mhurhangee/ep-ind-claims huggingface dataset:
A ventilator comprising: a housing; a gas flow generator disposed in the housing and adapted to generate a flow of gas; a gas outlet port disposed on an exterior surface of the housing; a first conduit coupling the gas flow generator to the gas outlet port; a gas inlet port disposed on an exterior surface of the housing; a first exhaust valve disposed in the housing; a second conduit coupling the gas inlet port to the first exhaust valve, wherein the first exhaust valve controls a flow of exhaust gas from the second conduit; a second exhaust valve disposed in the housing and operatively coupled to the first conduit, wherein the second exhaust valve controls a first flow of exhaust gas from the first conduit; and a controller operatively coupled to first exhaust valve and to second exhaust valve, characterized in that the controller causes (i) the first exhaust valve to change a degree of flow restriction based on a respiratory phase of a patient coupled to the ventilator responsive to the ventilator being configured to operate in a dual-limb ventilation configuration, or (iI) the second exhaust valve to change a degree of flow restriction based on a respiratory phase of a patient coupled to the ventilator responsive to the ventilator being configured to operate in a single-limb ventilation configuration. a housing; a gas flow generator disposed in the housing and adapted to generate a flow of gas; a gas outlet port disposed on an exterior surface of the housing; a first conduit coupling the gas flow generator to the gas outlet port; a gas inlet port disposed on an exterior surface of the housing; a first exhaust valve disposed in the housing; a second conduit coupling the gas inlet port to the first exhaust valve, wherein the first exhaust valve controls a flow of exhaust gas from the second conduit; a second exhaust valve disposed in the housing and operatively coupled to the first conduit, wherein the second exhaust valve controls a first flow of exhaust gas from the first conduit; and a controller operatively coupled to first exhaust valve and to second exhaust valve, characterized in that the controller causes (i) the first exhaust valve to change a degree of flow restriction based on a respiratory phase of a patient coupled to the ventilator responsive to the ventilator being configured to operate in a dual-limb ventilation configuration, or (iI) the second exhaust valve to change a degree of flow restriction based on a respiratory phase of a patient coupled to the ventilator responsive to the ventilator being configured to operate in a single-limb ventilation configuration.
A communication network for transmission of messages at different transmission rates, comprising - a bus line, and - a plurality of bus participants (14, 16) each of which includes a bus transceiver connected to the bus line and a control unit coupled with said bus transceiver, inter alia, for converting messages received via the bus line and for generating messages to be sent via the bus line, - wherein each message includes control data and payload, - wherein the messages include first messages whose payload is transmitted via the bus line at a first rate and second messages whose payload is transmitted via the bus line at a second rate which is higher than the first rate, - wherein the control data of each message contain a coding representing the transmission rate of the payload of the respective message, - wherein the bus participants (14, 16) include first bus participants which can exclusively receive and process a first payload and second bus participants which can receive and process both first and second messages, characterized in that, - between the bus transceivers of each first bus participant and the bus line a converter each is connected which forwards a first message to the respective first bus participant and which, upon detection of the coding indicating the second payload transmission rate when receiving a second message, substitutes the payload of this second message by a substitute payload and transmits this substitute payload at the first rate to the control unit. - a bus line, and - a plurality of bus participants (14, 16) each of which includes a bus transceiver connected to the bus line and a control unit coupled with said bus transceiver, inter alia, for converting messages received via the bus line and for generating messages to be sent via the bus line, - wherein each message includes control data and payload, - wherein the messages include first messages whose payload is transmitted via the bus line at a first rate and second messages whose payload is transmitted via the bus line at a second rate which is higher than the first rate, - wherein the control data of each message contain a coding representing the transmission rate of the payload of the respective message, - wherein the bus participants (14, 16) include first bus participants which can exclusively receive and process a first payload and second bus participants which can receive and process both first and second messages, characterized in that, - between the bus transceivers of each first bus participant and the bus line a converter each is connected which forwards a first message to the respective first bus participant and which, upon detection of the coding indicating the second payload transmission rate when receiving a second message, substitutes the payload of this second message by a substitute payload and transmits this substitute payload at the first rate to the control unit.
A method for processing device triggering information, comprising: sending, by an Internet of things service platform, to an underlying network a first device triggering message for triggering a device registered on the Internet of things service platform, and storing, by the Internet of things service platform, a first identifier corresponding to the first device triggering message; and sending, by the Internet of things service platform, a second device triggering message to the underlying network, wherein the second device triggering message contains the first identifier, and the second device triggering message is used for indicating the underlying network to cancel or update the first device triggering message according to the first identifier, wherein in a case that the second device triggering message sent to the underlying network by the Internet of things service platform is used for cancelling the first device triggering message, the Internet of things service platform deletes the first identifier or deletes both the first identifier and a second identifier corresponding to the second device triggering message after receiving a cancelation success response from the underlying network. sending, by an Internet of things service platform, to an underlying network a first device triggering message for triggering a device registered on the Internet of things service platform, and storing, by the Internet of things service platform, a first identifier corresponding to the first device triggering message; and sending, by the Internet of things service platform, a second device triggering message to the underlying network, wherein the second device triggering message contains the first identifier, and the second device triggering message is used for indicating the underlying network to cancel or update the first device triggering message according to the first identifier, wherein in a case that the second device triggering message sent to the underlying network by the Internet of things service platform is used for cancelling the first device triggering message, the Internet of things service platform deletes the first identifier or deletes both the first identifier and a second identifier corresponding to the second device triggering message after receiving a cancelation success response from the underlying network.
An electric linear actuator comprising: a cylindrical housing; an electric motor mounted on the housing; a speed reduction mechanism for reducing rotational speed of the electric motor via a motor shaft; a ball screw mechanism for converting rotational motion of the electric motor transmitted via the speed reduction mechanism to axial linear motion of a driving shaft; the ball screw mechanism comprising a nut formed with a helical screw groove on its inner circumference and supported by bearings (15, 16) mounted on the housing rotationally but axially immovably, and a screw shaft coaxially integrated with the driving shaft, formed with helical screw groove on its outer circumference corresponding to the helical screw groove of the nut, inserted into the nut via a large number of balls, and supported on the housing axially movably but not rotationally; and a blind bore (9, 9') formed on the housing for containing an end of the screw shaft characterized in: that a sleeve (18, 18') for an anti-rotation of the screw shaft is fitted in the blind bore (9, 9') of the housing, is press-formed of steel sheet and has a continuously substantially cylindrical shape. a cylindrical housing; an electric motor mounted on the housing; a speed reduction mechanism for reducing rotational speed of the electric motor via a motor shaft; a ball screw mechanism for converting rotational motion of the electric motor transmitted via the speed reduction mechanism to axial linear motion of a driving shaft; the ball screw mechanism comprising a nut formed with a helical screw groove on its inner circumference and supported by bearings (15, 16) mounted on the housing rotationally but axially immovably, and a screw shaft coaxially integrated with the driving shaft, formed with helical screw groove on its outer circumference corresponding to the helical screw groove of the nut, inserted into the nut via a large number of balls, and supported on the housing axially movably but not rotationally; and a blind bore (9, 9') formed on the housing for containing an end of the screw shaft characterized in: that a sleeve (18, 18') for an anti-rotation of the screw shaft is fitted in the blind bore (9, 9') of the housing, is press-formed of steel sheet and has a continuously substantially cylindrical shape.
Use of a matrix comprising a modified primary hydroxyl groups containing polysaccharide comprising repeating disaccharide units wherein in at least part of the disaccharide units the primary hydroxyl group is replaced by functional groups selected from carboxyl groups, halide groups or groups comprising sulfur or phosphorus atoms, like e.g. sulfate groups, sulfonate groups, phosphonate groups and phosphate groups, for bioprinting processes, characterized in that the modified primary hydroxyl groups containing polysaccharide is agarose.
A laundry dryer comprising a drum wherein the laundry to be dried is placed, a ventilation duct wherein the processing air cycle is realized, a fan providing the circulation of the processing air, a compressor providing the refrigerant cycle, an evaporator placed into the ventilation duct, that condenses the humid processing air, a condenser placed into the ventilation duct, that heats the processing air dehumidified at the evaporator, a drain channel and a base plate that is placed on the ventilation duct under the evaporator, that has a gap between the lower surface of the evaporator and itself, whereby said gap provides the condensate water to flow downwards from the evaporator, and provides the condensate water accumulating thereon to be delivered to said drain channel, characterised in that a pump provides the condensate water to be discharged, said drain channel extends between the evaporator and the pump, and provides the condensate water to be delivered from the evaporator to the pump, and in that an air guide extends from the base plate towards the lower surface of the evaporator and provides the processing air coming from the ventilation duct and passing through the gap under the evaporator to be guided into the evaporator.
Central ventilation underfloor device for air-conditioning of a room, comprising an induction means which comprises an air distribution box (19, 20, 21, 22) which can be connected to a supply air line at a supply air port (45, 46), on which distribution box at least one induction nozzle of the induction means is arranged and connected, wherein the air distribution box (19, 20, 21, 22) comprises a plurality of inner wall surfaces and just one single sound damping member (23, 24, 25, 26) in the interior thereof, which sound damping member is integrated in the interior of the air distribution box (19, 20, 21, 22) such that it is matched to the inside contour of the air distribution box (19, 20, 21, 22), wherein the sound damping member (23, 24, 25, 26) clads just part of an inner wall surface of the air distribution box (19, 20, 21, 22) and is located between the supply air port (45, 46) and the induction nozzle, wherein the air distribution box (19 to 22) has a front wall and a rear wall that is opposite the front wall, wherein the front wall comprises the at least one supply air port (45, 46) and the rear wall comprises the at least one induction nozzle.
An auto-tuning circuit for coupling to a voltage controlled oscillator, said voltage controlled oscillator being coupled to a capacitor array, and a phase-frequency detector via a loop filter, in a phase locked loop, said auto-tuning circuit comprising: a prescaler circuit configured to receive a voltage controlled oscillator output frequency from said voltage controlled oscillator and output a divided voltage controlled oscillator output frequency, said prescaler circuit being used in said phase locked loop for fine tuning of said voltage controlled oscillator and coupled to a digital processing logic circuit during coarse tuning of said voltage controlled oscillator; the prescaler circuit configured to receive a mode control signal from an N counter module in said phase locked loop, said mode control signal determining a division ratio of said prescaler circuit, and said N counter module comprising an M counter having a division ratio M in said phase locked loop, the N counter module configured to further divide the frequency output by the prescaler circuit, and output the further divided frequency to the phase frequency detector; and said loop filter being coupled to said phase-frequency detector and to an input of said voltage controlled oscillator during fine tuning, and said digital processing logic circuit coupled to said capacitor array and configured to determine a capacitance of said capacitor array by comparing a number of cycles of the voltage controlled oscillator frequency divided by the prescaler circuit that occur in a calibration interval to a predetermined value, and said prescaler circuit including a selectable division ratio so that the division ratio is selectable during coarse tuning.
Method for operating a display system with smart glasses in a motor vehicle, comprising the following steps: - receiving transmission data in the smart glasses according to a transmission rate from a driver assistance system, wherein the transmission data defines at least one object which is to be displayed in a contact-analogous fashion, for a specific motor vehicle position; wherein contact-analogous display comprises the fact that a specific object in the real surroundings is superimposed on the information; - capturing a pose of the smart glasses with an update rate which is higher than the transmission rate; - generating and displaying a display image with a display rate which is higher than the transmission rate, wherein whenever the display image is generated the at least one object which is to be displayed in a contact-analogous fashion is displayed in the display image in accordance with the pose last captured, wherein the display rate corresponds to the update rate for the capturing of the pose of the smart glasses. - receiving transmission data in the smart glasses according to a transmission rate from a driver assistance system, wherein the transmission data defines at least one object which is to be displayed in a contact-analogous fashion, for a specific motor vehicle position; wherein contact-analogous display comprises the fact that a specific object in the real surroundings is superimposed on the information; - capturing a pose of the smart glasses with an update rate which is higher than the transmission rate; - generating and displaying a display image with a display rate which is higher than the transmission rate, wherein whenever the display image is generated the at least one object which is to be displayed in a contact-analogous fashion is displayed in the display image in accordance with the pose last captured,
A computer-implemented method comprising: obtaining, for each frame in a stream of frames from a video (105; 205) in which faces of one or more speakers (110A, 110B; 215A-N) have been detected, a respective per-frame face embedding (220A-N) of the face of each speaker; processing, for each speaker (110A, 110B; 215A-N), the per-frame face embeddings (220A-N) of the face of the speaker using a video convolutional neural network (225A-N) to generate visual features for the face of the speaker; obtaining a spectrogram of an audio soundtrack (115; 210) for the video (105; 205); processing the spectrogram using an audio convolutional neural network to generate an audio embedding for the audio soundtrack (115; 210); combining the visual features for the one or more speakers (110A, 110B; 215A-N) and the audio embedding for the audio soundtrack (115; 210) to generate an audio-visual embedding (130; 255) for the video; determining, from the audio-visual embedding (130; 255) for the video (105; 205), a respective spectrogram mask (270A-N) for each of the one or more speakers (110A, 110B; 215A-N), wherein each spectrogram mask describes time-frequency relationships between clean speech for a respective speaker and background interference in a spectrogram of the audio soundtrack; and determining, from the respective spectrogram masks (270A-N) and the corresponding audio soundtrack (115; 210), a respective isolated speech spectrogram (140A, 140B; 280A-N) for each speaker that isolates the speech of the speaker in the video. obtaining, for each frame in a stream of frames from a video (105; 205) in which faces of one or more speakers (110A, 110B; 215A-N) have been detected, a respective per-frame face embedding (220A-N) of the face of each speaker; processing, for each speaker (110A, 110B; 215A-N), the per-frame face embeddings (220A-N) of the face of the speaker using a video convolutional neural network (225A-N) to generate visual features for the face of the speaker; obtaining a spectrogram of an audio soundtrack (115; 210) for the video (105; 205); processing the spectrogram using an audio convolutional neural network to generate an audio embedding for the audio soundtrack (115; 210); combining the visual features for the one or more speakers (110A, 110B; 215A-N) and the audio embedding for the audio soundtrack (115; 210) to generate an audio-visual embedding (130; 255) for the video; determining, from the audio-visual embedding (130; 255) for the video (105; 205), a respective spectrogram mask (270A-N) for each of the one or more speakers (110A, 110B; 215A-N), wherein each spectrogram mask describes time-frequency relationships between clean speech for a respective speaker and background interference in a spectrogram of the audio soundtrack; and determining, from the respective spectrogram masks (270A-N) and the corresponding audio soundtrack (115; 210), a respective isolated speech spectrogram (140A, 140B; 280A-N) for each speaker that isolates the speech of the speaker in the video.
A system comprising a contact strip and at least one detection circuit, said strip being for a pantograph of a vehicle, in particular of a rail vehicle, said contact strip comprising attachment means on said pantograph, in particular a yoke, as well as an active region or wearing strip, intended to come into contact with a catenary, this wearing strip being made of a first electrically conductive material, said contact strip comprising contact means (440; 440, 441), suitable for coming into contact with the catenary during a decrease in thickness of said wearing strip, characterised in that the contact means comprise at least one electrically conductive contact element (440; 440, 441), made of a second electrically conductive material, of which the electrical conductivity is greater than that of said first electrically conductive material, said electrically conductive element being extended and extending transversely inside the wearing strip, in reference to the forward direction of the vehicle, and in that the contact strip further comprises electrical insulation means between said extended electrically conductive element and the wearing strip, and means for connecting said extended electrically conductive element to said detection circuit, integrating said extended electrically conductive element. said contact strip comprising contact means (440; 440, 441), suitable for coming into contact with the catenary during a decrease in thickness of said wearing strip, characterised in that the contact means comprise at least one electrically conductive contact element (440; 440, 441), made of a second electrically conductive material, of which the electrical conductivity is greater than that of said first electrically conductive material, said electrically conductive element being extended and extending transversely inside the wearing strip, in reference to the forward direction of the vehicle, and in that the contact strip further comprises electrical insulation means between said extended electrically conductive element and the wearing strip, and means for connecting said extended electrically conductive element to said detection circuit, integrating said extended electrically conductive element.
A computer-based method for generating a set of treatment plans including a radiation treatment plan and a hyperthermia treatment plan, for thermoradiotherapy treatment for a treatment volume of a patient, the method comprising the steps of: a. obtaining (S 12; S22; S32) an optimization problem including at least one objective function related to the multimodality treatment including hyperthermia and radiation, based on a model taking the predicted combined effect of heat and radiation dose into account, b. generating (S14; S24; S33) at least one of the radiation treatment plan and the hyperthermia treatment plan by optimizing the objective function value evaluated for the predicted combined effect over the set of treatment plans. a. obtaining (S 12; S22; S32) an optimization problem including at least one objective function related to the multimodality treatment including hyperthermia and radiation, based on a model taking the predicted combined effect of heat and radiation dose into account, b. generating (S14; S24; S33) at least one of the radiation treatment plan and the hyperthermia treatment plan by optimizing the objective function value evaluated for the predicted combined effect over the set of treatment plans.