mhurhangee/ep-ind-claims huggingface dataset:
A system configured to provide a pressurized flow of breathable gas to the airway of a subject, the system comprising: means for generating the pressurized flow of breathable gas such that one or more gas parameters of the pressurized flow of breathable gas provide a therapeutic benefit to the subject; means for delivering the pressurized flow of breathable gas to the airway of the subject; and means for creating stochastic fluctuations (24,26,38) in pressure of the pressurized flow of breathable gas at or near the airway of the subject, characterized in that the means for creating stochastic fluctuations (24,26,38) are further configured such that the stochastic fluctuations in pressure mimic oscillations in pressure that would be caused by passing gas provided to and/or received from the airway of the subject through a water container; in that the means for creating stochastic fluctuations comprises a processor, a fluctuation module executable via the processor, and a pressure fluctuation valve; and in that the fluctuation module is configured to control the pressure fluctuation valve in a stochastic manner to (a) to begin and/or end the stochastic fluctuations and (b) define or set one or more of a range of frequencies of the stochastic fluctuations, a mean or median frequency of the stochastic fluctuations, a range of magnitudes of the stochastic fluctuations, a mean or median magnitude of the stochastic fluctuations, a range of pressure levels within which the stochastic fluctuations occur, and a maximum deviation away from a mean pressure level. means for generating the pressurized flow of breathable gas such that one or more gas parameters of the pressurized flow of breathable gas provide a therapeutic benefit to the subject; means for delivering the pressurized flow of breathable gas to the airway of the subject; and means for creating stochastic fluctuations (24,26,38) in pressure of the pressurized flow of breathable gas at or near the airway of the subject, characterized in that the means for creating stochastic fluctuations (24,26,38) are further configured such that the stochastic fluctuations in pressure mimic oscillations in pressure that would be caused by passing gas provided to and/or received from the airway of the subject through a water container; in that the means for creating stochastic fluctuations comprises a processor, a fluctuation module executable via the processor, and a pressure fluctuation valve; and in that the fluctuation module is configured to control the pressure fluctuation valve in a stochastic manner to (a) to begin and/or end the stochastic fluctuations and (b) define or set one or more of a range of frequencies of the stochastic fluctuations, a mean or median frequency of the stochastic fluctuations, a range of magnitudes of the stochastic fluctuations, a mean or median magnitude of the stochastic fluctuations, a range of pressure levels within which the stochastic fluctuations occur, and a maximum deviation away from a mean pressure level.
A microelectromechanical system (MEMS) (100, 200) with an electromechanical microswitch for switching an electrical signal in particular a radio frequency signal (RFMEMS), in particular in a GHz range, comprising: - a multi-level conductive path layer stack (102, 202) arranged on a substrate (101, 201), wherein conductive paths (111-115, 211-215) of the multi-level conductive path layer stack arranged in different conductive levels (M1-M5) are insulated from one another through electrically insulating layers (103, 203) and electrically connected with one another through Via contacts (104, 204), - an electromechanical switch which is integrated in a recess (105, 205) of the multi-level conductive path layer stack (102, 202) and which includes a contact pivot, an opposite contact and at least one drive electrode (30, 50) for the contact pivot, wherein the contact pivot, the opposite contact and the at least one drive electrode (30, 50) respectively form a portion of a conductive level (M1-M5) of the multi-level layer stack (102, 202), and characterized in that the opposite contact includes a metal-insulator-metal structure (24, 25, 26) at a distal end oriented towards the contact pivot. - a multi-level conductive path layer stack (102, 202) arranged on a substrate (101, 201), wherein conductive paths (111-115, 211-215) of the multi-level conductive path layer stack arranged in different conductive levels (M1-M5) are insulated from one another through electrically insulating layers (103, 203) and electrically connected with one another through Via contacts (104, 204), - an electromechanical switch which is integrated in a recess (105, 205) of the multi-level conductive path layer stack (102, 202) and which includes a contact pivot, an opposite contact and at least one drive electrode (30, 50) for the contact pivot, wherein
A fitting for a vertical sliding element comprising a pair of guide rails provided for arrangement on an element frame, a pair of support bars each having a plurality of guide elements, by means of which the support bar is movably guided in the guide rail, wherein in each case the support bars are provided with at least two parking scissors, via which a sash can be connected to the support bars, wherein the parking scissors are designed to park the sash in parallel from a closed position to a partially open position, wherein the fitting is designed in such a way that the sash can be connected to the guide rails via the pair of support bars, that the support bars form support elements for the sash, via which the sash can be movably held in the guide rails and that the parking scissors are connected to the support bar in an articulated fashion, on the one hand, and can be connected to the sash in an articulated fashion, on the other hand, and wherein the fitting is designed in such a way that the support bars are aligned, with the longitudinal axes thereof, in parallel or substantially in parallel to the longitudinal axes of the guide rails and remain in the area of the element frame during their instalment in a vertical sliding element when the sash is swung out in parallel from the closed position to the partially open position.
A self-compressing mastic asphalt mixture, in particular for roadway topcoats, asphalt intermediate layers, asphalt binder layers and/or asphalt sealing layers, preferably of class 0/8 or 0/5, consisting of stone chippings, sand, filler and binding agent, as well as optionally additives, wherein the total mass of all components is 100 M.-%, characterized in that the stone chippings content having aggregate > 1 mm lies between 65 M.-% and 80 M.-%, the sand content of natural and/or crushed sand having a grain size > 0.063 mm and ≤ 2 mm lies between 2 M.-% and 15 M.-%, the filler content having aggregate ≤ 0.063 mm lies between 15 M.-% and 20 M.-%, and the binding agent content lies between 6.8 M.-% and 7.5 M.-%.
Cooking appliance comprising at least one cooking chamber, at least one cooking chamber opening, at least one door that seals the cooking chamber and a removable collecting device, at least one removable collecting device being provided in a region between a front frame and the door, below the at least one cooking chamber opening of the at least one cooking chamber, characterised in that the collecting device is arranged above hinges, on which the door sealing the cooking chamber is fixed, such that the hinges are concealed by the collecting device when the door is open.
An engine including: a transmission having a driving pulley shaft and a driven pulley shaft, and a crankcase which houses a crankshaft and can be split into two parts along a splitting plane (Sl) passing along an axis of the crankshaft; and a transmission case housing the driving pulley shaft and the driven pulley shaft, wherein the transmission case includes a support (33a, 33b) for the driving pulley shaft and a support (34a, 34b) for the driven pulley shaft, one of said parts of the crankcase is coupled to one section of the transmission case, and the other of said parts of the crankcase is coupled to another section of the transmission case; characterized in that each of the one part and the other part of the crankcase is fixed respectively to the one section and the another section of the transmission case by a respective fastening member. a transmission having a driving pulley shaft and a driven pulley shaft, and a crankcase which houses a crankshaft and can be split into two parts along a splitting plane (Sl) passing along an axis of the crankshaft; and a transmission case housing the driving pulley shaft and the driven pulley shaft, wherein the transmission case includes a support (33a, 33b) for the driving pulley shaft and a support (34a, 34b) for the driven pulley shaft, one of said parts of the crankcase is coupled to one section of the transmission case, and the other of said parts of the crankcase is coupled to another section of the transmission case; characterized in that each of the one part and the other part of the crankcase is fixed respectively to the one section and the another section of the transmission case by a respective fastening member.
Tank outlet connection apparatus for connecting to a tank outlet of a liquid tank of a beverage preparation apparatus, having a flow path (4; 46) passing through the tank outlet connection apparatus (2; 44), wherein a sensor arrangement (14; 62) integrated into the tank outlet connection apparatus (2; 44), which has at least one fill level sensor (18; 64), a flow rate sensor and a temperature sensor, is embodied such that it is possible for the fill level sensor (18; 64) to measure a fill level within a liquid tank connected to the tank outlet connection apparatus (2; 44), for the flow rate sensor to measure a flow rate of liquid through the tank outlet connection apparatus (2; 44) and for the temperature sensor to measure the temperature of a liquid situated in the flow path (4; 46) and/or in a liquid tank connected to the tank outlet connection apparatus (2; 44) and that all sensors (16; 18; 20, 22; 64) of the sensor arrangement (14; 62) which are integrated into the tank outlet connection apparatus (2; 44) have a shared sensor electronics unit (26; 66) and shared supply and communication ports.
A glass-fiber-yarn joined body, comprising: a first glass fiber yarn; a second glass fiber yarn; and a connection which is a portion where the terminal end of the first glass fiber yarn and the starting end of the second glass fiber yarn are superimposed and is a portion from the terminal edge of the first glass fiber yarn to the starting edge of the second glass fiber yarn; wherein a resin yarn is wound around the ends of both of the glass fiber yarns (2, 3), the resin yarn is a yarn made of a thermoplastic resin or a thermosetting resin, characterized in that the connection has a width W 1 in a range from 20 to 40 mm, and when a connection diameter R as a total of diameters of the respective glass fiber yarns (2,3) and a thickness of the resin yarn wound around the connection is in a range of 500 to 5000 μm and a mass of each of the glass fiber yarns (2,3) is in a range of 200 to 6000 tex, a value of a ratio of mass of the respective glass fiber yarn (2,3) relative to the connection diameter R (mass of glass fiber yarn / connection diameter) is in a range of 0.32 to 2.00 tex/μm. a first glass fiber yarn; a second glass fiber yarn; and a connection which is a portion where the terminal end of the first glass fiber yarn and the starting end of the second glass fiber yarn are superimposed and is a portion from the terminal edge of the first glass fiber yarn to the starting edge of the second glass fiber yarn; wherein a resin yarn is wound around the ends of both of the glass fiber yarns (2, 3), the resin yarn is a yarn made of a thermoplastic resin or a thermosetting resin, characterized in that the connection has a width W 1 in a range from 20 to 40 mm, and when a connection diameter R as a total of diameters of the respective glass fiber yarns (2,3) and a thickness of the resin yarn wound around the connection is in a range of 500 to 5000 μm and a mass of each of the glass fiber yarns (2,3) is in a range of 200 to 6000 tex, a value of a ratio of mass of the respective glass fiber yarn (2,3) relative to the connection diameter R (mass of glass fiber yarn / connection diameter) is in a range of 0.32 to 2.00 tex/μm.
An aircraft comprising: a fuselage having a longitudinal axis extending through the fuselage front end and the fuselage rear end; a foldable wing located on the fuselage and being movable between a flight position wherein the wing is generally perpendicular to the longitudinal axis, and a stowed position wherein the wing is generally parallel to the longitudinal axis; a pair of stabilizing wings (140, 142) having an anhedral orientation disposed on the fuselage adjacent to the fuselage rear end when the foldable wing is in the flight position; and a rear landing gear connected directly to the fuselage and disposed adjacent to the pair of stabilizing wings (140, 142). a fuselage having a longitudinal axis extending through the fuselage front end and the fuselage rear end; a foldable wing located on the fuselage and being movable between a flight position wherein the wing is generally perpendicular to the longitudinal axis, and a stowed position wherein the wing is generally parallel to the longitudinal axis; a pair of stabilizing wings (140, 142) having an anhedral orientation disposed on the fuselage adjacent to the fuselage rear end when the foldable wing is in the flight position; and a rear landing gear connected directly to the fuselage and disposed adjacent to the pair of stabilizing wings (140, 142).
A mixer, comprising: a Gilbert cell mixer core having second nodes (313, 313') receiving a first differential input signal (LO+/LO-) and first nodes (311, 311') providing a differential output signal (IF+/IF-); a pair of load devices respectively coupled between the first nodes (311, 311') of the Gilbert cell mixer core and a first fixed voltage (Vcc); a dynamic current steering cell having third nodes (331, 331') and fourth nodes (333, 333'), the third nodes being coupled to the second nodes (313, 313'), and comprising: first MOS transistors (T3, T6) coupled between the third and fourth nodes thereof; and second MOS transistors (T4, T5) coupled between the fourth nodes and a third fixed voltage (Vdd), a transconductor cell coupled between the fourth nodes (333, 333') and a second fixed voltage and receiving a second differential input signal (RF+/RF-), characterized in that the dynamic current steering cell alternately steers current of the transconductor cell to or away from the Gilbert cell mixer core, and wherein gates of the first MOS transistors (T3, T6) and gates of the second MOS transistors (T4, T5) respectively receive a reference voltage (Vref) and a steering voltage, or gates of the first MOS transistors (T3, T6) and gates of the second MOS transistors (T4, T5) respectively receive the steering voltage and the reference voltage, wherein a frequency of the steering voltage is twice of that of the first differential input signal. a Gilbert cell mixer core having second nodes (313, 313') receiving a first differential input signal (LO+/LO-) and first nodes (311, 311') providing a differential output signal (IF+/IF-); a pair of load devices respectively coupled between the first nodes (311, 311') of the Gilbert cell mixer core and a first fixed voltage (Vcc); a dynamic current steering cell having third nodes (331, 331') and fourth nodes (333, 333'), the third nodes being coupled to the second nodes (313, 313'), and comprising: first MOS transistors (T3, T6) coupled between the third and fourth nodes thereof; and second MOS transistors (T4, T5) coupled between the fourth nodes and a third fixed voltage (Vdd), first MOS transistors (T3, T6) coupled between the third and fourth nodes thereof; and second MOS transistors (T4, T5) coupled between the fourth nodes and a third fixed voltage (Vdd), a transconductor cell coupled between the fourth nodes (333, 333') and a second fixed voltage and receiving a second differential input signal (RF+/RF-),
A power adapter, comprising a power conversion unit and a charging interface, the power conversion unit being configured to form a charging loop with a terminal via the charging interface so as to charge a battery of the terminal, and wherein, the power adapter further comprises: a communication unit, configured to receive voltage indicative information from the terminal when the power adapter charges the terminal, wherein the voltage indicative information indicates an input voltage of the terminal from the power adapter detected by the terminal; a detection unit, configured to detect an output voltage of the power adapter; and an anomaly handling unit, configured to determine, according to a difference between the input voltage and the output voltage, whether an impedance of the charging loop is abnormal, and to control the charging loop to enter into a protection state if the impedance of the charging loop is abnormal; characterised in that, the anomaly handling unit is configured to: determine a level of the impedance according to the difference; and control, according to the level of the impedance, the charging loop to enter into a protection state corresponding to the level. a communication unit, configured to receive voltage indicative information from the terminal when the power adapter charges the terminal, wherein the voltage indicative information indicates an input voltage of the terminal from the power adapter detected by the terminal; a detection unit, configured to detect an output voltage of the power adapter; and an anomaly handling unit, configured to determine, according to a difference between the input voltage and the output voltage, whether an impedance of the charging loop is abnormal, and to control the charging loop to enter into a protection state if the impedance of the charging loop is abnormal; characterised in that, determine a level of the impedance according to the difference; and control, according to the level of the impedance, the charging loop to enter into a protection state corresponding to the level.
An electronic device, comprising: a body, defining a receiving cavity; a functional assembly, rotatably connected to the body and configured to rotate in a first direction and a second direction from an inside of the receiving cavity to an outside of the receiving cavity; wherein a rotational axis of the functional assembly extends along a thickness direction of the electronic device, one of the first and the second directions is a clockwise direction, and the other one is an anti-clockwise direction; and a rotation shaft fixed on one of the functional assembly and the body, wherein the functional assembly is rotatably connected to the body via the rotation shaft, and the rotational axis is an axle center of the rotation shaft; characterized in that the electronic device further comprises a first sliding mechanism arranged between the functional assembly and the body, and the functional assembly is configured to slide along the first sliding mechanism to define an arc-shaped trajectory, wherein a center of the arc-shaped trajectory lies on the axle center of the rotation shaft. a body, defining a receiving cavity; a functional assembly, rotatably connected to the body and configured to rotate in a first direction and a second direction from an inside of the receiving cavity to an outside of the receiving cavity; wherein a rotational axis of the functional assembly extends along a thickness direction of the electronic device, one of the first and the second directions is a clockwise direction, and the other one is an anti-clockwise direction; and a rotation shaft fixed on one of the functional assembly and the body, wherein the functional assembly is rotatably connected to the body via the rotation shaft, and the rotational axis is an axle center of the rotation shaft; characterized in that the electronic device further comprises a first sliding mechanism arranged between the functional assembly and the body, and the functional assembly is configured to slide along the first sliding mechanism to define an arc-shaped trajectory, wherein a center of the arc-shaped trajectory lies on the axle center of the rotation shaft.
A greenhouse comprising outside walls, a roof structure, a fixed roof provided with an insulating material portion, the outside walls being provided with translucent surfaces such that light may be received into the greenhouse from at least two geographical directions, light reflecting surfaces being provided in connection with the translucent surfaces on the outside walls, characterized in that the light reflecting surfaces are positioned below the translucent surfaces, on a ground surface, such that the light reflecting surfaces tend away from the outside wall, said light reflecting surfaces being arranged to extend in a direction advancing substantially horizontally or downwardly in an inclined manner, thus forming a part of a yard solution surrounding the greenhouse.
A slurry pump for being mounted onto a crane arm on a slurry wagon or trailer for pumping slurry into and/or out of a tank of the slurry wagon/trailer, wherein the slurry pump is a centrifugal pump with an impeller arranged in a pump housing, which is arranged to be connected to the tank of the slurry wagon/trailer through a pump piping, and wherein, on the opposite side of the pump housing, there is an inlet/outlet through which the slurry can be pumped into or out of the pump housing, characterised in that said slurry pump is provided with a flap valve so that the inlet/outlet of the slurry pump can be sealed off when the pump is not in use, and that the flap valve is located outside the inlet/outlet and opens inwardly toward the input/outlet.
A gas turbine engine comprising: a spool; a turbine coupled with said spool; a propulsor coupled to be rotated about an axis through said spool; and a gear assembly coupled between said propulsor and said spool such that rotation of said spool results in rotation of said propulsor at a different speed than said spool, said propulsor including a hub and a row of propulsor blades extending from said hub, each of said propulsor blades having a span between a root at said hub and a tip, and a chord between a leading edge and a trailing edge such that said chord forms a stagger angle α with said axis; wherein said stagger angle α is less than 62° at all positions along said span, with said hub being at 0% of said span and said tip being at 100% of said span, and said stagger angle α at 100% of said span is 50-59°, characterized in that said stagger angle α at 25% of said span is 16-21° and said stagger angle α at 50% of said span is 28-33°. a spool; a turbine coupled with said spool; a propulsor coupled to be rotated about an axis through said spool; and a gear assembly coupled between said propulsor and said spool such that rotation of said spool results in rotation of said propulsor at a different speed than said spool, said propulsor including a hub and a row of propulsor blades extending from said hub, each of said propulsor blades having a span between a root at said hub and a tip, and a chord between a leading edge and a trailing edge such that said chord forms a stagger angle α with said axis; wherein said stagger angle α is less than 62° at all positions along said span, with said hub being at 0% of said span and said tip being at 100% of said span, and said stagger angle α at 100% of said span is 50-59°, characterized in that said stagger angle α at 25% of said span is 16-21° and said stagger angle α at 50% of said span is 28-33°.