mhurhangee/patent-ind-claim-en huggingface dataset:
Method for modelling a motor vehicle sensor in a virtual test environment for virtual testing of software for automated driving and autonomously driving motor vehicles, wherein - a sensor model is automatically generated on the basis of the following: - measurements of a sensor in reality which are analyzed by an algorithm for machine learning, which is trained to extract the parameters required for modelling the sensor from measurements of the sensor, or - one or more machine-readable sensor data sheets, from which an algorithm extracts the parameters required for modelling the sensor; and - the motor vehicle sensor is modelled in the virtual test environment by way of definition and use of a sensor support , a raycast distribution shape , a group of raycast properties , a raycast reflection factor , and a raycast echo based on the extracted parameters. - a sensor model is automatically generated on the basis of the following: - measurements of a sensor in reality which are analyzed by an algorithm for machine learning, which is trained to extract the parameters required for modelling the sensor from measurements of the sensor, or - one or more machine-readable sensor data sheets, from which an algorithm extracts the parameters required for modelling the sensor; and - measurements of a sensor in reality which are analyzed by an algorithm for machine learning, which is trained to extract the parameters required for modelling the sensor from measurements of the sensor, or - one or more machine-readable sensor data sheets, from which an algorithm extracts the parameters required for modelling the sensor; and - the motor vehicle sensor is modelled in the virtual test environment by way of definition and use of a sensor support , a raycast distribution shape , a group of raycast properties , a raycast reflection factor , and a raycast echo based on the extracted parameters.
A node for a distributed computing system, wherein the distributed computing system comprises a series of nodes comprising the node and a previous node, wherein the previous node is configured to provide an intermediate result to the node, wherein the node comprises a trusted execution environment, TEE, and wherein the node is configured to perform: - receiving first encrypted data from a data source; - obtaining first decrypted data by decrypting the first encrypted data using the TEE; - producing a final result; wherein the producing a final result comprising: - determining a trust to the previous node; and - controlling, on the basis of the previous node being deemed trusted: - generating an anonymized computation result on the basis of the first decrypted data and the intermediate result; and - transmitting the anonymized computation result to a data receiver outside of the distributed computing system. - receiving first encrypted data from a data source; - obtaining first decrypted data by decrypting the first encrypted data using the TEE; - producing a final result; wherein the producing a final result comprising: - determining a trust to the previous node; and - controlling, on the basis of the previous node being deemed trusted: - generating an anonymized computation result on the basis of the first decrypted data and the intermediate result; and - transmitting the anonymized computation result to a data receiver outside of the distributed computing system. - determining a trust to the previous node; and - controlling, on the basis of the previous node being deemed trusted: - generating an anonymized computation result on the basis of the first decrypted data and the intermediate result; and - transmitting the anonymized computation result to a data receiver outside of the distributed computing system. - generating an anonymized computation result on the basis of the first decrypted data and the intermediate result; and - transmitting the anonymized computation result to a data receiver outside of the distributed computing system.
A pharmaceutical tablet with a first layer comprising telmisartan, and a second layer comprising hydrochlorothiazide and amlodipine, wherein the second layer comprises 10-60% mannitol, 10-50% microcrystalline cellulose and 5-25% corn starch. 10-60% mannitol, 10-50% microcrystalline cellulose and 5-25% corn starch.
A wedge assembly comprising: a recess defined along an elongated upper surface of the wedge assembly, the recess configured to receive a main conductor or a tap conductor when the wedge assembly is installed in an electrical connector ; a first tab extending downward distal from the elongated upper surface , the first tab configured to be received by a cavity defined in a bottom portion of a body member of the electrical connector, and the first tab defining a first aperture therethrough configured to receive a bolt of the electrical connector; a second tab defining a second aperture therethrough configured to receive the bolt of the electrical connector, wherein a front surface of the second tab is configured to abut a head of the bolt when the bolt is received by the first tab and the second tab ; at least one retainer configured to releasably secure the bolt within the wedge assembly; characterized in that the at least one retainer comprises a retaining clip configured to be received by the bolt between the second tab and the first tab, wherein a rear surface of the second tab defines a cavity , and wherein the retaining clip is configured to abut the cavity defined by the rear surface of the second tab when the bolt is rotated for removal such that removal of the bolt from the wedge assembly is prevented. a recess defined along an elongated upper surface of the wedge assembly, the recess configured to receive a main conductor or a tap conductor when the wedge assembly is installed in an electrical connector ; a first tab extending downward distal from the elongated upper surface , the first tab configured to be received by a cavity defined in a bottom portion of a body member of the electrical connector, and the first tab defining a first aperture therethrough configured to receive a bolt of the electrical connector; a second tab defining a second aperture therethrough configured to receive the bolt of the electrical connector, wherein a front surface of the second tab is configured to abut a head of the bolt when the bolt is received by the first tab and the second tab ; at least one retainer configured to releasably secure the bolt within the wedge assembly; characterized in that the at least one retainer comprises a retaining clip configured to be received by the bolt between the second tab and the first tab, wherein a rear surface of the second tab defines a cavity , and wherein the retaining clip is configured to abut the cavity defined by the rear surface of the second tab when the bolt is rotated for removal such that removal of the bolt from the wedge assembly is prevented.
A repeated transmission method, comprises: performing , by a user equipment, first transmission of uplink data, and sending a first reference signal to a network device using a first transmission power, wherein the first reference signal is used to demodulate the first transmission of the uplink data; and performing , by the user equipment, N th transmission of the uplink data, and sending a second reference signal to the network device using a second transmission power, wherein N is an integer greater than or equal to 2, the second reference signal is used to demodulate the N th transmission of the uplink data, and the second transmission power is less than the first transmission power, wherein a transmission power of a reference signal corresponding to i th transmission of the uplink data is determined based on a redundancy version number used for the i th transmission of the uplink data, wherein i=1, ..., K, and K is a maximum quantity of times of repeated transmission, and wherein for RV=0 the first transmission power is used for the corresponding reference signal, and for an RV different from 0, the second transmission power is used for the corresponding reference signal. performing , by a user equipment, first transmission of uplink data, and sending a first reference signal to a network device using a first transmission power, wherein the first reference signal is used to demodulate the first transmission of the uplink data; and performing , by the user equipment, N th transmission of the uplink data, and sending a second reference signal to the network device using a second transmission power, wherein N is an integer greater than or equal to 2, the second reference signal is used to demodulate the N th transmission of the uplink data, and the second transmission power is less than the first transmission power, wherein a transmission power of a reference signal corresponding to i th transmission of the uplink data is determined based on a redundancy version number used for the i th transmission of the uplink data, wherein i=1, ..., K, and K is a maximum quantity of times of repeated transmission, and wherein for RV=0 the first transmission power is used for the corresponding reference signal, and for an RV different from 0, the second transmission power is used for the corresponding reference signal.
An aerosol delivery device (A) comprising: - an aerosol generator for generating an aerosol in the aerosol delivery device (A), the aerosol generator comprising a membrane , and a vibrator which is configured to vibrate a fluid and to aerosolise the fluid by the membrane , - a fluid reservoir for receiving the fluid to be aerosolised, the fluid reservoir being arranged in fluid communication with the membrane , and - a controller which is configured to operate the vibrator so as to vibrate the fluid , characterised in that the aerosol delivery device (A) further comprises: - a temperature sensor which is configured to detect a temperature of the vibrator and/or the membrane , and - a detector which is configured to detect the presence of fluid in contact with the membrane and/or in the fluid reservoir on the basis of the temperature of the vibrator and/or the membrane detected by the temperature sensor . - an aerosol generator for generating an aerosol in the aerosol delivery device (A), the aerosol generator comprising a membrane , and a vibrator which is configured to vibrate a fluid and to aerosolise the fluid by the membrane , a membrane , and a vibrator which is configured to vibrate a fluid and to aerosolise the fluid by the membrane , - a fluid reservoir for receiving the fluid to be aerosolised, the fluid reservoir being arranged in fluid communication with the membrane , and - a controller which is configured to operate the vibrator so as to vibrate the fluid , - a temperature sensor which is configured to detect a temperature of the vibrator and/or the membrane , and - a detector which is configured to detect the presence of fluid in contact with the membrane and/or in the fluid reservoir on the basis of the temperature of the vibrator and/or the membrane detected by the temperature sensor .
Position sensor for an actuator, such as a control valve, of a processing plant, such as a chemical plant, a power plant or the like, having a measuring shaft capable of pivoting less than 360° around a pivot axis (W), and an angle sensor for detecting an actual angular position of the measuring shaft relative to a stationary reference point, wherein the measuring shaft comprises: a first section of the measuring shaft extending coaxially to the pivot axis (W) for introducing a pivotal movement to the measuring shaft corresponding to a control movement of an actuator rod or -shaft, a second section of the measuring shaft particularly extending coaxially to the pivot axis (W), to which a measuring shaft-based angle sensor component, such as a permanent magnet , of the angle sensor is attached, and at least one bar extending eccentrically relative to the pivot axis (W), in an axial direction (A), and arranged between the first section of the measuring shaft and the second section of the measuring shaft in the axial direction (A), and connecting the sections of the measuring shaft rotationally fixed, and a particularly cylindrical free space which is arranged between the sections of the measuring shaft in the axial direction (A), and at the level of the pivot axis (W) in a radial direction (Q), wherein the angle sensor is arranged at least partially in the free space , wherein the at least one eccentric bar enables access to the free space in the radial direction (Q) transverse relative to the axial direction (A). a first section of the measuring shaft extending coaxially to the pivot axis (W) for introducing a pivotal movement to the measuring shaft corresponding to a control movement of an actuator rod or -shaft, a second section of the measuring shaft particularly extending coaxially to the pivot axis (W), to which a measuring shaft-based angle sensor component, such as a permanent magnet , of the angle sensor is attached, and at least one bar extending eccentrically relative to the pivot axis (W), in an axial direction (A), and arranged between the first section of the measuring shaft and the second section of the measuring shaft in the axial direction (A), and connecting the sections of the measuring shaft rotationally fixed, and a particularly cylindrical free space which is arranged between the sections of the measuring shaft in the axial direction (A), and at the level of the pivot axis (W) in a radial direction (Q), wherein the angle sensor is arranged at least partially in the free space , wherein the at least one eccentric bar enables access to the free space in the radial direction (Q) transverse relative to the axial direction (A).
A deployable element and device for deploying said deployable element for a weapon system, said deploying device comprising a support piece , said deployable element being rotatably mounted on said support piece and being connected by means of at least one elastic element to said support piece , said deployable element comprising at least one pin , said pin being able to move along a curved guide of the support piece and to adopt one or the other of two stable positions (P1, P2) respectively in two housings (23B, 24B; 23C, 24C) provided in the support piece , these stable positions respectively corresponding to a stowed position (P1) and a deployed position (P2) of the deployable element , characterised in that at least said guide and said elastic element are configured to generate an automatic deployment of the deployable element to said deployed position (P2) as soon as the deployable element is subjected to a rotation, from the stowed position (P1) to the deployed position (P2), the angle of which is greater than or equal to a so-called unlocking angle (θ0)
Heterojunction diode comprising: - first and second semi-conductive layers made of III-N material that are superposed to form an electron gas layer , the first semi-conductive layer being made of GaN; - an anode and a cathode selectively electrically connected to each other by means of the electron gas layer; - a third semi-conductive layer made of GaN, positioned under the electron gas layer , having an N-doping, the first semi-conductive layer being in contact with the third semi-conductive layer , said first and third semi-conductive layers being formed from the same III-N alloy with different dopings, the first semi-conductive layer being of the unintentionally doped type; - a first P-doped semi-conductor element in contact with the anode and forming a separation between the anode and said third layer; - a second N-doped semi-conductor element in contact with the cathode and with said third layer and forming a separation between the cathode and said third layer; characterized in that : - the third semi-conductive layer made of GaN has an N-doping concentration at most equal to 4 ∗ 10 16 cm -3 ; - the first semi-conductor element is in contact with the third semi-conductive layer and the third semi-conductive layer and the first and second semi-conductor elements form a PIN diode. - first and second semi-conductive layers made of III-N material that are superposed to form an electron gas layer , the first semi-conductive layer being made of GaN; - an anode and a cathode selectively electrically connected to each other by means of the electron gas layer; - a third semi-conductive layer made of GaN, positioned under the electron gas layer , having an N-doping, the first semi-conductive layer being in contact with the third semi-conductive layer , said first and third semi-conductive layers being formed from the same III-N alloy with different dopings, the first semi-conductive layer being of the unintentionally doped type; - a first P-doped semi-conductor element in contact with the anode and forming a separation between the anode and said third layer; - a second N-doped semi-conductor element in contact with the cathode and with said third layer and forming a separation between the cathode and said third layer; - the third semi-conductive layer made of GaN has an N-doping concentration at most equal to 4 ∗ 10 16 cm -3 ; - the first semi-conductor element is in contact with the third semi-conductive layer and the third semi-conductive layer and the first and second semi-conductor elements form a PIN diode.
A syringe shield in combination with a syringe , the syringe comprising a barrel , a tip and a plunger when manipulating a radioactive solution, the syringe shield comprising: a shield body in which the syringe is insertable, the shield body comprising a window ; a first flange at a first open end of the syringe shield ; a second flange at a second open end of the syringe shield , wherein the second flange has a diameter that is larger than the shield body ; wherein the second flange , the shield body , and the window comprise radiation shielding material; wherein the tip of the syringe is accessible by the second open end of the syringe shield and the plunger extends outside the first open end when the syringe is inserted in the syringe shield ; and wherein the barrel of the syringe comprises a flange , and wherein the first flange of the syringe shield comprises a recess that is shaped to receive the flange (22, 22") and the recess in the first flange is designed to releasably engage with the flange and wherein the flange functions as a twist-lock element that, when twisted, will be received by twist-lock recesses in the first flange of the syringe shield , thereby helping secure the syringe to the syringe shield while the syringe is being used. a shield body in which the syringe is insertable, the shield body comprising a window ; a first flange at a first open end of the syringe shield ; a second flange at a second open end of the syringe shield , wherein the second flange has a diameter that is larger than the shield body ; wherein the second flange , the shield body , and the window comprise radiation shielding material; wherein the tip of the syringe is accessible by the second open end of the syringe shield and the plunger extends outside the first open end when the syringe is inserted in the syringe shield ; and wherein the barrel of the syringe comprises a flange , and wherein the first flange of the syringe shield comprises a recess that is shaped to receive the flange (22, 22") and the recess in the first flange is designed to releasably engage with the flange and wherein the flange functions as a twist-lock element that, when twisted, will be received by twist-lock recesses in the first flange of the syringe shield , thereby helping secure the syringe to the syringe shield while the syringe is being used.
A wavelength multiplexing system comprising at least one basic functional unit extending between input and output light ports , the basic functional unit comprising at least one multi-core fiber (12; 112), the multi-core fiber comprising N cores (C 1 , ... C n ) configured for supporting transmission of N wavelength channels around N wavelengths λ 1 , ..., λ n , wherein each said at least one multi-core fiber is configured to apply a predetermined encoding pattern to the wavelength channels enabling linear mixing between them while propagating through multiple cores of said at least one multi-core fiber, the system being characterized by one of the following: (i) said N cores of the multi-core fiber are photonic crystal fibers, PCFs, configured as supercontinuum generators defining N zero-dispersion points for the N wavelengths λ 1 , ..., λ n , respectively, said predetermined encoding pattern being a dispersion pattern, defined by N non-linear processings applied to the N channels, respectively, thereby performing spectral broadening of the N channels around said N wavelengths ; or (ii) the system comprises a tunable spectral filter device comprising N tunable spectral filters (TSF 1 ,...TSF n ) associated with the N wavelength channels of said at least one multi-core fiber , each of said N tunable spectral filters being configured and operable as a birefringent filter applying a different weight function to the respective light channel, said predetermined encoding pattern being defined by tunable spectral filtering of the N wavelength channels around said N wavelengths λ 1 , ..., λ n to perform weighted mixing of the channels . (i) said N cores of the multi-core fiber are photonic crystal fibers, PCFs, configured as supercontinuum generators defining N zero-dispersion points for the N wavelengths λ 1 , ..., λ n , respectively, said predetermined encoding pattern being a dispersion pattern, defined by N non-linear processings applied to the N channels, respectively, thereby performing spectral broadening of the N channels around said N wavelengths ; or (ii) the system comprises a tunable spectral filter device comprising N tunable spectral filters (TSF 1 ,...TSF n ) associated with the N wavelength channels of said at least one multi-core fiber , each of said N tunable spectral filters being configured and operable as a birefringent filter applying a different weight function to the respective light channel, said predetermined encoding pattern being defined by tunable spectral filtering of the N wavelength channels around said N wavelengths λ 1 , ..., λ n to perform weighted mixing of the channels .
A multiphase pump for conveying a multiphase process fluid from a low pressure side (LP) to a high pressure side (HP), comprising a housing having a pump inlet and a pump outlet for the process fluid, further comprising an inlet annulus designed for receiving the process fluid from the pump inlet , a discharge annulus designed for discharging the process fluid into the pump outlet , a pump rotor for rotating about an axial direction (A) arranged within the housing , with the pump rotor being designed for conveying the process fluid from the inlet annulus to the outlet annulus , and a return line for returning the process fluid from the high pressure side (HP) to the low pressure side (LP), wherein the return line comprises an inlet for receiving the process fluid, an outlet for discharging the process fluid and a control valve for opening and closing the return line , characterized in that the inlet of the return line is arranged directly at the discharge annulus .