mhurhangee/patent-ind-claim-en huggingface dataset:
Multiphase multilevel power converter (MMC), having a phase module (PM1, PM2, PM3) which has a power converter module (UL, UH) formed from a multiplicity of two-pole submodules (SM) which are electrically connected in series and have a) a plurality of semiconductor switches (HS) which are connected together in series, b) an energy store (C) which can be charged and discharged by the semiconductor switches (HS), c) a bypass switch (BPS) which short-circuits the energy store (C) if an associated first limit voltage is exceeded, d) a signal input (SBS) for a blocking signal (BS) which opens all semiconductor switches (HS) of the submodule (SM), characterized in that a module arrester (MA) is connected in parallel with the power converter module (UL, UH) as a surge arrester and limits the power converter voltage in the manner of a valve if a second limit voltage is exceeded by virtue of the module arrester (MA) operating in the blocking mode below the second limit voltage and operating in the conducting mode above the second limit voltage, wherein a current limiting the power converter voltage flows through the module arrester (MA) in the conducting mode, each power converter module (UL, UH) is formed from two power converter towers (UT1, UT2) connected in series, and the module arrester (MA) is installed in a suspended or standing manner between the power converter towers (UT1, UT2) in the sense that no further electrical components are arranged in between. a) a plurality of semiconductor switches (HS) which are connected together in series, b) an energy store (C) which can be charged and discharged by the semiconductor switches (HS), c) a bypass switch (BPS) which short-circuits the energy store (C) if an associated first limit voltage is exceeded, d) a signal input (SBS) for a blocking signal (BS) which opens all semiconductor switches (HS) of the submodule (SM),
A sorbent bed, comprising: a sorbent support comprising a carbon material, wherein the sorbent support comprises a plurality of pores; and an impregnant configured to absorb ammonia disposed within the plurality of pores in the sorbent support, wherein the sorbent bed comprises between 50% and 60% by weight impregnant, and the impregnant is phosphoric acid. a sorbent support comprising a carbon material, wherein the sorbent support comprises a plurality of pores; and an impregnant configured to absorb ammonia disposed within the plurality of pores in the sorbent support, wherein the sorbent bed comprises between 50% and 60% by weight impregnant, and the impregnant is phosphoric acid.
A stripe rust resistance gene, characterized in that , the gene is a nucleic acid described in any of the following a) to j): a) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.1; b) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.3; c) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.5; d) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.7; e) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.9; f) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.10; g) a nucleic acid, consisting of a base sequence encoding a protein shown in SEQ ID NO. 2; h) a nucleic acid, consisting of a base sequence encoding a protein shown in SEQ ID NO. 4; i) a nucleic acid, consisting of a base sequence encoding a protein shown in SEQ ID NO. 6; j) a nucleic acid, consisting of a base sequence encoding a protein shown in SEQ ID NO. 8. a) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.1; b) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.3; c) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.5; d) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.7; e) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.9; f) a nucleic acid, consisting of a base sequence shown in SEQ ID NO.10; g) a nucleic acid, consisting of a base sequence encoding a protein shown in SEQ ID NO. 2; h) a nucleic acid, consisting of a base sequence encoding a protein shown in SEQ ID NO. 4; i) a nucleic acid, consisting of a base sequence encoding a protein shown in SEQ ID NO. 6; j) a nucleic acid, consisting of a base sequence encoding a protein shown in SEQ ID NO. 8.
A tubing assembly for use in providing a flow of positive pressure breathing gas to a patient, the tubing assembly comprising: a manifold portion structured to receive the flow of positive pressure breathing gas; a number of tubular portions which each extend from the manifold portion to a distal end which is structured to be coupled to a patient interface for use in delivering the flow of positive pressure breathing gas to the patient; a reflectance pulse oximetry sensor positioned in or on one of the number of tubular portions , wherein the sensor is structured to be disposed adjacent the patient when the tubing assembly is disposed on the head of the patient. a manifold portion structured to receive the flow of positive pressure breathing gas; a number of tubular portions which each extend from the manifold portion to a distal end which is structured to be coupled to a patient interface for use in delivering the flow of positive pressure breathing gas to the patient; a reflectance pulse oximetry sensor positioned in or on one of the number of tubular portions , wherein the sensor is structured to be disposed adjacent the patient when the tubing assembly is disposed on the head of the patient.
Monitoring system comprising a wearable system for electrocardiographic monitoring with an airtight container for medicines and integrated medical monitoring system, the wearable system being washable and adapted to recreation, sport and medical use, the wearable system being an ECG vest composed of electrodes , electronic circuit and conductive track , and the airtight container for specific medicines essential to the treatment of pathologies such as acute coronary syndrome, ACS, acute myocardial infarction, AMI, acute atrial fibrillation, AAF, and other cardiac arrhythmias, coupled to one another, and a mini electrocardiogram, ECG, apparatus containing a Global System Mobile, GSM, modem and Global Positioning System, GPS, or Bluetooth system for connection and information exchange among the devices integrated to a datacenter and a remote monitoring center configured to monitor patients with increased cardiovascular risk, seniors, amateur and professional athletes, and common individuals, being possible to diagnose and treat it as soon as possible, aiming at shortening time of definite treatment of those who present ACS, AMI, AAF, and other cardiac arrhythmias, and the wearable system further comprises a box containing the ECG apparatus and a button, wherein the acquisition of the electrical signals from the ECG is configured to automatically start when the user presses the button down, wherein the airtight container is configured to be controlled by a solenoid and electromechanical system through which a doctor, having an encrypted digital signature, can remotely trigger a door opening of the airtight container containing medicines for proper dispensing after diagnostic confirmation, wherein the GSM modem or Bluetooth system are configured to transfer the data collected by the ECG vest and its location made by GPS online via GSM or by integrating Bluetooth with a smartphone having a specific software or application, app, to a datacenter with an Integrated Monitoring System, IMS, in a secure and reliable manner having 24 × 7 × 365 coverage, and the Integrated Monitoring System is configured to assign the received ECG data to a doctor, who can immediately provide the users with the ECG report in an electronic or remote manner, indicating the first procedures, allowing for an immediate integration to an emergency hospital service and forwarding to users names and addresses of nearby specialized hospitals, wherein remote electrocardiogram monitoring with optional feature of automated interpretation of trace is performed by ECG analysis softwares, supported by a doctor and an expert system, an online software of Integrated Monitoring System, and a software integrated to the smartphone configured to receive electronic signals which enable i) the electronic signals sensed by the electrocardiogram to transmit the trace and to be visible in the smartphone in real time (online), which is enabled by the transmission from the Bluetooth coupled to the electrocardiogram for this smartphone, and ii) the record of this trace over 24 hours.
A device comprising: a memory ; and at least one processor configured to: receive , on the device, a content query; retrieve , from the memory, a plurality of user account credentials (322A-C) corresponding to a plurality of user accounts associated with the device; provide , to a server , the plurality of user account credentials (322A-C) and the content query; receive , from the server and based on the content query, a user account identifier of one of the plurality of user accounts and a content identifier corresponding to content in a content library of the one of the plurality of user accounts; and utilize the user account identifier and the content identifier for output, by the device , of the content from the content library of the one of the plurality of user accounts. a memory ; and at least one processor configured to: receive , on the device, a content query; retrieve , from the memory, a plurality of user account credentials (322A-C) corresponding to a plurality of user accounts associated with the device; provide , to a server , the plurality of user account credentials (322A-C) and the content query; receive , from the server and based on the content query, a user account identifier of one of the plurality of user accounts and a content identifier corresponding to content in a content library of the one of the plurality of user accounts; and utilize the user account identifier and the content identifier for output, by the device , of the content from the content library of the one of the plurality of user accounts. receive , on the device, a content query; retrieve , from the memory, a plurality of user account credentials (322A-C) corresponding to a plurality of user accounts associated with the device; provide , to a server , the plurality of user account credentials (322A-C) and the content query; receive , from the server and based on the content query, a user account identifier of one of the plurality of user accounts and a content identifier corresponding to content in a content library of the one of the plurality of user accounts; and utilize the user account identifier and the content identifier for output, by the device , of the content from the content library of the one of the plurality of user accounts.
A method of modulating data for optical communication, comprising: encoding the data using a forward error correction (FEC) encoder to produce encoded data; encoding the encoded data using a block encoder to produce block encoded data strings of quaternary symbols according to a calculation modulo 4, wherein the Lee distances between the block encoded data strings are increased by employing quaternary block codes with a maximum minimum Lee distance; mapping the block encoded data strings to I/Q dimensions by subtracting a value of 1.5 from each quaternary symbol of the block encoded data strings and mapping two quaternary symbols to I and Q dimensions, respectively, to form one complex symbol to produce mapped data; and modulating, in a transmitter , the mapped data to a modulated signal for an optical channel . encoding the data using a forward error correction (FEC) encoder to produce encoded data; encoding the encoded data using a block encoder to produce block encoded data strings of quaternary symbols according to a calculation modulo 4, wherein the Lee distances between the block encoded data strings are increased by employing quaternary block codes with a maximum minimum Lee distance; mapping the block encoded data strings to I/Q dimensions by subtracting a value of 1.5 from each quaternary symbol of the block encoded data strings and mapping two quaternary symbols to I and Q dimensions, respectively, to form one complex symbol to produce mapped data; and modulating, in a transmitter , the mapped data to a modulated signal for an optical channel .
Electric motor nacelle for a vertical take-off and landing (VTOL) aircraft comprising: - a electric motor , - a fairing wherein the electric motor is housed equipped with at least one propeller extending outwards from a top face of the fairing, and - a cooling device designed to cool the electric motor when the aircraft is in take-off, cruise and landing phases and comprising a reversible coolant fluid supply and exhaust manifold , designed, alternately: ∘in the cruise phase, to receive a stream of cold fluid (F3) generated by the movement of the aircraft and to convey this stream of fluid, through the motor , towards an outlet situated opposite the propeller , and ∘in the take-off or landing phase, to receive a stream of cooling fluid (F2) transmitted by the propeller and having passed through the motor , the stream of fluid being heated by contact with heat exchange surfaces of said motor. - a electric motor , - a fairing wherein the electric motor is housed equipped with at least one propeller extending outwards from a top face of the fairing, and - a cooling device designed to cool the electric motor when the aircraft is in take-off, cruise and landing phases and comprising a reversible coolant fluid supply and exhaust manifold , designed, alternately: ∘in the cruise phase, to receive a stream of cold fluid (F3) generated by the movement of the aircraft and to convey this stream of fluid, through the motor , towards an outlet situated opposite the propeller , and ∘in the take-off or landing phase, to receive a stream of cooling fluid (F2) transmitted by the propeller and having passed through the motor , the stream of fluid being heated by contact with heat exchange surfaces of said motor. ∘in the cruise phase, to receive a stream of cold fluid (F3) generated by the movement of the aircraft and to convey this stream of fluid, through the motor , towards an outlet situated opposite the propeller , and ∘in the take-off or landing phase, to receive a stream of cooling fluid (F2) transmitted by the propeller and having passed through the motor , the stream of fluid being heated by contact with heat exchange surfaces of said motor.
An interface circuit , comprising: a first powered device configured to receive, and to couple to a power supply , a first power signal from a first power source ; and a second powered device (34 1 ) configured to receive a second power signal from a second power source different than the first power source , to couple the second power signal to the power supply , and to prevent the first powered device (34 2 ) from coupling the first power signal to the power supply while the second powered device (34 1 ) is coupling the second power signal to the power supply ; wherein the second powered device (34 1 ) is configured to prevent the first powered device (34 2 ) from coupling the first power signal to the power supply by coupling the second power signal to a node of the first powered device (34 2 ). a first powered device configured to receive, and to couple to a power supply , a first power signal from a first power source ; and a second powered device (34 1 ) configured to receive a second power signal from a second power source different than the first power source , to couple the second power signal to the power supply , and to prevent the first powered device (34 2 ) from coupling the first power signal to the power supply while the second powered device (34 1 ) is coupling the second power signal to the power supply ; wherein the second powered device (34 1 ) is configured to prevent the first powered device (34 2 ) from coupling the first power signal to the power supply by coupling the second power signal to a node of the first powered device (34 2 ).
A method performed by a User Equipment, UE, the method comprising: receiving a Radio Resource Control, RRC, configuration comprising a plurality of repetition lists, each of the plurality of repetition lists mapped to one of a plurality of Downlink Control Information, DCI, formats, each of the plurality of repetition lists including a plurality of values, and each of the plurality of values indicating a number of repetitions for a Physical Uplink Shared Channel, PUSCH, transmission; receiving DCI having a particular DCI format for scheduling the PUSCH transmission, the DCI comprising an indicator; identifying a repetition list of the plurality of repetition lists based on the particular DCI format to which the repetition list is mapped; selecting, from the plurality of values included in the identified repetition list, a value that corresponds to the indicator; determining a number of times the PUSCH transmission is required to be repeated according to the selected value; and performing the PUSCH transmission for the number of times. receiving a Radio Resource Control, RRC, configuration comprising a plurality of repetition lists, each of the plurality of repetition lists mapped to one of a plurality of Downlink Control Information, DCI, formats, each of the plurality of repetition lists including a plurality of values, and each of the plurality of values indicating a number of repetitions for a Physical Uplink Shared Channel, PUSCH, transmission; receiving DCI having a particular DCI format for scheduling the PUSCH transmission, the DCI comprising an indicator; identifying a repetition list of the plurality of repetition lists based on the particular DCI format to which the repetition list is mapped; selecting, from the plurality of values included in the identified repetition list, a value that corresponds to the indicator; determining a number of times the PUSCH transmission is required to be repeated according to the selected value; and performing the PUSCH transmission for the number of times.
An arc fault circuit interrupter AFCI, comprising a noise generation circuit, which noise generation circuit comprises a power switch module , a noise generator , and a capacitor , wherein the noise generator is connected to both the power switch module and the capacitor , wherein the power switch module comprises a power source, a first resistor, a second resistor, a first switch, and a P-channel metal oxide semiconductor, PMOS transistor; the power switch module is configured to control, according to a self-checking instruction, whether the noise generator generates a noise signal; and the capacitor is configured to filter out a direct current component in the noise signal when the noise generator generates the noise signal; the noise generator is a Zener diode; and a first terminal of the Zener diode is connected to both the drain of the PMOS transistor and a first terminal of the capacitor , and a second terminal of the Zener diode is grounded; or the noise generator is a second NPN transistor; and an emitter of the second NPN transistor is connected to the drain of the PMOS transistor, a base of the second NPN transistor is connected to a first terminal of the capacitor , and a collector of the second NPN transistor is not connected,; and A first terminal of the first resistor is connected to a first terminal of the first switch, a second terminal of the first switch is grounded, a third terminal of the first switch is connected to both a first terminal of the second resistor and a gate of the PMOS transistor, a second terminal of the second resistor and a source of the PMOS transistor both are connected to the power source, and a drain of the PMOS transistor is connected to the noise generator . the power switch module is configured to control, according to a self-checking instruction, whether the noise generator generates a noise signal; and the capacitor is configured to filter out a direct current component in the noise signal when the noise generator generates the noise signal; the noise generator is a Zener diode; and a first terminal of the Zener diode is connected to both the drain of the PMOS transistor and a first terminal of the capacitor , and a second terminal of the Zener diode is grounded; or the noise generator is a second NPN transistor; and an emitter of the second NPN transistor is connected to the drain of the PMOS transistor, a base of the second NPN transistor is connected to a first terminal of the capacitor , and a collector of the second NPN transistor is not connected,; and A first terminal of the first resistor is connected to a first terminal of the first switch, a second terminal of the first switch is grounded, a third terminal of the first switch is connected to both a first terminal of the second resistor and a gate of the PMOS transistor, a second terminal of the second resistor and a source of the PMOS transistor both are connected to the power source, and a drain of the PMOS transistor is connected to the noise generator .
A die comprising: a plurality of fluid actuation devices ; at least one strain gauge sensor configured to sense strain; and at least one temperature sensor configured to sense the temperature of the die to compensate for a temperature component of the sensed strain; characterized in that : the at least one strain gauge sensor comprises three piezoresistive sensor elements in a rosette configuration, the at least one strain gauge sensor comprising: a first electrode , a second electrode and a first piezoresistive sensor element electrically coupled between the first electrode and the second electrode ; a third electrode , a fourth electrode and a second piezoresistive element electrically coupled between the third electrode and the fourth electrode ; a fifth electrode , a sixth electrode and a third piezoresistive sensor element electrically coupled between the fifth electrode and sixth electrode ; and the at least one temperature sensor is located adjacent to the first electrode , the third electrode and the fifth electrode . a plurality of fluid actuation devices ; at least one strain gauge sensor configured to sense strain; and at least one temperature sensor configured to sense the temperature of the die to compensate for a temperature component of the sensed strain; characterized in that : the at least one strain gauge sensor comprises three piezoresistive sensor elements in a rosette configuration, the at least one strain gauge sensor comprising: a first electrode , a second electrode and a first piezoresistive sensor element electrically coupled between the first electrode and the second electrode ; a third electrode , a fourth electrode and a second piezoresistive element electrically coupled between the third electrode and the fourth electrode ; a fifth electrode , a sixth electrode and a third piezoresistive sensor element electrically coupled between the fifth electrode and sixth electrode ; and the at least one temperature sensor is located adjacent to the first electrode , the third electrode and the fifth electrode . a first electrode , a second electrode and a first piezoresistive sensor element electrically coupled between the first electrode and the second electrode ; a third electrode , a fourth electrode and a second piezoresistive element electrically coupled between the third electrode and the fourth electrode ; a fifth electrode , a sixth electrode and a third piezoresistive sensor element electrically coupled between the fifth electrode and sixth electrode ; and the at least one temperature sensor is located adjacent to the first electrode , the third electrode and the fifth electrode .