranged, and - wherein the electrode plates (4a, 4b) of the at least one PTC heating element are fixed to the housing so as to transfer heat and so as to be electrically insulated, - wherein at least one electrically insulated heat conducting layer divides the heating layer and is fixed to the divided heating layer so as to transfer heat, - wherein the at least one heat conducting layer extends from the one electrode plate (4a, 4b) to the other electrode plate (4a, 4b) and divides the heating layer vertically to the electrode plates (4a, 4b), and - characterized in that the at least one heat conducting layer extends in parallel to the electrode plates (4a, 4b) and divides the heating layer parallel to the electrode plates (4a, 4b). - wherein the at least one PTC heating element has a heating layer of a PTC material, which is arranged between two electrode plates (4a, 4b) and is electrically contacted therewith, - wherein the PTC heater has a housing, in which the at least one PTC heating element is arranged, and - wherein the electrode plates (4a, 4b) of the at least one PTC heating element are fixed to the housing so as to transfer heat and so as to be electrically insulated, - wherein at least one electrically insulated heat conducting layer divides the heating layer and is fixed to the divided heating layer so as to transfer heat, - wherein the at least one heat conducting layer extends from the one electrode plate (4a, 4b) to the other electrode plate (4a, 4b) and divides the heating layer vertically to the electrode plates (4a, 4b), and - characterized in that the at least one heat conducting layer extends in parallel to the electrode plates (4a, 4b) and divides the heating layer parallel to the electrode plates (4a, 4b).
An airfoil comprising: an airfoil body including a solid perimeter portion surrounding a recess formed into at least one of a suction side and a pressure side of the airfoil body; a cover mounting support extending through the recess; and a first cover engaged with a first edge of the recess; characterised in that: the first cover is joined to a first portion of the cover mounting support by a first stir weld; and a second cover is engaged with a second edge of the recess, and joined to a second portion of the cover mounting support by a second stir weld. an airfoil body including a solid perimeter portion surrounding a recess formed into at least one of a suction side and a pressure side of the airfoil body; a cover mounting support extending through the recess; and a first cover engaged with a first edge of the recess; the first cover is joined to a first portion of the cover mounting support by a first stir weld; and a second cover is engaged with a second edge of the recess, and joined to a second portion of the cover mounting support by a second stir weld.
Method for improving the thermal insulation of a hollow-chamber profiled element, in particular of a hollow-chamber profiled element for a window or a door, - wherein the hollow-chamber profiled element having at least one hollow chamber is formed in the course of an extrusion process, - wherein the thermal insulation is improved with the aid of at least one separate insulating profile, - wherein, to that end, a jacket profile of the insulating profile is produced in the course of an extrusion process, - wherein the jacket profile is filled with foam material, - wherein the insulating profile produced in this manner is inserted into a hollow chamber, - wherein the jacket profile is produced somewhat smaller than the hollow chamber surrounding the jacket profile, characterized in that the jacket profile is filled with foam online in conjunction with the extrusion of the jacket profile. - wherein the hollow-chamber profiled element having at least one hollow chamber is formed in the course of an extrusion process, - wherein the thermal insulation is improved with the aid of at least one separate insulating profile, - wherein, to that end, a jacket profile of the insulating profile is produced in the course of an extrusion process, - wherein the jacket profile is filled with foam material, - wherein the insulating profile produced in this manner is inserted into a hollow chamber, - wherein the jacket profile is produced somewhat smaller than the hollow chamber surrounding the jacket profile,
A system comprising: a multi-tube fuel nozzle, comprising: an inlet plate comprising a plurality of apertures, wherein each aperture comprises an inlet feature; and a plurality of tubes adjacent the inlet plate, wherein the each tube of the plurality of tubes is coupled to an aperture of the plurality of apertures, and the multi-tube fuel nozzle comprises a differential configuration of inlet features among the plurality of tubes, characterized in that the inlet feature of each aperture comprises at least one mix-inducing feature, the mix-inducing feature comprising at least one projection extending crosswise into the aperture. a multi-tube fuel nozzle, comprising: an inlet plate comprising a plurality of apertures, wherein each aperture comprises an inlet feature; and a plurality of tubes adjacent the inlet plate, wherein the each tube of the plurality of tubes is coupled to an aperture of the plurality of apertures, and the multi-tube fuel nozzle comprises a differential configuration of inlet features among the plurality of tubes, characterized in that the inlet feature of each aperture comprises at least one mix-inducing feature, the mix-inducing feature comprising at least one projection extending crosswise into the aperture. an inlet plate comprising a plurality of apertures, wherein each aperture comprises an inlet feature; and a plurality of tubes adjacent the inlet plate, wherein the each tube of the plurality of tubes is coupled to an aperture of the plurality of apertures, and the multi-tube fuel nozzle comprises a differential configuration of inlet features among the plurality of tubes, characterized in that the inlet feature of each aperture comprises at least one mix-inducing feature, the mix-inducing feature comprising at least one projection extending crosswise into the aperture.
A microneedle array comprising a completely soluble formulation including polyvinylpyrrolidone for use in the intradermal delivery of interferon, characterized in that polyvinylpyrrolidone is the major constituent of the formulation, and the formulation comprises disaccharide, non-ionic surfactants, polyalcohol, in particular glycerin, or trehalose and/or polysorbate and/or glycerin.