mhurhangee/ep-ind-claims huggingface dataset:
Medical ventilator comprising: - an internal gas circuit for conveying gas, comprising a gas outlet, - at least one flowrate sensor (15, 17) and at least one pressure sensor, which are arranged on the internal gas circuit in order to perform flowrate and pressure measurements within said internal gas circuit, - control means with at least one microprocessor, which are configured to process the flowrate and pressure measurements performed by said flowrate (15, 17) and pressure sensors, - a patient circuit fluidically connected to the gas outlet of the internal gas circuit, and - a respiratory interface fluidically connected to the patient circuit, characterized in that the control means are configured to: a) determine a compliance value C(t) from at least flowrate and pressure measurements performed by said flowrate (15, 17) and pressure sensors, b) compare the determined compliance value C(t) to a given maximum compliance value (C max), c) determine a disconnection of the patient circuit or of the respiratory interface when the compliance value C(t) is greater than or equal to the given maximum compliance value (C max), and d) trigger an alarm when a disconnection of the patient circuit or of the respiratory interface is determined. - an internal gas circuit for conveying gas, comprising a gas outlet, - at least one flowrate sensor (15, 17) and at least one pressure sensor, which are arranged on the internal gas circuit in order to perform flowrate and pressure measurements within said internal gas circuit, - control means with at least one microprocessor, which are configured to process the flowrate and pressure measurements performed by said flowrate (15, 17) and pressure sensors, - a patient circuit fluidically connected to the gas outlet of the internal gas circuit, and - a respiratory interface fluidically connected to the patient circuit, a) determine a compliance value C(t) from at least flowrate and pressure measurements performed by said flowrate (15, 17) and pressure sensors, b) compare the determined compliance value C(t) to a given maximum compliance value (C max), c) determine a disconnection of the patient circuit or of the respiratory interface when the compliance value C(t) is greater than or equal to the given maximum compliance value (C max), and d) trigger an alarm when a disconnection of the patient circuit or of the respiratory interface is determined.
A welding roller device for producing an air cushion film from two film webs (14', 14") lying one on top of the other in continuous operation, wherein the sealing roller device comprises an inner shaft, an outer shaft arranged around the inner shaft and a heating device for heating the inner shaft, wherein the outer shaft and the inner shaft comprise a common longitudinal axis, the longitudinal axis extending in a longitudinal direction, wherein the inner shaft is fixedly arranged, wherein the outer shaft is mounted for rotation about the longitudinal axis in a rotational direction wherein the outer shaft comprises a plurality of outer webs extending outwardly in a radial direction with respect to the longitudinal axis, wherein the outer webs are spaced apart from each other in the longitudinal direction, wherein the outer shaft has a respective outer recess between each two adjacent outer webs, and wherein the inner shaft is configured such that a heat transfer between the inner shaft and the outer shaft is greater in an area of the outer webs than in an area of the outer recesses.
Oscillating drive with a housing, in which a drive motor for the rotating drive of a motor shaft and a tool spindle are accommodated, as well as a first coupling drive, which is coupled to the motor shaft and to the tool spindle for the oscillating drive of the tool spindle about its longitudinal axis, and also a second coupling drive, which is coupled to the tool spindle, characterised in that the second coupling drive is designed so that the tool spindle executes a superimposed movement consisting of an oscillating movement and a movement directed vertically with respect to the longitudinal axis, wherein preferably a switching mechanism is provided for the optional selection of the second coupling drive, and that the tool spindle is designed for the securement of a tool.
A method of forming a wafer level packaged circuit device, the method comprising: forming a device wafer, wherein forming the device wafer includes: forming a polyimide layer in a first region of a substrate of the device wafer; and forming a first solder metal stack layer on the polyimide layer; forming a cap wafer, wherein forming the cap wafer includes: forming an antireflective coating layer in a second region of a substrate of the cap wafer; and forming a second solder metal stack layer on the antireflective coating layer; and bonding the cap wafer to the device wafer to form an integrated bond gap control structure (BGCS) disposed between the device wafer and the cap wafer, the integrated BGCS comprising the polyimide layer, the first solder metal stack layer, the second solder metal stack layer, and the antireflective coating layer, and characterized in that the polyimide layer is a same polyimide layer that is also used in the formation of an integrated circuit on the device wafer, and the first solder metal stack layer is also a same first solder metal stack layer used to form a sealing ring for the device wafer; and wherein the antireflective coating layer is a same antireflective coating layer that is also formed on a cavity portion of the cap wafer, and the second solder metal stack layer is also a same second solder metal stack layer used to form a sealing ring for the cap wafer. forming a device wafer, wherein forming the device wafer includes: forming a polyimide layer in a first region of a substrate of the device wafer; and forming a first solder metal stack layer on the polyimide layer; forming a cap wafer, wherein forming the cap wafer includes: forming an antireflective coating layer in a second region of a substrate of the cap wafer; and forming a second solder metal stack layer on the antireflective coating layer; and bonding the cap wafer to the device wafer to form an integrated bond gap control structure (BGCS) disposed between the device wafer and the cap wafer, the integrated BGCS comprising the polyimide layer, the first solder metal stack layer, the second solder metal stack layer, and the antireflective coating layer, and characterized in that the polyimide layer is a same polyimide layer that is also used in the formation of an integrated circuit on the device wafer, and the first solder metal stack layer is also a same first solder metal stack layer used to form a sealing ring for the device wafer; and wherein the antireflective coating layer is a same antireflective coating layer that is also formed on a cavity portion of the cap wafer, and the second solder metal stack layer is also a same second solder metal stack layer used to form a sealing ring for the cap wafer.
A jet nozzle assembly for mixing contents of a vessel, the jet nozzle assembly comprising: a central pipe terminating at a jet nozzle; a low pressure nozzle assembly comprising an outer pipe disposed concentrically around the central pipe and comprising a plurality of openings defined in the outer pipe and disposed circumferentially around the central pipe; and a recirculation system configured to recirculate vessel contents from the plurality of openings to the central pipe and the jet nozzle, wherein the plurality of openings are at an axial distance from the jet nozzle, and wherein the outer pipe comprises a cylindrical wall, a conical wall section connecting a top of the cylindrical wall to the central pipe, and wherein the plurality of openings comprise circular openings in the conical wall. a central pipe terminating at a jet nozzle; a low pressure nozzle assembly comprising an outer pipe disposed concentrically around the central pipe and comprising a plurality of openings defined in the outer pipe and disposed circumferentially around the central pipe; and a recirculation system configured to recirculate vessel contents from the plurality of openings to the central pipe and the jet nozzle, wherein the plurality of openings are at an axial distance from the jet nozzle, and wherein the outer pipe comprises a cylindrical wall, a conical wall section connecting a top of the cylindrical wall to the central pipe, and wherein the plurality of openings comprise circular openings in the conical wall.
A process for the additive manufacturing of a three-dimensional object wherein the three-dimensional object comprises, consists of or consists essentially of an ethylene vinyl acetal wherein the ethylene vinyl acetal comprises ethylene units in the range of 25 to 60 mol% as measured by 1 H-NMR in accordance with the method described in the description.
A vehicle consisting of at least one opening and a glass pane in two parts (1, 3), of which at least one moving part, the opening being adapted to be closed by the glass pane in two parts (1, 3), the opening being movable in that part is swiveled around a axis of rotation and is movable between an open position and a position closed; and a seal placed between the two parts (1, 3) of the glass, the seal having a first throat intended to receive a edge of the moving part of the glass when it is in the closed position, and the first throat with a bottom wall and two side walls (25, 27), and is dimensioned so that its width as defined by the gap between its lateral walls (25, 27) is greater than the thickness of the moving part of the glass, characterized by the edge of the moving part being cleared from the first throat of the seal when the moving part is in the open position; and/or the width of the first throat as defined by the gap between its lateral walls (25, 27) corresponds to at least 1.2 times the thickness of the moving part of the glass, preferably at least 1.5 times the thickness of the moving part of the glass.
A method of wireless communication comprising: determining a power ratio between a phase tracking reference signal, PTRS, and a data channel according to a mapping relationship between a quantity of transport layers and the power ratio; wherein the power ratio is used for determining a transmit power, the transmit power is used for sending the PTRS during downlink transmission, the quantity of transport layers is greater than or equal to 2, and the mapping relationship comprises: the power ratio of the PTRS to the data channel is 3 dB when the quantity of transport layers is 2; the power ratio of the PTRS to the data channel is 4.77 dB when the quantity of transport layers is 3; the power ratio of the PTRS to the data channel is 6 dB when the quantity of transport layers is 4; the power ratio of the PTRS to the data channel is 7 dB when the quantity of transport layers is 5; and the power ratio of the PTRS to the data channel is 7.78 dB when the quantity of transport layers is 6, wherein a quantity of one or more PTRS ports for the PTRS is less than the quantity of transport layers. determining a power ratio between a phase tracking reference signal, PTRS, and a data channel according to a mapping relationship between a quantity of transport layers and the power ratio; wherein the power ratio is used for determining a transmit power, the transmit power is used for sending the PTRS during downlink transmission, the quantity of transport layers is greater than or equal to 2, and the mapping relationship comprises: the power ratio of the PTRS to the data channel is 3 dB when the quantity of transport layers is 2; the power ratio of the PTRS to the data channel is 4.77 dB when the quantity of transport layers is 3; the power ratio of the PTRS to the data channel is 6 dB when the quantity of transport layers is 4; the power ratio of the PTRS to the data channel is 7 dB when the quantity of transport layers is 5; and the power ratio of the PTRS to the data channel is 7.78 dB when the quantity of transport layers is 6, wherein a quantity of one or more PTRS ports for the PTRS is less than the quantity of transport layers. the power ratio of the PTRS to the data channel is 3 dB when the quantity of transport layers is 2; the power ratio of the PTRS to the data channel is 4.77 dB when the quantity of transport layers is 3; the power ratio of the PTRS to the data channel is 6 dB when the quantity of transport layers is 4; the power ratio of the PTRS to the data channel is 7 dB when the quantity of transport layers is 5; and the power ratio of the PTRS to the data channel is 7.78 dB when the quantity of transport layers is 6, wherein a quantity of one or more PTRS ports for the PTRS is less than the quantity of transport layers.
An electric motor operated kitchen appliance, namely a combined cooking-mixing appliance, comprising a base unit having an electric motor and a preparation vessel, to which a heating device is assigned and which can be connected to the base unit and into which a rotating element protrudes, which can be rotationally driven by means of the electric motor, wherein a grinding element, which, with a grinding area of a grinding vessel held on the preparation vessel, forms a grinder, can be connected to the rotating element, characterized in that the grinding element is connected to the rotating element via a coupling element having at least one elastic partial area, wherein the coupling element has a spring element, which provides a range of motion both parallel to a longitudinal extension of an axis of rotation of the rotating element and perpendicular thereto.
A method, performed by a node in a blockchain system that maintains a blockchain, for storing and managing audio data, the method comprising: receiving a request to store audio data; associating the audio data with a spectrogram (402, 502) generated based on the audio data, wherein the spectrogram (402, 502) is a visual representation of a spectrum of frequencies of an audio signal recorded in the audio data; storing the audio data and the spectrogram (402, 502) on a blockchain as a key-value pair, allowing the audio data to be retrieved from the blockchain using the spectrogram as a key; and providing access to the audio data based on the spectrogram (402, 502), comprising: receiving data representing an image; determining whether the image matches the spectrogram; in response to a determination that the image matches the spectrogram, identifying the audio data associated with the spectrogram; and providing audio playback of the audio data identified as being associated with the spectrogram. receiving a request to store audio data; associating the audio data with a spectrogram (402, 502) generated based on the audio data, wherein the spectrogram (402, 502) is a visual representation of a spectrum of frequencies of an audio signal recorded in the audio data; storing the audio data and the spectrogram (402, 502) on a blockchain as a key-value pair, allowing the audio data to be retrieved from the blockchain using the spectrogram as a key; and providing access to the audio data based on the spectrogram (402, 502), comprising: receiving data representing an image; determining whether the image matches the spectrogram; in response to a determination that the image matches the spectrogram, identifying the audio data associated with the spectrogram; and providing audio playback of the audio data identified as being associated with the spectrogram. receiving data representing an image; determining whether the image matches the spectrogram; in response to a determination that the image matches the spectrogram, identifying the audio data associated with the spectrogram; and providing audio playback of the audio data identified as being associated with the spectrogram.
A method of wireless communication, comprising: transmitting an initial sidelink communication, wherein an initial sidelink control information, SCI, transmission in the initial sidelink communication includes an indication of resources reserved for a subsequent sidelink communication; applying a transmission restriction for the subsequent sidelink communication, wherein the transmission restriction is based on a transmission characteristic associated with the transmitting of the initial sidelink communication; and transmitting the subsequent sidelink communication including a subsequent SCI transmission according to the transmission restriction, wherein the applying the transmission restriction comprises restricting selection of a subsequent precoder for precoding the subsequent sidelink communication based on an initial precoder for precoding the initial sidelink communication. transmitting an initial sidelink communication, wherein an initial sidelink control information, SCI, transmission in the initial sidelink communication includes an indication of resources reserved for a subsequent sidelink communication; applying a transmission restriction for the subsequent sidelink communication, wherein the transmission restriction is based on a transmission characteristic associated with the transmitting of the initial sidelink communication; and transmitting the subsequent sidelink communication including a subsequent SCI transmission according to the transmission restriction, wherein the applying the transmission restriction comprises restricting selection of a subsequent precoder for precoding the subsequent sidelink communication based on an initial precoder for precoding the initial sidelink communication.
A distributive and dispersive mixing apparatus comprising two confronting surfaces (1, 2) having cavities therein which on relative motion of the surfaces (1, 2) function as a cavity transfer mixer or controlled deformation dynamic mixer or both, CHARACTERISED IN THAT the normal separation of the confronting surfaces (1, 2), which is the separation of said surfaces in the absence of said cavities, varies in the direction of bulk flow, so as to define a plurality of regions of successive closer (Y I, Y II, Y III, Y IV) and wider spacing (X I, X", X III, X IV, X V) of the confronting surfaces (1, 2), wherein at least one of the regions of wider spacing (X I, X II, X III, X IV, X V) of the confronting surfaces (1, 2) comprises the cavities.
A system, comprising: a network entity at a first layer of a multilayer network, the entity at the first layer configured to receive a request for a network topology from a network entity at a second layer of a multilayer network; a layer mapping function module operatively coupled to the network entity at the first layer and configured to generate a translation protocol, the translation protocol configured to determine common attributes between a first topology format and a second topology format, the network entity at the first layer of the multilayer network configured to use the translation protocol to convert a topology map in the first topology format into a topology map in a common link abstraction model format, the common link abstraction model format being based on the determined common attributes; and a multilayer network translation interface module configured to use the topology map in the common link abstraction model format to generate a topology map in the second topology format; the network entity at the first layer configured to send the topology map in the second topology format to the network entity at the second layer, the network entity at the second layer configured to determine a path between a first network node and a second network node using the topology map in the second topology format. a network entity at a first layer of a multilayer network, the entity at the first layer configured to receive a request for a network topology from a network entity at a second layer of a multilayer network; a layer mapping function module operatively coupled to the network entity at the first layer and configured to generate a translation protocol, the translation protocol configured to determine common attributes between a first topology format and a second topology format, the network entity at the first layer of the multilayer network configured to use the translation protocol to convert a topology map in the first topology format into a topology map in a common link abstraction model format, the common link abstraction model format being based on the determined common attributes; and a multilayer network translation interface module configured to use the topology map in the common link abstraction model format to generate a topology map in the second topology format; the network entity at the first layer configured to send the topology map in the second topology format to the network entity at the second layer, the network entity at the second layer configured to determine a path between a first network node and a second network node using the topology map in the second topology format.
An operation method of a system-on-chip configured to control a memory device, the method comprising: transmitting () a first mode register write command (MRW_is) to the memory device through command/address lines; transmitting () a second mode register write command (MRW_sp) including a specific pattern to the memory device through the command/address lines; transmitting () a first mode register read command (MRR_sp) for reading the specific pattern to the memory device through command/address lines; receiving () the specific pattern read from the memory device through data lines; capturing () the specific pattern (SPa) received from the memory device based on an system-on-chip reference voltage (VREF_SoC0) generated by the system-on-chip; adjusting () the system-on-chip reference voltage (VREF_SoC1) based on the captured specific pattern (Spa); transmitting () a second mode register read command (MRR_di) for reading device information to the memory device through the command/address lines; receiving () data signals corresponding to the second mode register read command (MRR_di) from the memory device through the data lines; capturing () the received data signals based on the adjusted system-on-chip reference voltage (VREF_SoC); and performing a plurality of training operations on the memory device after the adjusting the system-on-chip reference voltage (VREF_SoC). transmitting () a first mode register write command (MRW_is) to the memory device through command/address lines; transmitting () a second mode register write command (MRW_sp) including a specific pattern to the memory device through the command/address lines; transmitting () a first mode register read command (MRR_sp) for reading the specific pattern to the memory device through command/address lines; receiving () the specific pattern read from the memory device through data lines; capturing () the specific pattern (SPa) received from the memory device based on an system-on-chip reference voltage (VREF_SoC0) generated by the system-on-chip; adjusting () the system-on-chip reference voltage (VREF_SoC1) based on the captured specific pattern (Spa); transmitting () a second mode register read command (MRR_di) for reading device information to the memory device through the command/address lines; receiving () data signals corresponding to the second mode register read command (MRR_di) from the memory device through the data lines; capturing () the received data signals based on the adjusted system-on-chip reference voltage (VREF_SoC); and performing a plurality of training operations on the memory device after the adjusting the system-on-chip reference voltage (VREF_SoC).