mhurhangee/patent-ind-claim-en huggingface dataset:
A two-part pesticide precursor system comprising less than 0.5% glucosinolate breakdown products comprising two separated parts (a) a first part comprising sinigrin concentrate and (b) a second part comprising a Sinapis alba seed meal comprising an active myrosinase complex in a concentration sufficient to release an effective amount of glucosinolate breakdown products upon mixing of the first and second part in the presence of water, wherein upon mixing of the two parts a formulation is obtained in which the myrosinase activity units per unit mass of sinigrin is less than 0.96 myrosinase activity units/mg of sinigrin.
A method, comprising, matching policy data with variable image quality data to make energy consumption of image sensor circuitry more proportional to output image quality, including controlling the operation of one or more controllable power saving mechanisms of the image sensor circuitry, wherein the one or more power controllable power saving mechanisms of the image sensor circuitry comprises at least one clock having a controllable frequency; wherein controlling the operation of the one or more power saving mechanisms comprises computing the frequency of the at least one clock depending on a frame resolution and at least one of an exposure time and a frame rate to make the energy consumption of the image sensor circuitry more proportional to output image quality; and the method being characterized in that computing the frequency of the at least one clock depending on a frame resolution and at least one of an exposure time and a frame rate comprises, for single frame capture, selecting the frequency of the at least one clock depending on the frame resolution and the exposure time.
A method of connecting a first portion and a second portion of a connector system, the method including the steps of: locating a cover over at least a portion of the second portion; rolling back a substantially cylindrical first end of the cover over at least a portion of a substantially cylindrical second end of the cover; engaging the first portion with the second portion ; and unrolling the first end of the cover, wherein, upon unrolling the first end of the cover, the first end of the cover is located over at least a portion of the first portion , wherein, when the first portion is engaged with the second portion , a fluid pathway is formed through the first and second portions, wherein the cover comprises an intermediate portion located between the first and second ends, wherein a diameter of the intermediate portion is greater than a diameter of the first end and/or the second end , and wherein the first end has a ridge at a distal end of the first end and the second end has a ridge at a distal end of the second end, wherein the ridges of the first and second ends of the cover only extend radially outwards, and wherein the intermediate portion includes two frustoconical portions and a central portion , with each frustoconical portion being located at an end of the central portion. locating a cover over at least a portion of the second portion; rolling back a substantially cylindrical first end of the cover over at least a portion of a substantially cylindrical second end of the cover; engaging the first portion with the second portion ; and unrolling the first end of the cover, wherein, upon unrolling the first end of the cover, the first end of the cover is located over at least a portion of the first portion , wherein, when the first portion is engaged with the second portion , a fluid pathway is formed through the first and second portions, wherein the cover comprises an intermediate portion located between the first and second ends, wherein a diameter of the intermediate portion is greater than a diameter of the first end and/or the second end , and wherein the first end has a ridge at a distal end of the first end and the second end has a ridge at a distal end of the second end, wherein the ridges of the first and second ends of the cover only extend radially outwards, and wherein the intermediate portion includes two frustoconical portions and a central portion , with each frustoconical portion being located at an end of the central portion.
An electronic positioning system communicatively couplable to a turbine control device and a turbine engine control unit , the electronic positioning system comprising a memory, a processor, and instructions stored in the memory and operable when executed by the processor to cause the electronic positioning system to perform operations comprising: operating the turbine control device by recurrently: receiving a demand signal from the turbine engine control unit; and determining and transmitting a desired position to the turbine control device based on the demand signal; and during the operating of the turbine control device, tracking a total travel distance of a component of the turbine control device over time by recurrently: selectively identifying actual movement of the component of the turbine control device; and accumulating the identified actual movement of the component with the total travel distance of the component. operating the turbine control device by recurrently: receiving a demand signal from the turbine engine control unit; and determining and transmitting a desired position to the turbine control device based on the demand signal; and receiving a demand signal from the turbine engine control unit; and determining and transmitting a desired position to the turbine control device based on the demand signal; and during the operating of the turbine control device, tracking a total travel distance of a component of the turbine control device over time by recurrently: selectively identifying actual movement of the component of the turbine control device; and accumulating the identified actual movement of the component with the total travel distance of the component. selectively identifying actual movement of the component of the turbine control device; and accumulating the identified actual movement of the component with the total travel distance of the component.
A lock arrangement having a lock for an active leaf and having a counter lock for a fixed leaf, wherein the counter lock comprises a counter lock electronic device , wherein the lock comprises a lock electronic device , wherein the lock electronic device comprises a first communication means and the counter lock electronic device comprises a second communication means , wherein the first communication means and the second communication means enable communication between the lock electronic device and the counter lock electronic device , wherein the lock arrangement is designed to communicate with a further electric device, characterized in that the communication with the further electric device takes place via a first electronic device, selected from the lock electronic device and the counter lock electronic device, and the second electronic device, selected from the lock electronic device and the counter lock electronic device, can only communicate with the further electric device via the first electronic device. the lock arrangement is designed to communicate with a further electric device, characterized in that the communication with the further electric device takes place via a first electronic device, selected from the lock electronic device and the counter lock electronic device, and the second electronic device, selected from the lock electronic device and the counter lock electronic device, can only communicate with the further electric device via the first electronic device.
A flextensional transducer for underwater operation, comprising a driving element and a stave , wherein the stave ; is made from a material with elastic properties; and has a porous structure , characterized in that the porous structure of the stave comprises an ordered but non-periodic lattice .
A method for reference signal evaluation, comprising: a user equipment, UE, , measuring a Radio Link Monitoring Reference Signals, RLM-RS, resource sample from a base station at each of a plurality of RLM-RS resources on an unlicensed band during an evaluation period; the method is characterised by : determining whether one or more RLM-RS resource samples are missing during the evaluation period; and evaluating an in-sync condition and an out-of-sync condition based on a determination of whether the one or more RLM-RS resource samples are missing during the evaluation period. a user equipment, UE, , measuring a Radio Link Monitoring Reference Signals, RLM-RS, resource sample from a base station at each of a plurality of RLM-RS resources on an unlicensed band during an evaluation period; the method is characterised by : determining whether one or more RLM-RS resource samples are missing during the evaluation period; and evaluating an in-sync condition and an out-of-sync condition based on a determination of whether the one or more RLM-RS resource samples are missing during the evaluation period. determining whether one or more RLM-RS resource samples are missing during the evaluation period; and evaluating an in-sync condition and an out-of-sync condition based on a determination of whether the one or more RLM-RS resource samples are missing during the evaluation period.
A method of applying acoustic stimulation to a resource-bearing formation , the method comprising: using a first energy source (4(n)) to generate an acoustic field at a location in the formation and/or induce cavitation in a volume of liquid in the formation ; and using a second energy source to direct energy into the acoustic field and/or the cavitating volume of liquid , wherein the directed energy and the acoustic field or the cavitating liquid interact to create nanoparticles. using a first energy source (4(n)) to generate an acoustic field at a location in the formation and/or induce cavitation in a volume of liquid in the formation ; and using a second energy source to direct energy into the acoustic field and/or the cavitating volume of liquid , wherein the directed energy and the acoustic field or the cavitating liquid interact to create nanoparticles.
A wireless communication method, applied to a communication device configured with at least two packet data convergence protocol, PDCP, entities, wherein the at least two PDCP entities provide service for same upper-layer data, and the method comprises: performing, by the communication device, transmission of data through the at least two PDCP entities, wherein the communication device comprises at least one network device corresponding to the PDCP entity one by one; characterized in that the at least one network device comprises a first device and a second device, and the method further comprises: forwarding, by the second device, processed data to the first device, wherein said forwarding, by the second device, the processed data to the first device comprises: forwarding, by the second device, PDCP-processed data to the first device together with at least one of: a sequence number, SN, a hyper frame number, HFN, or a count value of a PDCP PDU. performing, by the communication device, transmission of data through the at least two PDCP entities, wherein the communication device comprises at least one network device corresponding to the PDCP entity one by one; characterized in that the at least one network device comprises a first device and a second device, and the method further comprises: forwarding, by the second device, processed data to the first device, wherein said forwarding, by the second device, the processed data to the first device comprises: forwarding, by the second device, PDCP-processed data to the first device together with at least one of: a sequence number, SN, a hyper frame number, HFN, or a count value of a PDCP PDU. forwarding, by the second device, processed data to the first device, wherein said forwarding, by the second device, the processed data to the first device comprises: forwarding, by the second device, PDCP-processed data to the first device together with at least one of: a sequence number, SN, a hyper frame number, HFN, or a count value of a PDCP PDU.
An auricular stimulation device comprising: a first electrode disposed on a first arm ; a second electrode disposed on a second arm , wherein the second electrode is in opposition to the first electrode and offset from the first electrode; a biasing member configured to urge a portion of the first arm towards a portion of the second arm, wherein at least one of the first and second electrodes is urged towards the other electrode to form a tissue clamping configuration; and a stimulation circuit in operative communication with the first and second electrodes, wherein the stimulation circuit is configured for generating a stimulation signal for actuating at least one of the first and second electrodes for stimulating a nerve within tissue clamped between the first and second electrodes; and an over-current protection circuit in operative communication with the stimulation circuit, wherein the over-current protection circuit is configured to cease operation of the stimulation circuit in an over-current situation. a first electrode disposed on a first arm ; a second electrode disposed on a second arm , wherein the second electrode is in opposition to the first electrode and offset from the first electrode; a biasing member configured to urge a portion of the first arm towards a portion of the second arm, wherein at least one of the first and second electrodes is urged towards the other electrode to form a tissue clamping configuration; and a stimulation circuit in operative communication with the first and second electrodes, wherein the stimulation circuit is configured for generating a stimulation signal for actuating at least one of the first and second electrodes for stimulating a nerve within tissue clamped between the first and second electrodes; and an over-current protection circuit in operative communication with the stimulation circuit, wherein the over-current protection circuit is configured to cease operation of the stimulation circuit in an over-current situation.
A radio frequency coil configured for use with a magnetic resonance imaging (MRI) guided radiation therapy apparatus , the radio frequency coil comprising: a first conductive loop ; a second conductive loop ; and a plurality of conductive rungs , each of the plurality of conductive rungs disposed between the first and second conductive loops and electrically connected to the first and second conductive loops, wherein at least one of the plurality of conductive rungs includes a first conductive rung section , a second conductive rung section , and a third conductive rung section , the second conductive rung section being disposed between the first and third conductive rung sections , characterized in that the second conductive rung section has a thickness along the radial direction of the radio frequency coil that is substantially thinner than a thickness of the first and third conductive rung sections along the radial direction of the radio frequency coil such that, when the radio frequency coil is used with the MRI guided radiation therapy apparatus, such that the second conductive rung section coincides with the position at which a radiation beam emitted from the radiation therapy apparatus penetrates from the outside of the radio frequency coil into the inner cylindrical volume of the radio frequency coil, the resulting beam attenuation by the second conductive rung section is reduced compared to an attenuation of the radiation beam if the radiation beam would be emitted through the first conductive rung section or through the third conductive rung section. a first conductive loop ; a second conductive loop ; and a plurality of conductive rungs , each of the plurality of conductive rungs disposed between the first and second conductive loops and electrically connected to the first and second conductive loops, wherein at least one of the plurality of conductive rungs includes a first conductive rung section , a second conductive rung section , and a third conductive rung section , the second conductive rung section being disposed between the first and third conductive rung sections , characterized in that the second conductive rung section has a thickness along the radial direction of the radio frequency coil that is substantially thinner than a thickness of the first and third conductive rung sections along the radial direction of the radio frequency coil such that, when the radio frequency coil is used with the MRI guided radiation therapy apparatus, such that the second conductive rung section coincides with the position at which a radiation beam emitted from the radiation therapy apparatus penetrates from the outside of the radio frequency coil into the inner cylindrical volume of the radio frequency coil, the resulting beam attenuation by the second conductive rung section is reduced compared to an attenuation of the radiation beam if the radiation beam would be emitted through the first conductive rung section or through the third conductive rung section.
A method for checking a gas mixture sensor and ionization sensor regarding their error-free functioning in a fuel-gas-powered heating device, wherein a gas mixture is created by providing a gas amount via a first actuator and a fuel gas amount via a second actuator and mixing them, wherein the gas mixture sensor is positioned in the gas mixture for detecting a material characteristic of the gas mixture and continuously transmits a sensor signal which is dependent from the respective gas mixture to a control device , wherein a flame signal is detected at a burner of the heating device via the ionization sensor and an ionization signal is determined therefrom and transmitted to the control device , wherein a corresponding ionization signal of the ionization sensor is assigned to the respective sensor signal of the gas mixture sensor , and wherein for checking the gas mixture sensor and the ionization sensor the gas amount or the fuel gas amount is temporarily changed in a pre-defined actuating variable of the first or the second actuator so that the gas mixture changes, and at the same time the respective resulting change of the sensor signal of the gas mixture sensor and of the ionization signal of the ionization sensor are measured and compared to one another. wherein a gas mixture is created by providing a gas amount via a first actuator and a fuel gas amount via a second actuator and mixing them, wherein the gas mixture sensor is positioned in the gas mixture for detecting a material characteristic of the gas mixture and continuously transmits a sensor signal which is dependent from the respective gas mixture to a control device , wherein a flame signal is detected at a burner of the heating device via the ionization sensor and an ionization signal is determined therefrom and transmitted to the control device , wherein a corresponding ionization signal of the ionization sensor is assigned to the respective sensor signal of the gas mixture sensor , and wherein for checking the gas mixture sensor and the ionization sensor the gas amount or the fuel gas amount is temporarily changed in a pre-defined actuating variable of the first or the second actuator so that the gas mixture changes, and at the same time the respective resulting change of the sensor signal of the gas mixture sensor and of the ionization signal of the ionization sensor are measured and compared to one another.
A method of encoding video data, the method comprising: receiving video data comprising a plurality of video blocks, the plurality of video blocks comprising a plurality of pixel values in a YUV or YC B C R color space; obtaining color gamut scalability (CGS) parameters comprising splitting the YUV or YC B C R color space into a plurality of rectangular cuboid partitions, each of the plurality of rectangular cuboid partitions comprising at least one partition boundary between the plurality of rectangular cuboid partitions; identifying pixel values in the plurality of rectangular cuboid partitions that comprise characteristics that may cause the obtained CGS parameters to produce artifacts when decoding the plurality of video blocks, wherein identifying pixel values in a rectangular cuboid partition comprises, for each partition boundary of the rectangular cuboid partition, collecting all pixel values that fall within a threshold value of the partition boundary in a list; identifying blocks of the plurality of video blocks that contain the pixel values that comprise the characteristics that may cause the obtained CGS parameters to produce artifacts when decoding the plurality of video blocks; disabling an inter-layer prediction mode for the identified blocks; and encoding the plurality of video blocks using a scalable video coding process with the obtained CGS parameters. receiving video data comprising a plurality of video blocks, the plurality of video blocks comprising a plurality of pixel values in a YUV or YC B C R color space; obtaining color gamut scalability (CGS) parameters comprising splitting the YUV or YC B C R color space into a plurality of rectangular cuboid partitions, each of the plurality of rectangular cuboid partitions comprising at least one partition boundary between the plurality of rectangular cuboid partitions; identifying pixel values in the plurality of rectangular cuboid partitions that comprise characteristics that may cause the obtained CGS parameters to produce artifacts when decoding the plurality of video blocks, wherein identifying pixel values in a rectangular cuboid partition comprises, for each partition boundary of the rectangular cuboid partition, collecting all pixel values that fall within a threshold value of the partition boundary in a list; identifying blocks of the plurality of video blocks that contain the pixel values that comprise the characteristics that may cause the obtained CGS parameters to produce artifacts when decoding the plurality of video blocks; disabling an inter-layer prediction mode for the identified blocks; and encoding the plurality of video blocks using a scalable video coding process with the obtained CGS parameters.
Powdered vinegar having a water content of 4-20 wt.% and comprising free vinegar derived acid and neutralized vinegar derived acid in an amount of 80-100 % of the dry matter that is contained in the powdered vinegar, wherein more than 95 % of the free vinegar derived acid and the neutralized vinegar derived acid is acetic acid in free and neutralized form and wherein the content of free vinegar derived acid is 3.5-15.0 wt.% of the powdered vinegar.