mhurhangee/ep-ind-claims huggingface dataset:
An expiratory valve of a ventilation device, comprising a valve body having a fluid inlet and a fluid outlet for breathing air of a patient formed therein, said valve body having at least one reinforcing rib (36, 38) formed around the fluid inlet; wherein the at least one reinforcing rib (36, 38) extends outwardly with respect to an edge of the fluid inlet; wherein the valve body forms a cup-shaped valve plenum into which the fluid inlet opens, said cup-shaped valve plenum being at least partly enclosed by the valve body on its bottom side; wherein the valve body forms a valve bottom which at least partly encloses the valve plenum, said valve bottom extending in dish-like manner between the fluid inlet and an outer edge of the valve plenum, characterized in that the valve bottom extends in a flat to flat conical manner between its inner edge and its outer edge; and that the at least one reinforcing rib comprises a first reinforcing rib extending outwardly from the edge of the fluid inlet along the valve bottom. a valve body having a fluid inlet and a fluid outlet for breathing air of a patient formed therein, said valve body having at least one reinforcing rib (36, 38) formed around the fluid inlet; wherein the at least one reinforcing rib (36, 38) extends outwardly with respect to an edge of the fluid inlet; wherein the valve body forms a cup-shaped valve plenum into which the fluid inlet opens, said cup-shaped valve plenum being at least partly enclosed by the valve body on its bottom side; wherein the valve body forms a valve bottom which at least partly encloses the valve plenum, said valve bottom extending in dish-like manner between the fluid inlet and an outer edge of the valve plenum, characterized in that the valve bottom extends in a flat to flat conical manner between its inner edge and its outer edge; and that the at least one reinforcing rib comprises a first reinforcing rib extending outwardly from the edge of the fluid inlet along the valve bottom.
A production method for an extract, comprising: grounding a dry plant, and subjecting to extraction using ethyl acetate, to obtain a extraction residue, whereby the plant is Corchorus olitorius or mulukhiya; further subjecting the extraction residue to extraction using distilled water, to obtain a supernatant, and subjecting the supernatant to dialysis, to separate a component having a fractionation molecular weight of 12,000 or greater which is a fractionated component 1, and a component having a fractionation molecular weight of less than 12,000, subjecting the component having a fractionation molecular weight of less than 12,000 to dialysis, to obtain a component having a fractionation molecular weight of less than 6,000 and, further subjecting the component having a fractionation molecular weight of less than 6,000 to dialysis, to separate a component having a fractionation molecular weight of less than 3,400 which is a fractionated component 2. grounding a dry plant, and subjecting to extraction using ethyl acetate, to obtain a extraction residue, whereby the plant is Corchorus olitorius or mulukhiya; further subjecting the extraction residue to extraction using distilled water, to obtain a supernatant, and subjecting the supernatant to dialysis, to separate a component having a fractionation molecular weight of 12,000 or greater which is a fractionated component 1, and a component having a fractionation molecular weight of less than 12,000, subjecting the component having a fractionation molecular weight of less than 12,000 to dialysis, to obtain a component having a fractionation molecular weight of less than 6,000 and, further subjecting the component having a fractionation molecular weight of less than 6,000 to dialysis, to separate a component having a fractionation molecular weight of less than 3,400 which is a fractionated component 2.
A virtual reality ride system comprising: a headset (104; 604; 904) configured to be worn on a user's head, the headset including a display unit (605; 905) configured to display a video of an animated virtual environment and a motion-sensing unit (606; 906) configured to sense a position of the headset; a control unit (620; 920) including one or more processors configured to: receive information from the headset representing the position of the headset; perform render processing that renders the video of the virtual environment based on the information representing the position of the headset; perform event motion processing that generates first data representing motions associated with events in the virtual environment; and perform low-frequency motion processing that generates second data representing low-frequency vibrations unrelated to the events in the virtual environment; and a dynamic platform configured to: produce the motions associated with the events in the virtual environment based on the first data; and produce the low-frequency vibrations based on the second data, wherein the low-frequency vibrations include a frequency between about 5 Hz and 70 Hz. a headset (104; 604; 904) configured to be worn on a user's head, the headset including a display unit (605; 905) configured to display a video of an animated virtual environment and a motion-sensing unit (606; 906) configured to sense a position of the headset; a control unit (620; 920) including one or more processors configured to: receive information from the headset representing the position of the headset; perform render processing that renders the video of the virtual environment based on the information representing the position of the headset; perform event motion processing that generates first data representing motions associated with events in the virtual environment; and perform low-frequency motion processing that generates second data representing low-frequency vibrations unrelated to the events in the virtual environment; and receive information from the headset representing the position of the headset; perform render processing that renders the video of the virtual environment based on the information representing the position of the headset; perform event motion processing that generates first data representing motions associated with events in the virtual environment; and perform low-frequency motion processing that generates second data representing low-frequency vibrations unrelated to the events in the virtual environment; and a dynamic platform configured to: produce the motions associated with the events in the virtual environment based on the first data; and produce the low-frequency vibrations based on the second data, produce the motions associated with the events in the virtual environment based on the first data; and produce the low-frequency vibrations based on the second data, wherein the low-frequency vibrations include a frequency between about 5 Hz and 70 Hz.
An exhaust gas recirculation pump for an internal combustion engine comprising: an electric motor assembly including an electric motor disposed within an electric motor housing; characterised by a Roots device coupled to the electric motor by a transmission assembly, the Roots device including a housing defining an internal volume; rotors disposed in the internal volume and connected to the electric motor; wherein the electric motor housing includes a coolant path formed therein, the coolant path including a coolant inlet extending to a coolant outlet, said coolant inlet and outlet couple in use to an engine coolant circulation system. an electric motor assembly including an electric motor disposed within an electric motor housing; characterised by a Roots device coupled to the electric motor by a transmission assembly, the Roots device including a housing defining an internal volume; rotors disposed in the internal volume and connected to the electric motor; wherein the electric motor housing includes a coolant path formed therein, the coolant path including a coolant inlet extending to a coolant outlet, said coolant inlet and outlet couple in use to an engine coolant circulation system.
A polypeptide, comprising (i) at least one biologically active moiety comprising a clotting factor, (ii) an Fc region comprising at least two Fc moieties, and (iii) a cleavable scFc (cscFc) linker interposed between the two Fc moieties, wherein the cscFc linker is flanked by an enzymatic cleavage site both upstream and downstream of the cscFc linker, which results in cleavage of the cscFc linker. (i) at least one biologically active moiety comprising a clotting factor, (ii) an Fc region comprising at least two Fc moieties, and (iii) a cleavable scFc (cscFc) linker interposed between the two Fc moieties, wherein the cscFc linker is flanked by an enzymatic cleavage site both upstream and downstream of the cscFc linker, which results in cleavage of the cscFc linker.
A method for multichannel touch control of an all-in-one machine, wherein the all-in-one machine is an integrative equipment which combines the functions of television, TV, touch and personal computer, PC, the all-in-one machine having a function of channel switching between video graphics array, VGA, high-definition multimedia interface, HDMI, audio visual, AV and YPBPR channels, comprising the steps of: providing a channel display window on a user interface, and setting up link buttons between the channel display window and corresponding channel respectively (S101, S201); and setting up a multichannel touch control component on the user interface, receiving touch point information from a user, converting the touch point information into corresponding multichannel operation information, and performing operation on each channel based on the multichannel operation information; wherein the step of setting up a multichannel touch control component on the user interface, receiving touch point information from a user, converting the touch point information into corresponding multichannel operation information, and performing operation on each channel based on the multichannel operation information comprises: providing a transparent annotation window overlaying the channel display window, receiving touch point information from a user (S102, S202), converting the touch point information into annotations, and storing the annotations corresponding to each of the channels respectively. providing a channel display window on a user interface, and setting up link buttons between the channel display window and corresponding channel respectively (S101, S201); and setting up a multichannel touch control component on the user interface, receiving touch point information from a user, converting the touch point information into corresponding multichannel operation information, and performing operation on each channel based on the multichannel operation information; wherein the step of setting up a multichannel touch control component on the user interface, receiving touch point information from a user, converting the touch point information into corresponding multichannel operation information, and performing operation on each channel based on the multichannel operation information comprises: providing a transparent annotation window overlaying the channel display window, receiving touch point information from a user (S102, S202), converting the touch point information into annotations, and storing the annotations corresponding to each of the channels respectively.
Method for operating an internal combustion engine, in which method an exhaust gas, which is generated by the internal combustion engine, is routed across a 3-way catalyst which is arranged in the exhaust gas duct, and a lambda sensor detects a variable, which is characteristic of an exhaust gas lambda, upstream of the 3-way catalyst and forwards the said variable to an engine controller with an integrated regulator, wherein an average exhaust gas lambda λ m is set by the regulator of the engine controller by prespecification of a setpoint lambda value, and the average exhaust gas lambda λ m is deflected (lambda modulation) with prespecified periodic setpoint value variation alternately in the direction of a lean lambda value and a rich lambda value, characterized in that, in the event of the transition in the direction of the lean lambda value or in the event of the transition in the direction of the rich lambda value at a time t1 at which a sensor signal from the lambda sensor reaches a prespecified threshold value λ s, a regulator deviation ΔR is formed between a current actual regulator value R1 and a current setpoint regulator value, and a new setpoint regulator value R2 is ascertained by adding 2 times the regulator deviation ΔR to the current actual regulator value R1.
Collapsible hanging chair containing a frame, suspension securable to the frame and a first canvas supported by the frame, the first canvas defining a seat, wherein the frame contains three ring-shaped frame elements (10, 20, 30), of which - a first and second frame element (10, 20) are secured to each other along a first axis with a first pair of fasteners (123, 124), - the second and a third frame element (20, 30) are secured to each other along a second axis on a side of the second frame element opposite the first axis with a second pair of fasteners (233, 234), and - the first and third frame elements (10, 30) are secured to each other along a third axis on a side of the first frame element opposite the first axis with a third pair of fasteners (133, 134), wherein in an assembled and suspended state of the frame elements (10, 20, 30) the suspension is located outside of the frame, above the first frame element, and the second pair of fasteners (233, 234) securing the second and third frame elements (20, 30) to each other are located below the first frame element, the seat of the first canvas is located outside of the frame, extending outwardly from the second frame element, and the third frame element delimits a seat opening permitting access to the seat. - a first and second frame element (10, 20) are secured to each other along a first axis with a first pair of fasteners (123, 124), - the second and a third frame element (20, 30) are secured to each other along a second axis on a side of the second frame element opposite the first axis with a second pair of fasteners (233, 234), and - the first and third frame elements (10, 30) are secured to each other along a third axis on a side of the first frame element opposite the first axis with a third pair of fasteners (133, 134),
A marine propulsion system comprising: a marine propulsion device including a propeller shaft, an engine and an electric motor, a battery configured to supply an electric power to the electric motor; and a power generator configured to generate the electric power to be supplied therefrom to the battery; a controller configured to control the marine propulsion device; the marine propulsion device is configured to transmit a mechanical power from at least one of the engine and the electric motor to the propeller shaft, and is configured to be switchable among a plurality of drive modes including a first drive mode and a second drive mode, the first drive mode bringing about a state where the mechanical power is transmitted from only the engine to the propeller shaft, the second drive mode bringing about a state where the mechanical power is transmitted from only the electric motor to the propeller shaft when the engine is in an idling state and under the second drive mode, electric power is generated by the power generator when driven by the engine, wherein the controller is configured to control the marine propulsion device to be switched among the plurality of drive modes. a marine propulsion device including a propeller shaft, an engine and an electric motor, a battery configured to supply an electric power to the electric motor; and a power generator configured to generate the electric power to be supplied therefrom to the battery; a controller configured to control the marine propulsion device; the marine propulsion device is configured to transmit a mechanical power from at least one of the engine and the electric motor to the propeller shaft, and is configured to be switchable among a plurality of drive modes including a first drive mode and a second drive mode, the first drive mode bringing about a state where the mechanical power is transmitted from only the engine to the propeller shaft, the second drive mode bringing about a state where the mechanical power is transmitted from only the electric motor to the propeller shaft when the engine is in an idling state and under the second drive mode, electric power is generated by the power generator when driven by the engine, wherein the controller is configured to control the marine propulsion device to be switched among the plurality of drive modes.
A rheometer comprising: an upper heating/cooling assembly located above a sample gap; and a lower heating/cooling assembly located below the sample gap, wherein the upper heating/cooling assembly comprises at least a first substantially cylindrical heating element (208a, 208b) and a substantially cylindrical heat spreader wherein one of the at least a first substantially cylindrical heating element (208a, 208b) or the substantially cylindrical heat spreader is positioned within the other of the substantially cylindrical heat spreader or one of the at least a first substantially cylindrical heating element (208a, 208b), and wherein the upper heating/cooling assembly maintains a constant relationship with an upper geometry such that, in use, as the sample gap is changed the upper heating/cooling assembly moves together with the upper geometry. an upper heating/cooling assembly located above a sample gap; and a lower heating/cooling assembly located below the sample gap, wherein the upper heating/cooling assembly comprises at least a first substantially cylindrical heating element (208a, 208b) and a substantially cylindrical heat spreader wherein one of the at least a first substantially cylindrical heating element (208a, 208b) or the substantially cylindrical heat spreader is positioned within the other of the substantially cylindrical heat spreader or one of the at least a first substantially cylindrical heating element (208a, 208b), and wherein the upper heating/cooling assembly maintains a constant relationship with an upper geometry such that, in use, as the sample gap is changed the upper heating/cooling assembly moves together with the upper geometry.
Adapter for placing on a console of a processing machine for processing workpieces which preferably consist at least in sections of wood, wood-containing material, composite material or plastic, comprising a main body and a connection interface on the main body by means of which the adapter can be fixed to the console, a coupling which is configured for the connection of a suction and/or pressure hose, and a flange with a flange opening which, passing through the main body, is in pressure-tight line connection with the coupling and which is configured to be brought into a pressure-tight line connection with an output of an output piece of the console, characterised in that the connection interface can be fixed to the console in a force-locking manner by means of a clamp fastening (24, 26, 28).
A voided latex particle comprising a hollow interior and an outer shell, wherein the outer shell is comprised of an outer shell polymer having a Tg of at least above 45° C and bearing functional groups selected from 1,3-diketo, amino, ureido, urea, hydroxyl, polyether, silane, phosphate, epoxy, fluorocarbon, aldehyde, ketone, acetoacetyl, or combinations thereof and wherein the voided latex particle is non-film-forming and opaque wherein the outer shell polymer is a copolymer of a vinyl aromatic monomer and a free radical polymerizable ethylenically unsaturated monomer containing a functional group as defined above, the copolymer comprising 0.1 to 10 weight % of the free radical polymerizable ethylenically unsaturated monomer containing the functional group.
A method for detecting Ep-ICD associated with thyroid cancer in a subject comprising: (a) detecting or identifying in a sample obtained from the subject Ep-ICD; and (b) comparing the detected amount with an amount detected for a standard. (a) detecting or identifying in a sample obtained from the subject Ep-ICD; and (b) comparing the detected amount with an amount detected for a standard.
Isolated or purified novel mogroside compounds having chemical structures represented in formulae 8, 9, 11, 12, 14 or 15: Formula 8 (Fig. 8) Formula 9 (Fig. 9) Formula 11 (Fig. 11) Formula 12 (Fig. 12) Formula 14 (Fig. 14) Formula 15 (Fig. 15)
A method for transmitting a preamble in a communication system comprising: obtaining, by a user equipment, UE, physical random access channel, PRACH, parameter sets, wherein each of the PRACH parameter sets is associated with a corresponding coverage enhancement, CE, level, and the each of the PRACH parameter sets includes frequency information, subframe information, a number of repetition per preamble transmission, and a maximum number of preamble transmissions; obtaining a first CE level as an initial CE level, wherein the initial CE level is indicated by a base station or determined based on a measured reference signal received power, RSRP; performing a first preamble transmission by using a PRACH parameter set corresponding to the first CE level; and performing a second preamble transmission by using a PRACH parameter set corresponding to a second CE level being a next enhanced CE level to the first CE level, if a counter of the first preamble transmission is equal to 1 + a maximum number of preamble transmission corresponding to the first CE level. obtaining, by a user equipment, UE, physical random access channel, PRACH, parameter sets, wherein each of the PRACH parameter sets is associated with a corresponding coverage enhancement, CE, level, and the each of the PRACH parameter sets includes frequency information, subframe information, a number of repetition per preamble transmission, and a maximum number of preamble transmissions; obtaining a first CE level as an initial CE level, wherein the initial CE level is indicated by a base station or determined based on a measured reference signal received power, RSRP; performing a first preamble transmission by using a PRACH parameter set corresponding to the first CE level; and performing a second preamble transmission by using a PRACH parameter set corresponding to a second CE level being a next enhanced CE level to the first CE level, if a counter of the first preamble transmission is equal to 1 + a maximum number of preamble transmission corresponding to the first CE level.
A thermoform packaging machine comprising a forming station for forming troughs in a film, an infeed station and a sealing station with a sealing tool, characterized in that a holder is provided for retaining the products in the troughs, and that a relative movement in a production direction is provided between the holder and the sealing tool, wherein either the holder comprises clamping jaws configured for retaining products at a plurality of positions in the troughs and the film, or the holder includes a downholder configured for retaining products at a plurality of positions in the troughs and the film.