mhurhangee/patent-ind-claim-en huggingface dataset:
A non-transitory, machine-accessible storage medium having computer instructions and wherein the instructions are configured, when executed by a computerized controller of a fuel metering valve coupled to a first position sensor and a second position sensor having respectively a first resistor and a second resistor, to cause the controller to: measure a first resistance of the first resistor associated with the first position sensor ; based upon the measured first resistance, select a first delta curve, the first delta curve describing differences between a nominal fuel valve position and a first measured fuel valve position associated with the first position sensor ; measure a second resistance of the second resistor associated with the second position sensor ; based upon the measured second resistance, select a second delta curve, the second delta curve describing differences between the nominal fuel valve position and a second measured fuel valve position associated with the second position sensor ; receive a first fuel valve position (FVP) from the first position sensor , and apply the first FVP to the first delta curve to obtain a first compensated FVP; receive a second FVP from the second position sensor , and apply the second FVP to the second delta curve to obtain a second compensated FVP; correlate the first compensated FVP and the second compensated FVP to obtain a final compensated FVP; apply the final compensated FVP to a desired fuel valve position to obtain a final fuel valve position and apply the final fuel valve position to a fuel valve to control an operation of the fuel valve . measure a first resistance of the first resistor associated with the first position sensor ; based upon the measured first resistance, select a first delta curve, the first delta curve describing differences between a nominal fuel valve position and a first measured fuel valve position associated with the first position sensor ; measure a second resistance of the second resistor associated with the second position sensor ; based upon the measured second resistance, select a second delta curve, the second delta curve describing differences between the nominal fuel valve position and a second measured fuel valve position associated with the second position sensor ; receive a first fuel valve position (FVP) from the first position sensor , and apply the first FVP to the first delta curve to obtain a first compensated FVP; receive a second FVP from the second position sensor , and apply the second FVP to the second delta curve to obtain a second compensated FVP; correlate the first compensated FVP and the second compensated FVP to obtain a final compensated FVP; apply the final compensated FVP to a desired fuel valve position to obtain a final fuel valve position and apply the final fuel valve position to a fuel valve to control an operation of the fuel valve .
Greenhouse for underwater cultivation of terrestrial plant species comprising a dome suitable for being filled with air in an underwater environment, provided with an aperture for lower access and made of a material that is impermeable to water and permeable to light, such dome comprising means for restraining to the sea floor, means for adjusting the level of water/air in the dome itself which must ensure that the plant species cultivated in the greenhouse always reside above such level, a system for the automatic irrigation of the cultivated plants is present inside such dome, such system comprising a tubular structure on which a plurality of mutually spaced holes are provided, inside which supports are placed for housing and cultivating plant species, irrigation water flowing inside such tubular structure and irrigating such supports in order to achieve a hydroponic culture, wherein it comprises a device for collecting condensation from the inner surface of the dome that includes a movable blade , which adheres to the transparent inner surface of the dome, on which due to the strongly damp environment, a multiplicity of water drops is formed, such blade collects the drops with its movement, which drops, due to weight gain, slide down along the inner surface and are conveyed into at least one collection gutter , positioned on the inner walls of the dome, such gutter being arranged along a downhill path, terminating near the collection tank , so that the water collected on the inner walls of the dome is then transported from the gutter to such tank, wherein the blade is substantially curved as the dome, in order to operate substantially like a windshield wiper on the transparent lower surface of the dome itself.
Propulsion apparatus for space vehicles, comprising at least a thruster comprising a solid state oxygen-rich source layer , means for extracting oxygen ions from said solid state oxygen-rich source layer , means for accelerating correspondingly extracted oxygen ions into vacuum, characterized in that it comprises a stack including said solid state oxygen-rich source layer , an active layer being deposited above said solid state oxygen-rich source layer , in contact with said solid state oxygen-rich source layer , said active layer being formed with a material different from said solid state oxygen-rich source layer , said material being an oxide presenting impedance hysteresis behavior, in which in a low resistance state (LRS) oxygen ions are expelled through the active layer and in which in a high resistance state (HRS) the active layer ceases expelling ions.
An object and fastening system for wall mounting the object, the object having a fastening surface with at least one passage opening , the system further comprising: - at least one housing element of cylindrical design with a receiving area for insertion into the passage opening of the fastening surface facing the one wall , - at least one bolt protruding from the wall which is received in the receiving area , and - at least one securing pin , which is operatively connected to the bolt through a passage in the receiving area and secures said bolt in the housing element , characterized in that the housing element is designed with at least one radially protruding locking means and the fastening surface having a locking stop, wherein the locking means and the locking stop together form a rotary locking mechanism such that the housing element is adapted to be axially pushed into an insertion position in the passage opening from outside the object and, in a locking position relative to the insertion position within the passage opening , is rotated in relation to the fastening surface of the object , such that the at least one locking means engages the locking stop and axially blocks the housing element relative to the object . - at least one housing element of cylindrical design with a receiving area for insertion into the passage opening of the fastening surface facing the one wall , - at least one bolt protruding from the wall which is received in the receiving area , and - at least one securing pin , which is operatively connected to the bolt through a passage in the receiving area and secures said bolt in the housing element ,
Device for recovering electrical energy, comprising at least one ferromagnetic cable which is helically wound around at least a portion of a power conductor in order to form a magnetic system which is capable of sensing the magnetic field induced by a current (I1) passing through said power conductor , and means for generating an induced voltage (U2) from this magnetic field which can be utilised, characterised in that said at least one ferromagnetic cable is constituted by an assembly of unitary strands produced from ferromagnetic material, assembled in the form of a stranded wire and disposed to provide said ferromagnetic cable with flexibility in all directions, enabling it to be wound around said power conductor whatever the diameter of said power conductor, and in that said means for generating an induced voltage (U2) form an integral part of said at least one ferromagnetic cable .
A user equipment (UE), wherein the user equipment (UE) is configured to be served by a source base station (eNB 1 ) of a source cell of a wireless communication network, and the user equipment (UE) is configured with semi-persistent scheduling, SPS, in accordance with a SPS configuration provided by the source base station (eNB 1 ), the user equipment (UE) is configured to transmit the SPS configuration to a target base station (eNB 2 ), when the user equipment (UE) moves from the source cell (100 1 ) to the target cell (100 2 ); the user equipment (UE) is configured to maintain the SPS when moving from the source cell (100 1 ) to the target cell (100 2 ); characterised in that the user equipment (UE) is configured to signal a time of a next SPS packet to a target base station (eNB 2 ) when the user equipment (UE) moves from the source cell (100 1 ) to the target cell (100 2 ), wherein the time of a next SPS packet is signaled as a time of a next SPS interval or as an absolute time, or as a period of a SPS interval which has already been used up so far; and the user equipment (UE) is configured to receive the next SPS packet from the target base station (eNB 2 ) at the signaled time of the next SPS packet. the user equipment (UE) is configured to be served by a source base station (eNB 1 ) of a source cell of a wireless communication network, and the user equipment (UE) is configured with semi-persistent scheduling, SPS, in accordance with a SPS configuration provided by the source base station (eNB 1 ), the user equipment (UE) is configured to transmit the SPS configuration to a target base station (eNB 2 ), when the user equipment (UE) moves from the source cell (100 1 ) to the target cell (100 2 ); the user equipment (UE) is configured to maintain the SPS when moving from the source cell (100 1 ) to the target cell (100 2 ); characterised in that the user equipment (UE) is configured to signal a time of a next SPS packet to a target base station (eNB 2 ) when the user equipment (UE) moves from the source cell (100 1 ) to the target cell (100 2 ), wherein the time of a next SPS packet is signaled as a time of a next SPS interval or as an absolute time, or as a period of a SPS interval which has already been used up so far; and the user equipment (UE) is configured to receive the next SPS packet from the target base station (eNB 2 ) at the signaled time of the next SPS packet.
An antenna structure (S), comprising: a board unit comprising a metal board and an insulating board connected with the metal board ; and a coil unit disposed beside a same side of the metal board and the insulating board ; wherein the metal board and the insulating board both have an upper surface and a lower surface with respect to the upper surface , the metal board further has a plurality of peripheral sides, one of the peripheral sides is a narrow side , and the insulating board has a plurality of peripheral sides, one of the peripheral sides is a narrow side ; wherein the narrow side of the metal board and a narrow side of the insulating board are connected with each other, and the other peripheral sides of the metal board are exposed without connecting with the other peripheral sides of the insulating board ; a coil opening formed by the coil unit is disposed right under the commissure of the metal board and the insulating board ; wherein more than half of the area of the coil unit is covered by the insulating board , and less than half of the area of the coil unit is covered by the metal board ; wherein the coil opening formed by the coil unit is disposed right under a position between the metal board and the insulating board . a board unit comprising a metal board and an insulating board connected with the metal board ; and a coil unit disposed beside a same side of the metal board and the insulating board ; wherein the metal board and the insulating board both have an upper surface and a lower surface with respect to the upper surface , the metal board further has a plurality of peripheral sides, one of the peripheral sides is a narrow side , and the insulating board has a plurality of peripheral sides, one of the peripheral sides is a narrow side ; wherein the narrow side of the metal board and a narrow side of the insulating board are connected with each other, and the other peripheral sides of the metal board are exposed without connecting with the other peripheral sides of the insulating board ; a coil opening formed by the coil unit is disposed right under the commissure of the metal board and the insulating board ; wherein more than half of the area of the coil unit is covered by the insulating board , and less than half of the area of the coil unit is covered by the metal board ; wherein the coil opening formed by the coil unit is disposed right under a position between the metal board and the insulating board .
A method of quantifying a percentage of cells expressing one or more biomarkers comprising: homogenizing a whole tumor sample to provide a homogenized sample; staining the cells in the homogenized sample for the presence of the one or more biomarkers; performing at least a first primary gating of the cells in the homogenized sample based on size and granularity scattering to provide at least a first population of cells having a first predicted cell type; determining a first percentage of cells expressing a first of the one or more biomarkers in a first sub-population within the first population of cells; and further determining a second percentage of cells in a second sub-population within the first population of cells having the first predicted cell type expressing a second of the one or more biomarkers, wherein the first and second of the one or more biomarkers are different homogenizing a whole tumor sample to provide a homogenized sample; staining the cells in the homogenized sample for the presence of the one or more biomarkers; performing at least a first primary gating of the cells in the homogenized sample based on size and granularity scattering to provide at least a first population of cells having a first predicted cell type; determining a first percentage of cells expressing a first of the one or more biomarkers in a first sub-population within the first population of cells; and further determining a second percentage of cells in a second sub-population within the first population of cells having the first predicted cell type expressing a second of the one or more biomarkers, wherein the first and second of the one or more biomarkers are different
An apparatus comprising: a set of external switching voltage regulators , each switching voltage regulator providing a respective dynamically-adjusted supply voltage; a set of circuit blocks , each circuit block connected to a respective switching voltage regulator of the set of external switching regulators and comprising a respective set of mission-mode circuits (D1, D2, A1, A2, A3, A4, A5, A6, A7, A8) grouped according to voltage supply requirements over a plurality of test corners, each test corner of the plurality of test corners associated with a respective process corner and corresponding operating temperature, the set of circuit blocks comprising at least two analog circuit blocks , each circuit block comprising: the respective set of mission-mode circuits configured to operate in a transceiver signal processing path using the dynamically-adjusted supply voltage of the respective switching voltage regulator; and a monitoring circuit (1602, 1604, 1702, 1704, M1) representative of the respective set of mission-mode circuits configured to provide a control signal used in adjusting the dynamically-adjusted supply voltage based on a measured performance of the monitoring circuit. a set of external switching voltage regulators , each switching voltage regulator providing a respective dynamically-adjusted supply voltage; a set of circuit blocks , each circuit block connected to a respective switching voltage regulator of the set of external switching regulators and comprising a respective set of mission-mode circuits (D1, D2, A1, A2, A3, A4, A5, A6, A7, A8) grouped according to voltage supply requirements over a plurality of test corners, each test corner of the plurality of test corners associated with a respective process corner and corresponding operating temperature, the set of circuit blocks comprising at least two analog circuit blocks , each circuit block comprising: the respective set of mission-mode circuits configured to operate in a transceiver signal processing path using the dynamically-adjusted supply voltage of the respective switching voltage regulator; and a monitoring circuit (1602, 1604, 1702, 1704, M1) representative of the respective set of mission-mode circuits configured to provide a control signal used in adjusting the dynamically-adjusted supply voltage based on a measured performance of the monitoring circuit. the respective set of mission-mode circuits configured to operate in a transceiver signal processing path using the dynamically-adjusted supply voltage of the respective switching voltage regulator; and a monitoring circuit (1602, 1604, 1702, 1704, M1) representative of the respective set of mission-mode circuits configured to provide a control signal used in adjusting the dynamically-adjusted supply voltage based on a measured performance of the monitoring circuit.
An aircraft headrest adjusting bracket comprising: a bracket body having a first side and a second side , the bracket body defining at least two headrest post engaging portions and an internal gap separating the first side and the second side; at least two protrusions disposed on an interior surface defining the internal gap, each proximal to a corresponding headrest post engaging portion; and a tensioning element engaging the first side and the second side, wherein the tensioning element is configured to displace the first side toward the second side to create tension between the bracket body and headrests posts disposed within the at least two headrest post engaging portions and the at least two protrusions are disposed to contact the headrest posts when inserted into the at least two headrest post engaging portions to increase surface area contact with the headrest posts when the tension element displaces the first side toward the second side. a bracket body having a first side and a second side , the bracket body defining at least two headrest post engaging portions and an internal gap separating the first side and the second side; at least two protrusions disposed on an interior surface defining the internal gap, each proximal to a corresponding headrest post engaging portion; and a tensioning element engaging the first side and the second side, wherein the tensioning element is configured to displace the first side toward the second side to create tension between the bracket body and headrests posts disposed within the at least two headrest post engaging portions and the at least two protrusions are disposed to contact the headrest posts when inserted into the at least two headrest post engaging portions to increase surface area contact with the headrest posts when the tension element displaces the first side toward the second side.
A method of wireless communication, the method comprising: selecting , by a user equipment, UE , a set of resource block pairs for carrying a peer discovery message within a time cycle of a peer discovery signal; and transmitting , by the UE , information (n 1 , n 2 , n 3 ) indicating an absolute location of a next resource block pair within the set of resource block pairs or a relative offset of the location of the next resource block pair within the set of resource block pairs with respect to the location of the resource block pair transmitting the information, wherein the information is transmitted on each of the selected resource block pairs but not on the resource block pair which is the last resource block pair carrying the discovery message. selecting , by a user equipment, UE , a set of resource block pairs for carrying a peer discovery message within a time cycle of a peer discovery signal; and transmitting , by the UE , information (n 1 , n 2 , n 3 ) indicating an absolute location of a next resource block pair within the set of resource block pairs or a relative offset of the location of the next resource block pair within the set of resource block pairs with respect to the location of the resource block pair transmitting the information, wherein the information is transmitted on each of the selected resource block pairs but not on the resource block pair which is the last resource block pair carrying the discovery message.
An abrasive comprising zirconium oxide particles, wherein the zirconium oxide particles have a specific surface area of from 1 to 9 m 2 /g, wherein the zirconium oxide particles have an average primary particle size of 0.3 μm or less and an average secondary particle size of from 0.1 to 5 μm, and wherein the zirconium oxide particles are composed of crystalline zirconia that is cubic or monoclinic, or composed of amorphous zirconia.
An apparatus comprising: circuitry configured to provide a direct current signal to a subject ; wherein the circuitry comprises a capacitor and the circuitry is configured to enable switching between a first circuit loop comprising the capacitor and a first resistor and a second circuit loop comprising the capacitor and a second resistor and the first circuit loop is configured to enable charging of the capacitor to enable measurement of a first time constant to be obtained where the first time constant is indicative of a charging time of the capacitor and the second circuit loop is configured to enable discharging of the capacitor to enable measurement of a second time constant to be obtained where the second time constant is indicative of a discharging time of the capacitor; and wherein the first time constant and the second time constant enable an impedance of the subject to be estimated. circuitry configured to provide a direct current signal to a subject ; wherein the circuitry comprises a capacitor and the circuitry is configured to enable switching between a first circuit loop comprising the capacitor and a first resistor and a second circuit loop comprising the capacitor and a second resistor and the first circuit loop is configured to enable charging of the capacitor to enable measurement of a first time constant to be obtained where the first time constant is indicative of a charging time of the capacitor and the second circuit loop is configured to enable discharging of the capacitor to enable measurement of a second time constant to be obtained where the second time constant is indicative of a discharging time of the capacitor; and wherein the first time constant and the second time constant enable an impedance of the subject to be estimated.
An intraocular lens delivery device for retaining and delivering an intraocular lens, said intraocular lens delivery device comprising: a macro movement actuator which is configured to be actuated to move the intraocular lens into position in the device for the intraocular lens to be delivered; and a micro movement actuator comprising at least one pivotable member which is configured to be pivoted to deliver the intraocular lens, characterised in that the micro movement actuator comprises a worm gear which engages a gear inside the intraocular lens delivery device .