mhurhangee/patent-ind-claim-en huggingface dataset:
A device comprising: a platform to receive a container , wherein the container comprises a package and wherein the platform is at a first angle with respect to a ground surface when the platform receives the container ; a front panel configured to move between a raised orientation and a lowered orientation with respect to the platform , wherein in response to the front panel being in the raised orientation, the front panel is orthogonal with respect to the platform , and in response to the front panel being in the lowered orientation, the front panel and the platform form a continuous surface; and an actuator connected to the platform , wherein the actuator is configured to pivot the platform from the first angle to a second angle with respect to the ground surface that is larger than the first angle, wherein, the package leans against a surface of the front panel when the front panel is in the raised orientation and the platform is at the second angle; and the package is released onto a surface of a conveyor when the front panel is in the lowered orientation and the platform is at the second angle, characterized in the device comprising: a rotary joint positioned between the platform and the container and configured to rotate the container with respect to the front panel . a platform to receive a container , wherein the container comprises a package and wherein the platform is at a first angle with respect to a ground surface when the platform receives the container ; a front panel configured to move between a raised orientation and a lowered orientation with respect to the platform , wherein in response to the front panel being in the raised orientation, the front panel is orthogonal with respect to the platform , and in response to the front panel being in the lowered orientation, the front panel and the platform form a continuous surface; and an actuator connected to the platform , wherein the actuator is configured to pivot the platform from the first angle to a second angle with respect to the ground surface that is larger than the first angle, wherein, the package leans against a surface of the front panel when the front panel is in the raised orientation and the platform is at the second angle; and the package is released onto a surface of a conveyor when the front panel is in the lowered orientation and the platform is at the second angle, the package leans against a surface of the front panel when the front panel is in the raised orientation and the platform is at the second angle; and the package is released onto a surface of a conveyor when the front panel is in the lowered orientation and the platform is at the second angle,
Method for operating an electrical device by taking into consideration an input data stream (Se) that is formed by input setpoint values (Ue), and the input setpoint values (Ue) of which have a temporal update rate (f1), wherein - the input data stream (Se) is used to form a compressed output data stream (Sa), the temporal update rate (f2) of which for output setpoint values (Ua) is greater than the temporal update rate (f1) of the input data stream (Se), and - components of the device are actuated on the basis of the output setpoint values (Ua) of the output data stream (Sa), characterized in that - the input data stream (Se) is used to quantitatively determine the model parameters from a specified signal model, which is based on one or more model parameters and simulates the input data stream (Se), - the determined model parameters and the signal model are taken as a basis for determining a first stepped auxiliary signal (H1(t)), the step rate of which corresponds to the update rate (f1) of the input data stream (Se), - the determined model parameters and the signal model are taken as a basis for determining a second stepped auxiliary signal (H2(t)), the step rate of which corresponds to the update rate (f2) of the compressed output data stream (Sa), and - the compressed output data stream (Sa) is generated by using the input data stream (Se) and the first and second auxiliary signals (H1(t)), H2(t)). - the input data stream (Se) is used to form a compressed output data stream (Sa), the temporal update rate (f2) of which for output setpoint values (Ua) is greater than the temporal update rate (f1) of the input data stream (Se), and - components of the device are actuated on the basis of the output setpoint values (Ua) of the output data stream (Sa), characterized in that - the input data stream (Se) is used to quantitatively determine the model parameters from a specified signal model, which is based on one or more model parameters and simulates the input data stream (Se), - the determined model parameters and the signal model are taken as a basis for determining a first stepped auxiliary signal (H1(t)), the step rate of which corresponds to the update rate (f1) of the input data stream (Se), - the determined model parameters and the signal model are taken as a basis for determining a second stepped auxiliary signal (H2(t)), the step rate of which corresponds to the update rate (f2) of the compressed output data stream (Sa), and - the compressed output data stream (Sa) is generated by using the input data stream (Se) and the first and second auxiliary signals (H1(t)), H2(t)).
A beverage dispensing machine for dispensing a beverage (BV) into a vessel , wherein the beverage dispensing machine comprises: an upper engaging member movable to a deployed position for engaging an upper portion of the vessel ; characterized in that the beverage dispensing machine comprises opposing first and second side engaging members (68-1, 68-2) movable to a deployed position for engaging a side of the vessel ; and an actuating mechanism for deploying the upper engaging member in conjunction with the first and second side engaging members (68-1, 68-2) to retain the vessel in the beverage dispensing machine . an upper engaging member movable to a deployed position for engaging an upper portion of the vessel ; characterized in that the beverage dispensing machine comprises opposing first and second side engaging members (68-1, 68-2) movable to a deployed position for engaging a side of the vessel ; and an actuating mechanism for deploying the upper engaging member in conjunction with the first and second side engaging members (68-1, 68-2) to retain the vessel in the beverage dispensing machine .
A method for measuring a shaft , the method comprising: a step of attaching, above/below a car of an elevator, a measurement apparatus to a car-guide rail in the shaft , wherein the measurement apparatus is constituted by a sensor configured to three-dimensionally detect a distance to a measurement object in a noncontatct manner; a step of performing a measurement with the measurement apparatus after the measurement apparatus is attached to the car-guide rail , and acquiring first dimensional data including dimensional data on an upper/lower part of the shaft ; a step of detaching the measurement apparatus from the car-guide rail after the first dimensional data is acquired, and moving the car upward/downward and then stopping the car ; a step of attaching the measurement apparatus to the car-guide rail below/above the car after the car is stopped; a step of performing a measurement with the measurement apparatus after the measurement apparatus is attached to the car-guide rail , and acquiring second dimensional data including dimensional data on a lower/upper part of the shaft ; and a step of integrating the acquired first dimensional data and the acquired second dimensional data, and creating dimensional data on the entire shaft , wherein the first dimensional data includes data indicating a lower surface of a top jamb in a specific hall and data indicating an upper surface of a sill in the specific hall, and wherein the second dimensional data includes data indicating the lower surface of the top jamb in the specific hall and data indicating the upper surface of the sill in the specific hall. a step of attaching, above/below a car of an elevator, a measurement apparatus to a car-guide rail in the shaft , wherein the measurement apparatus is constituted by a sensor configured to three-dimensionally detect a distance to a measurement object in a noncontatct manner; a step of performing a measurement with the measurement apparatus after the measurement apparatus is attached to the car-guide rail , and acquiring first dimensional data including dimensional data on an upper/lower part of the shaft ; a step of detaching the measurement apparatus from the car-guide rail after the first dimensional data is acquired, and moving the car upward/downward and then stopping the car ; a step of attaching the measurement apparatus to the car-guide rail below/above the car after the car is stopped; a step of performing a measurement with the measurement apparatus after the measurement apparatus is attached to the car-guide rail , and acquiring second dimensional data including dimensional data on a lower/upper part of the shaft ; and a step of integrating the acquired first dimensional data and the acquired second dimensional data, and creating dimensional data on the entire shaft , wherein the first dimensional data includes data indicating a lower surface of a top jamb in a specific hall and data indicating an upper surface of a sill in the specific hall, and wherein the second dimensional data includes data indicating the lower surface of the top jamb in the specific hall and data indicating the upper surface of the sill in the specific hall.
Wind turbine transmission with a high-speed spur gear stage , having an HSS spur gear with a hub and a ring gear and an HSS pinion meshing therewith on an HSS pinion shaft , wherein the HSS spur gear is directly mounted in a transmission housing of the wind turbine transmission and a sun gear shaft of a gear stage , which is mounted upstream of the high-speed spur gear stage , is directly coupled to the HSS spur gear , wherein the HSS spur gear has an eccentric web between the hub and a space is formed between the hub and the ring gear for a bearing arrangement of the HSS spur gear , where the bearing arrangement is radially arranged between the ring gear and the hub, characterised in that the bearing arrangement comprises a bearing which is arranged between a carrier element , which is connected to the transmission housing , and an inner circumference of the HSS spur gear extending radially further outwardly.
A rotating leaf spring seal (250; 350; 450), comprising: a first annular ring (254; 454) configured for positioning against a support structure (245; 445); a hook section (272; 372; 472) having an outer surface configured for sealing engagement with a tie shaft (220; 320; 420) and an inner surface configured for receiving a hold down ring (280; 380); and a spring section (260; 360; 460) disposed between the first annular ring (254; 454) and the hook section (272; 372; 472), wherein the spring section (260; 360; 460) includes a first spring portion and a second spring portion disposed radially inward of the first annular ring (254; 454), the first spring portion including a second annular ring, characterised in that the second annular ring is substantially parallel to the first annular ring (254; 454) and the first annular ring (254; 454) is connected to the second annular ring by an annular wall . a first annular ring (254; 454) configured for positioning against a support structure (245; 445); a hook section (272; 372; 472) having an outer surface configured for sealing engagement with a tie shaft (220; 320; 420) and an inner surface configured for receiving a hold down ring (280; 380); and a spring section (260; 360; 460) disposed between the first annular ring (254; 454) and the hook section (272; 372; 472), wherein the spring section (260; 360; 460) includes a first spring portion and a second spring portion disposed radially inward of the first annular ring (254; 454), the first spring portion including a second annular ring, characterised in that the second annular ring is substantially parallel to the first annular ring (254; 454) and the first annular ring (254; 454) is connected to the second annular ring by an annular wall .
A method for the suppression of soot formation during the partial oxidation of a hydrocarbon-containing gaseous feed, in the presence of steam and in an ATR reactor or in a POX reactor, the method comprising the addition of gaseous carbon dioxide to the hydrocarbon-containing gaseous feed before entry into the reactor.
A system for coupling an external diaphragm pacemaker to a ventilator, the system comprising an external diaphragm pacemaker, a negative pressure generator and an EAdi acquisition module for capturing EAdi signals from the diaphragm muscle, a signal processing module for treating the EAdi signals, and a microprocessor for analysis and assessment of the Eadi signals and a microcontroller for coupling control of a ventilator, wherein the negative pressure generator has a negative pressure generating terminal connectable to the ventilator's end on the patient side; the EAdi acquisition module is adapted to collect the EAdi signal, wherein signal processing module is adapted to treat the EAdi signal and send it to the microprocessor for analysis and assessment, wherein based on the strength and time interval of two successive half-wave peaks of the EAdi signal, a corresponding control signal is sent to the microcontroller and the microcontroller is adapted to output corresponding control signals which, on the one hand, trigger the external diaphragm pacemaker into operation and, on the other hand, trigger the operation of the negative pressure generator so that a negative pressure is generated in the negative pressure generating terminal which in turn is adapted to trigger the operation of the external ventilator, wherein EAdi denotes the the electrical activity of the diaphragm.
An oil-soluble ionic detergent, which detergent comprises (a) a quaternary phosphonium cation and (b) an organic anion having at least one aliphatic hydrocarbyl group, wherein the aliphatic hydrocarbyl group is in the form of a substituent on an aromatic ring and contains 4 to 400 carbon atoms; said oil-soluble ionic detergent having a total base number (TBN) to total acid number (TAN) ratio of at least 2:1; wherein said oil-soluble ionic detergent exhibits a TBN of at least 10 arising from a non-metallic base, wherein said oil-soluble ionic detergent comprises a stoichiometric excess of quaternary phosphonium cations of (a) over organic anions of (b) such that said cations and anions are present in an equivalent ratio (a):(b) of at least 2:1; wherein the TAN is measured by ASTM D 664A, wherein the TBN is measured by ASTM D 2896; and wherein the oil-soluble ionic detergent comprises a sulfonate, carboxylate or phenate anion. (a) a quaternary phosphonium cation and (b) an organic anion having at least one aliphatic hydrocarbyl group, wherein the aliphatic hydrocarbyl group is in the form of a substituent on an aromatic ring and contains 4 to 400 carbon atoms; said oil-soluble ionic detergent having a total base number (TBN) to total acid number (TAN) ratio of at least 2:1; wherein said oil-soluble ionic detergent exhibits a TBN of at least 10 arising from a non-metallic base, wherein said oil-soluble ionic detergent comprises a stoichiometric excess of quaternary phosphonium cations of (a) over organic anions of (b) such that said cations and anions are present in an equivalent ratio (a):(b) of at least 2:1; wherein the TAN is measured by ASTM D 664A, wherein the TBN is measured by ASTM D 2896; and wherein the oil-soluble ionic detergent comprises a sulfonate, carboxylate or phenate anion.
A method of forming a weld deposit on a zinc-coated workpiece, comprising: - feeding a tubular welding wire toward a surface of a zinc-coated workpiece; - directing a flow of shielding gas toward the surface of the zinc-coated workpiece near the tubular welding wire , wherein the flow of shielding gas is at least 90% argon (Ar); and wherein the welding wire is a tubular welding wire comprising a granular core disposed inside of a metallic sheath , wherein the granular core comprises a stabilizer component bound to one or more Group I or Group II metals; a carbon component comprising graphite, graphene, carbon black, lamp black, carbon nanotubes, diamond, or a combination thereof; and an agglomerate comprising Group I or Group II metal oxides, titanium oxide, and manganese oxides, characterized in that the welding wire is electrified with pulsed electropositive direct current (DCEP), and wherein the stabilizer component is an organic component comprising one or more organic molecules or organic polymers bound to the one or more Group I or Group II metals; the method further comprises: forming the weld deposit on the zinc-coated workpiece using the tubular welding wire while providing the flow of shielding gas near the weld deposit, wherein less than 10 wt% of the tubular welding wire is converted to spatter while forming the weld deposit on the zinc-coated workpiece. - feeding a tubular welding wire toward a surface of a zinc-coated workpiece; - directing a flow of shielding gas toward the surface of the zinc-coated workpiece near the tubular welding wire , wherein the flow of shielding gas is at least 90% argon (Ar); and wherein the welding wire is a tubular welding wire comprising a granular core disposed inside of a metallic sheath , wherein the granular core comprises a stabilizer component bound to one or more Group I or Group II metals; a carbon component comprising graphite, graphene, carbon black, lamp black, carbon nanotubes, diamond, or a combination thereof; and an agglomerate comprising Group I or Group II metal oxides, titanium oxide, and manganese oxides, characterized in that the welding wire is electrified with pulsed electropositive direct current (DCEP), and wherein the stabilizer component is an organic component comprising one or more organic molecules or organic polymers bound to the one or more Group I or Group II metals; the method further comprises: forming the weld deposit on the zinc-coated workpiece using the tubular welding wire while providing the flow of shielding gas near the weld deposit, wherein less than 10 wt% of the tubular welding wire is converted to spatter while forming the weld deposit on the zinc-coated workpiece.
A unitary catheter placement device including: a non-threaded, laterally extending location portion for locating the device relative to a patient's head, and a tubular upstand extending upwardly from the location portion and having a bore therethrough, the bore being oriented such that the bore extends angularly relative to the patient's head in use; wherein the location portion includes a foot portion , one or more gripping configurations extending from an underside of the foot portion for pressing against a surface of the patient's head, and a tubular collar extending from a lower surface of the foot portion and, when in use, at least below an upper surface of the patient's head, the tubular collar being coaxial with the bore through the upstand ; and wherein the bore includes an unbroken periphery. a non-threaded, laterally extending location portion for locating the device relative to a patient's head, and a tubular upstand extending upwardly from the location portion and having a bore therethrough, the bore being oriented such that the bore extends angularly relative to the patient's head in use; wherein the location portion includes a foot portion , one or more gripping configurations extending from an underside of the foot portion for pressing against a surface of the patient's head, and a tubular collar extending from a lower surface of the foot portion and, when in use, at least below an upper surface of the patient's head, the tubular collar being coaxial with the bore through the upstand ; and wherein the bore includes an unbroken periphery.
A method comprising: accessing audio data ; determining a window of audio samples based on the audio data; inputting the window of audio samples to a classifier to obtain a classification, in which the classifier includes a neural network and the classification takes a value from a set of multiple classes of audio; selecting, based on the classification, an audio enhancement network from a set of multiple audio enhancement networks ; applying the selected audio enhancement network to the window of audio samples to obtain an enhanced audio segment , in which the selected audio enhancement network includes a neural network that has been trained using audio signals of a type associated with the classification; generating an enhanced audio signal based on the enhanced audio segment: determining a residual noise signal as a difference between an audio signal from the audio data and the enhanced audio signal; merging the enhanced audio signal with the residual noise signal; and storing, playing, or transmitting the enhanced audio signal. accessing audio data ; determining a window of audio samples based on the audio data; inputting the window of audio samples to a classifier to obtain a classification, in which the classifier includes a neural network and the classification takes a value from a set of multiple classes of audio; selecting, based on the classification, an audio enhancement network from a set of multiple audio enhancement networks ; applying the selected audio enhancement network to the window of audio samples to obtain an enhanced audio segment , in which the selected audio enhancement network includes a neural network that has been trained using audio signals of a type associated with the classification; generating an enhanced audio signal based on the enhanced audio segment: determining a residual noise signal as a difference between an audio signal from the audio data and the enhanced audio signal; merging the enhanced audio signal with the residual noise signal; and storing, playing, or transmitting the enhanced audio signal. determining a residual noise signal as a difference between an audio signal from the audio data and the enhanced audio signal; merging the enhanced audio signal with the residual noise signal; and storing, playing, or transmitting the enhanced audio signal.
An indicator anti-correction system for a timepiece , the system comprising a correction mechanism of the indicator and a correction gear configured to mesh with said indicator , the correction mechanism being configured to be connected to a manual correction actuation system and to mesh with the correction gear in a first correction position, the correction mechanism being movably mounted between the first correction position and a second non-correction position, the system further comprising a component mounted movable in rotation about an axis , said component having a first end configured to cooperate with at least one protuberance provided on the date indicator or the hour wheel, said component having a second end , characterised in that said second end is configured to cooperate with the correction mechanism so as to block the mechanism in an anti-correction position when the first end of the component cooperates with said at least one protuberance .