mhurhangee/patent-ind-claim-en huggingface dataset:
Liquid drug dosing unit , including a valve clutch device and a stationary member , the valve clutch device including: - a central member , the central member extending along a central axis (A), the central member including a drive coupler , the drive coupler being designed to receive a driving torque around the central axis (A); - a coupling member , the coupling member including at least one coupling pin , the at least one coupling pin extending parallel to the central axis (A); - a valve member including a cylinder and a valve member aperture in fluidic communication with an inner volume of the cylinder, the valve member being sealingly and rotatably beared by the stationary member around the central axis (A) between an inlet valve position and an outlet valve position; - a sleeve member , the sleeve member being designed to rotationally engage the valve member , the sleeve member including at least one clamping member ; - a valve member block , the valve member block blocking rotational movement of the valve member in the inlet valve position and the outlet valve position, respectively; the stationary member including an inlet aperture and an outlet aperture, wherein the valve member aperture is in fluidic communication with the inlet aperture in the inlet valve position and aternatively in fluidic communication with the outlet aperture in the outlet vale position; wherein the valve clutch device is reversibly changeable between an unengaged configuration where a driving torque that is received by the central member is not transmitted to the sleeve member and an engaged configuration where the at least one coupling pin is clamped between the elongated central member and the at least one clamping member , thereby transmitting a driving torque that is received by the central member via the sleeve member to the valve member . - a central member , the central member extending along a central axis (A), the central member including a drive coupler , the drive coupler being designed to receive a driving torque around the central axis (A); - a coupling member , the coupling member including at least one coupling pin , the at least one coupling pin extending parallel to the central axis (A); - a valve member including a cylinder and a valve member aperture in fluidic communication with an inner volume of the cylinder, the valve member being sealingly and rotatably beared by the stationary member around the central axis (A) between an inlet valve position and an outlet valve position; - a sleeve member , the sleeve member being designed to rotationally engage the valve member , the sleeve member including at least one clamping member ; - a valve member block , the valve member block blocking rotational movement of the valve member in the inlet valve position and the outlet valve position, respectively;
A computer-implemented method for outputting an indication of visual attention/motoric dysfunction of a subject and/or an indication of executive cognitive dysfunction of the subject, the method comprising the steps of: following a test comprising a plurality of targets that are to be completed by the subject, receiving information on the time taken to complete each of the plurality of targets by the subject; determining a regression line for the subject as a linear fit of the received information on the time taken to complete each of the plurality of targets plotted against information on the time taken to complete each of the plurality of targets for a reference group of subjects; determining that the subject has a visual attention/motoric dysfunction based on a slope of the determined regression line and/or determining that the subject has an executive cognitive dysfunction based on an offset of the determined regression line; and outputting an indication of whether the subject has a visual attention/motoric dysfunction and/or an indication of whether the subject has an executive cognitive dysfunction. following a test comprising a plurality of targets that are to be completed by the subject, receiving information on the time taken to complete each of the plurality of targets by the subject; determining a regression line for the subject as a linear fit of the received information on the time taken to complete each of the plurality of targets plotted against information on the time taken to complete each of the plurality of targets for a reference group of subjects; determining that the subject has a visual attention/motoric dysfunction based on a slope of the determined regression line and/or determining that the subject has an executive cognitive dysfunction based on an offset of the determined regression line; and outputting an indication of whether the subject has a visual attention/motoric dysfunction and/or an indication of whether the subject has an executive cognitive dysfunction.
A method of forming a prosthetic heart valve , comprising: providing a leaflet frame having a generally tubular shape, the leaflet frame defining a plurality of leaflet windows ; providing a film ; wrapping the film about the leaflet frame bringing more than one layer of the film into contact with additional layers of the film defining at least one leaflet extending from each of the leaflet windows, each leaflet having two leaflet sides , a planar central zone , a leaflet base and a free edge opposite the leaflet base, wherein the two leaflet sides diverge from the leaflet base; wherein each leaflet base is truncated, providing a relatively flat leaflet base; and wherein each leaflet base is defined to be an attachment line that is perpendicular to a valve axis at the leaflet base; and bonding the layers of film to itself and to the leaflet frame.
A communication device configured for wireless communications, the communication device comprising: a detector configured to perform demodulation on a plurality of received modulation symbols to identify a plurality of source transmitters (110-140) for the plurality of received modulation symbols, wherein the identified plurality of source transmitters (110-140) comprises each of a predefined set of transmitters; and a selector configured to compare spectrum envelopes of the plurality of received modulation symbols with a spectrum envelope of a target received modulation symbol to select one or more of the plurality of source transmitters, wherein the one or more of the plurality of source transmitters (110-140) are a reduced subset of the plurality of source transmitters (110-140), wherein the target received modulation symbol is not part of the plurality of the received modulation symbols, and wherein the target received modulation symbol and the plurality of the received modulation symbols are in the same symbol period, the detector further configured to perform demodulation on the target received modulation symbol based on the selected one or more of the plurality of source transmitters (110-140) to identify a source transmitter for the target received modulation symbol from the reduced subset. a detector configured to perform demodulation on a plurality of received modulation symbols to identify a plurality of source transmitters (110-140) for the plurality of received modulation symbols, wherein the identified plurality of source transmitters (110-140) comprises each of a predefined set of transmitters; and a selector configured to compare spectrum envelopes of the plurality of received modulation symbols with a spectrum envelope of a target received modulation symbol to select one or more of the plurality of source transmitters, wherein the one or more of the plurality of source transmitters (110-140) are a reduced subset of the plurality of source transmitters (110-140), wherein the target received modulation symbol is not part of the plurality of the received modulation symbols, and wherein the target received modulation symbol and the plurality of the received modulation symbols are in the same symbol period, the detector further configured to perform demodulation on the target received modulation symbol based on the selected one or more of the plurality of source transmitters (110-140) to identify a source transmitter for the target received modulation symbol from the reduced subset.
Transport system, having a horizontal transport installation which has a horizontal stator by means of which at least one horizontal carrier is movable in a horizontal plane , and having a vertical transport installation which has a vertical stator by means of which at least one vertical carrier is movable in a vertical plane , wherein at least one mounting for receiving a payload is provided, characterized in that the mounting has first engagement means and separate second engagement means , wherein the mounting by way of the first engagement means thereof is able to be brought to engage in a form-fitting manner with the horizontal carrier , and wherein the mounting by way of the second engagement means thereof is able to be brought to engage in a form-fitting manner with the vertical carrier , wherein the two form-fitting engagements are designed such that the mounting is supported on the respective carrier in relation to gravity, and is secured in relation to horizontal displacement.
A controlling device having terminals, the controlling device being configured for connection to an electrical circuit , the electrical circuit comprising: - a first user device having two terminals between which a first voltage is configured to be applied, the first user device being configured to be switched between an on-state and an off-state, - a second user device configured to be connected in series with the first device and having two terminals between which a second voltage is configured to be applied, the second user device comprising a button configured to be activated so as to make the first user device switch to the on-state; the controlling device being configured to be connected in parallel with the first user device and comprising a current detector and a switch , the controlling device being configured to: - close the switch to absorb a leakage current flowing through the electrical circuit , the leakage current being the current flowing through the electrical circuit when the button of the second user device is not activated, wherein the leakage current is below a first predetermined threshold, and - open the switch when an electric current flowing through the controlling device is above the predetermined threshold, and - control the voltage or current between the terminals of the controlling device , so as to ensure that the second user device is supplied with the second voltage or current. - a first user device having two terminals between which a first voltage is configured to be applied, the first user device being configured to be switched between an on-state and an off-state, - a second user device configured to be connected in series with the first device and having two terminals between which a second voltage is configured to be applied, the second user device comprising a button configured to be activated so as to make the first user device switch to the on-state; - close the switch to absorb a leakage current flowing through the electrical circuit , the leakage current being the current flowing through the electrical circuit when the button of the second user device is not activated, wherein the leakage current is below a first predetermined threshold, and - open the switch when an electric current flowing through the controlling device is above the predetermined threshold, and - control the voltage or current between the terminals of the controlling device , so as to ensure that the second user device is supplied with the second voltage or current.
A system for a gas turbine engine extending along a centerline (C), the system comprising: a high pressure turbine disk ; a high pressure turbine coverplate axially rearward of the high pressure turbine disk and having an arm that extends axially rearward; a low pressure turbine disk axially rearward of the high pressure turbine coverplate , the low pressure turbine disk having a slot into which the arm of the high pressure turbine coverplate extends; a low pressure turbine coverplate at least partially axially between the high pressure turbine coverplate and the low pressure turbine disk ; an interface between the low pressure turbine disk and the low pressure turbine coverplate , the system being characterised in that the interface being radially outward from the arm of the high pressure turbine coverplate and having a groove ; and a ring within the groove at the interface and extending radially inward towards the arm of the high pressure turbine coverplate , the ring being configured to prevent axial movement of the low pressure turbine coverplate relative to the low pressure turbine disk and to form a first metering point to meter air flowing between the high pressure turbine coverplate and the low pressure turbine disk ; and wherein the interface includes low pressure turbine disk teeth and low pressure turbine coverplate teeth that alternate and interlock in a circumferential direction, each of the low pressure turbine disk teeth and the low pressure turbine coverplate teeth include the groove with the ring positioned within the groove to prevent movement of the low pressure turbine disk teeth relative to the low pressure turbine coverplate teeth . a high pressure turbine disk ; a high pressure turbine coverplate axially rearward of the high pressure turbine disk and having an arm that extends axially rearward; a low pressure turbine disk axially rearward of the high pressure turbine coverplate , the low pressure turbine disk having a slot into which the arm of the high pressure turbine coverplate extends; a low pressure turbine coverplate at least partially axially between the high pressure turbine coverplate and the low pressure turbine disk ; an interface between the low pressure turbine disk and the low pressure turbine coverplate , the system being characterised in that the interface being radially outward from the arm of the high pressure turbine coverplate and having a groove ; and a ring within the groove at the interface and extending radially inward towards the arm of the high pressure turbine coverplate , the ring being configured to prevent axial movement of the low pressure turbine coverplate relative to the low pressure turbine disk and to form a first metering point to meter air flowing between the high pressure turbine coverplate and the low pressure turbine disk ; and
Method for performing a thermal cycling process on the principle of the Organic Rankine Cycle for converting energy from a heat source into mechanical energy, in which process a working medium is circulated in a circuit and the circuit comprises an evaporator for evaporating the working medium, a downstream first turbine , a downstream condenser , a downstream feed pump and a return to the evaporator , wherein the working medium, a) after passing a first turbine stage of the first turbine , passes a first recuperator , a second turbine stage of the first turbine and a second recuperator or b) after passing the first turbine , passes a first recuperator , a second turbine and a second recuperator , characterized in that the working medium, after passing the first turbine stage of the first turbine and before entering the second turbine stage of the first turbine , flows through the first recuperator and heat is thereby extracted from the working medium by the first recuperator and, after passing the second turbine stage , flows through the second recuperator and heat is thereby extracted from the working medium by the second recuperator , or the working medium, after passing the first turbine and before entering the second turbine , flows through the first recuperator and heat is thereby extracted from the working medium by the first recuperator and, after passing the second turbine , flows through the second recuperator and heat is extracted from the working medium by the second recuperator . wherein the working medium, a) after passing a first turbine stage of the first turbine , passes a first recuperator , a second turbine stage of the first turbine and a second recuperator or b) after passing the first turbine , passes a first recuperator , a second turbine and a second recuperator , a) after passing a first turbine stage of the first turbine , passes a first recuperator , a second turbine stage of the first turbine and a second recuperator or b) after passing the first turbine , passes a first recuperator , a second turbine and a second recuperator , characterized in that the working medium, after passing the first turbine stage of the first turbine and before entering the second turbine stage of the first turbine , flows through the first recuperator and heat is thereby extracted from the working medium by the first recuperator and, after passing the second turbine stage , flows through the second recuperator and heat is thereby extracted from the working medium by the second recuperator , or the working medium, after passing the first turbine and before entering the second turbine , flows through the first recuperator and heat is thereby extracted from the working medium by the first recuperator and, after passing the second turbine , flows through the second recuperator and heat is extracted from the working medium by the second recuperator .
An electrode material, wherein the electrode material has a particulate shape, the electrode material is formed of a carbonaceous film on surfaces of electrode active material particles, each of the electrode active material particles is an agglomerated particle that is an agglomerate of primary particles, the carbonaceous film is constituted by randomly stacked graphene layers, and an average of plane intervals between planes in the graphene layers is 0.3466 nm to 0.370 nm, wherein a thickness of the carbonaceous film is in a range of 0.5 nm to 20 nm, and wherein a content ratio of the carbonaceous film with respect to a total mass of the electrode material is in a range of 0.5% by mass to 5.0% by mass, and the electrode active material particles are Li x Fe y D z PO 4 , wherein D represents one or more selected from Mg, Ca, S, Sr, Ba, Ti, Zn, B, Al, Ga, In, Si, Ge, Sc, Y, and rare earth elements, 0<x<2, 0<y<1.5, and 0≤z<1.5, so that an average of discharge capacity ratios between a 35C discharge capacity at -10°C of a single particle of the electrode material and a 1C discharge capacity at -10°C of a single particle of the electrode material is 0.50 or more, wherein the 35C discharge capacity refers to a discharge capacity obtained when the electrode material is discharged from the full charge state to 2.0 V when a current value at which the maximum discharge capacity is fully discharged in 1/35 hours is applied to the electrode material, and the 1C discharge capacity refers to a discharge capacity obtained when the electrode material is discharged from the full charge state to 2.0 V when a current value at which the maximum discharge capacity is fully discharged in 1 hour is applied to the electrode material, wherein the maximum discharge capacity refers to the discharge capacity (nAh) obtained when the electrode material is constant-current-charged at 0.1 nA up to an appropriate potential of the electrode material so as to be in the full charge state, and then is discharged at 0.1 nA to 2.0 V.
Connecting device for connecting a container (F) containing a powder/granular product to a device, the connecting device comprising: a base body defining a connecting opening to/in which the container (F), in accordance with the intended use, is guided for connecting from an external environment with a transfer section (F1) which can be opened and closed again for removal and/or introduction of the powder/granular product from/into the container (F) by a user; characterized in that the connecting device is configured to generate a gas flow in the base body in such a way that leakage of the powder/granular product through the connection opening into the external environment is prevented both in a state in which the transfer section (F1) is guided to/into the connecting opening and in a state in which the transfer section is not guided to/into the connecting opening . a base body defining a connecting opening to/in which the container (F), in accordance with the intended use, is guided for connecting from an external environment with a transfer section (F1) which can be opened and closed again for removal and/or introduction of the powder/granular product from/into the container (F) by a user; characterized in that the connecting device is configured to generate a gas flow in the base body in such a way that leakage of the powder/granular product through the connection opening into the external environment is prevented both in a state in which the transfer section (F1) is guided to/into the connecting opening and in a state in which the transfer section is not guided to/into the connecting opening .
A power slide with a motor directly connected to a Lead Screw , comprising a left slide and a right slide , wherein the left slide and the right slide each comprise: a top rail and a bottom rail , wherein the top rail is arranged above the bottom rail and is slidably connected to the bottom rail ; a power motor fixed to a lower surface of the top rail through a motor bracket ; a Lead Screw arranged above the bottom rail in parallel and having an end connected to the power motor and an end rotatably connected to the lower surface of the top rail ; a threaded assembly , wherein a bottom of the threaded assembly is fixedly connected to an upper surface of the bottom rail , and the Lead Screw horizontally penetrates through the threaded assembly and is in threaded fit with the threaded assembly, characterized in that a first slot and a second slot are formed in two ends of the top rail , respectively, a retainer ring fixed to the end, close to the power motor of the Lead Screw and located in the first slot , wherein a gap is formed between the retainer ring and the first slot , and the Lead Screw and a rotor shaft of the power motor are integrally formed. a top rail and a bottom rail , wherein the top rail is arranged above the bottom rail and is slidably connected to the bottom rail ; a power motor fixed to a lower surface of the top rail through a motor bracket ; a Lead Screw arranged above the bottom rail in parallel and having an end connected to the power motor and an end rotatably connected to the lower surface of the top rail ; a threaded assembly , wherein a bottom of the threaded assembly is fixedly connected to an upper surface of the bottom rail , and the Lead Screw horizontally penetrates through the threaded assembly and is in threaded fit with the threaded assembly, characterized in that a first slot and a second slot are formed in two ends of the top rail , respectively, a retainer ring fixed to the end, close to the power motor of the Lead Screw and located in the first slot , wherein a gap is formed between the retainer ring and the first slot , and the Lead Screw and a rotor shaft of the power motor are integrally formed.