mhurhangee/ep-ind-claims huggingface dataset:
An adherent device suitable to monitor a patient, the device comprising: an adhesive patch to adhere to a skin of the patient; at least four electrodes (112A-112D or 222A-222D) connected to the patch and capable of electrically coupling to the patient at a skin-electrode interface; and impedance circuitry (130, 136, 420) coupled to the at least four electrodes to measure a tissue resistance of the patient at a first frequency, wherein the impedance circuitry is configured to determine the tissue hydration using the measured tissue resistance, characterized by the circuitry being configured to detect low frequency droop in the tissue resistance indicative of an irregular skin-electrode coupling and to, when low frequency droop is detected, temporarily suspend data collection based at least in part on the fact that low frequency droop has been detected. an adhesive patch to adhere to a skin of the patient; at least four electrodes (112A-112D or 222A-222D) connected to the patch and capable of electrically coupling to the patient at a skin-electrode interface; and impedance circuitry (130, 136, 420) coupled to the at least four electrodes to measure a tissue resistance of the patient at a first frequency, wherein the impedance circuitry is configured to determine the tissue hydration using the measured tissue resistance,
A sealed kneading machine comprising: a kneading tank that stores a kneading material; and a pair of rotors disposed within the kneading tank, wherein the rotor has a cylindrical rotor shaft and rotor vanes formed on a surface of the rotor shaft, and the rotor vanes are of a tangential type in which the rotor vanes do not overlap each other between the pair of rotors that face each other, and wherein the rotor vanes are configured to have a vane distal end shear deformation velocity at a distal end of each rotor vane when a kneading material is kneaded by rotating each rotor which is defined as a value obtained by dividing a turning velocity of the distal end of the rotor vane by a distance (Tc) between the distal end of the rotor vane and an inner face of the kneading tank, wherein the rotor shaft is configured to have a shaft surface shear deformation velocity on the surface of the rotor shaft which is defined as a value obtained by dividing a turning velocity of the surface of the rotor shaft by a distance (Td) between the surface of the rotor shaft and the inner face of the kneading tank, characterized in that the rotor is configured to have a shear deformation velocity ratio, which is a value obtained by dividing the vane distal end shear deformation velocity by the shaft surface shear deformation velocity, and is 5.0 or more and 40 or less, and in that a diameter of the rotor shaft is 0.65 times or more and 0.80 times or less a diameter of the inner face of the kneading tank. a kneading tank that stores a kneading material; and a pair of rotors disposed within the kneading tank, wherein the rotor has a cylindrical rotor shaft and rotor vanes formed on a surface of the rotor shaft, and the rotor vanes are of a tangential type in which the rotor vanes do not overlap each other between the pair of rotors that face each other, and wherein the rotor vanes are configured to have a vane distal end shear deformation velocity at a distal end of each rotor vane when a kneading material is kneaded by rotating each rotor which is defined as a value obtained by dividing a turning velocity of the distal end of the rotor vane by a distance (Tc) between the distal end of the rotor vane and an inner face of the kneading tank, wherein the rotor shaft is configured to have a shaft surface shear deformation velocity on the surface of the rotor shaft which is defined as a value obtained by dividing a turning velocity of the surface of the rotor shaft by a distance (Td) between the surface of the rotor shaft and the inner face of the kneading tank, characterized in that the rotor is configured to have a shear deformation velocity ratio, which is a value obtained by dividing the vane distal end shear deformation velocity by the shaft surface shear deformation velocity, and is 5.0 or more and 40 or less, and in that a diameter of the rotor shaft is 0.65 times or more and 0.80 times or less a diameter of the inner face of the kneading tank.
A construct comprising (i) a nucleotide sequence which encodes tyrosine hydroxylase, (ii) a nucleotide sequence which encodes GTP-cyclohydrolase I and (iii) a nucleotide sequence which encodes Aromatic Amino Acid Dopa Decarboxylase (AADC) wherein the nucleotide sequence encoding AADC is operably linked to the nucleotide sequence encoding TH such that they encode a TH-AADC or AADC-TH fusion protein.
A method for client authentication at an access point, the method comprising, in at least one hardware processor of the access point: receiving from a client a first nonce and a first cryptographic hash for the first nonce, the first cryptographic hash calculated using a first key derived from a second key, the second key input on the client or derived from a passphrase input on the client; generating a third key and a second cryptographic hash using the derived first key that checks the first cryptographic hash; and sending the third key and the second cryptographic hash to the client; the method being characterized in that it further comprises: deriving (S318, S320) first keys from each of a stored primary input and at least one stored secondary input, the stored primary input and the at least one stored secondary input each being one of a second key and a passphrase; and verifying the first cryptographic hash using each derived first key to find the derived first key that checks the first cryptographic hash; wherein each stored secondary input has a defined, limited period of validity and is valid at the deriving. receiving from a client a first nonce and a first cryptographic hash for the first nonce, the first cryptographic hash calculated using a first key derived from a second key, the second key input on the client or derived from a passphrase input on the client; generating a third key and a second cryptographic hash using the derived first key that checks the first cryptographic hash; and sending the third key and the second cryptographic hash to the client; the method being characterized in that it further comprises: deriving (S318, S320) first keys from each of a stored primary input and at least one stored secondary input, the stored primary input and the at least one stored secondary input each being one of a second key and a passphrase; and verifying the first cryptographic hash using each derived first key to find the derived first key that checks the first cryptographic hash; wherein each stored secondary input has a defined, limited period of validity and is valid at the deriving. deriving (S318, S320) first keys from each of a stored primary input and at least one stored secondary input, the stored primary input and the at least one stored secondary input each being one of a second key and a passphrase; and verifying the first cryptographic hash using each derived first key to find the derived first key that checks the first cryptographic hash; wherein each stored secondary input has a defined, limited period of validity and is valid at the deriving.
A method for contributing to the assembly of a wind turbine-comprising, in a final assembly condition, a tower surmounted by a nacelle cooperating with a rotor receiving a plurality of blades (3a-3c), the method comprising a temporary association with the tower of at least some blades from said plurality of blades, such that said blades are fixed temporarily onto a support structure placed securely around the tower and extending substantially in the longitudinal direction of the tower, and in which, when the nacelle surmounts the tower, a relative movement of the nacelle and at least one of the blades fixed onto the support structure is carried out, substantially about a longitudinal axis of the tower, so that said blade is positioned close to the rotor.
A control device for an internal combustion engine comprising: a variable valve driving mechanism capable of changing a working angle of an intake valve while keeping a maximum magnitude of lift and opening timing constant; a reduction catalyst which absorbs nitrogen oxide in exhaust during lean combustion and reduces the nitrogen oxide absorbed during rich combustion; characterized by a control unit changing, according to a load on the internal combustion engine, an amount of advance of the timing of closing of the intake valve at the time of switching to rich combustion; wherein the amount of advance is larger at a low load on the internal combustion engine than at a high load on the internal combustion engine. a variable valve driving mechanism capable of changing a working angle of an intake valve while keeping a maximum magnitude of lift and opening timing constant; a reduction catalyst which absorbs nitrogen oxide in exhaust during lean combustion and reduces the nitrogen oxide absorbed during rich combustion; characterized by a control unit changing, according to a load on the internal combustion engine, an amount of advance of the timing of closing of the intake valve at the time of switching to rich combustion; wherein the amount of advance is larger at a low load on the internal combustion engine than at a high load on the internal combustion engine.
A particle filter for removing particulates, carbon monoxide, hydrocarbons and nitrogen oxides from the exhaust gas of internal combustion engines operating with stoichiometric air/fuel mixture, comprising a wall flow filter of length L and two different coatings Y and Z, wherein the wall flow filter comprises channels E and A which extend in parallel between a first and a second end of the wall flow filter and which are separated by porous walls forming surfaces O E and O A, respectively, and wherein the channels E at the second end and the channels A at the first end are closed, characterized in that coating Y is located in the channels E on the surfaces O E and extends from the first end of the wall flow filter over a length of 51 to 90% of the length L and coating Z is located in the porous walls and extends from the second end of the wall flow filter over a length of 60 to 100% of the length L and in that the coatings Y and Z each contain the precious metals palladium and rhodium fixed to one or more carrier materials and contain one or more oxygen storage components.
Method for the generation of hydrogen and oxygen from a liquid feed stream comprising water, the method comprising passing an electric current through an aqueous electrolyte solution to generate hydrogen and oxygen and a concentrated electrolyte solution is obtained, characterised in that water is fed to the concentrated electrolyte solution to obtain the aqueous electrolyte solution by means of forward osmosis, wherein the concentrated electrolyte solution is brought into contact with a first side of a forward osmosis membrane and the liquid feed stream comprising water is brought into contact with a second side of the forward osmosis membrane, wherein water permeates through the forward osmosis membrane from the second side to the first side by means of a difference in osmotic pressure between the liquid feed stream and the concentrated electrolyte solution.
A method, comprising: by a user equipment, UE: transmitting joint HARQ feedback for a plurality of aggregated sidelink carriers on a Physical Sidelink Feedback Channel, PSFCH, in a selected carrier of the plurality of aggregated sidelink carriers, wherein the selected carrier that carries the joint HARQ feedback is the carrier of said plurality of aggregated sidelink carriers that has the highest priority according to a priority defined as part of resource pool configuration information received from a base station for each carrier to be aggregated.
A wireless device for communicating in a wireless communication system comprising: means for determining conditions affecting the time taken for the wireless device to complete warm-up tasks, wherein the warm-up tasks comprise tasks performed by the wireless device after it wakes up for an active interval but before it processes a quick paging channel or paging channel received in the active interval; means for selecting a warm-up time for a next active interval of the wireless device based on the determined conditions; means for determining a wake-up time for the next active interval based on the selected warm-up time; and means for sleeping until the wake-up time. means for determining conditions affecting the time taken for the wireless device to complete warm-up tasks, wherein the warm-up tasks comprise tasks performed by the wireless device after it wakes up for an active interval but before it processes a quick paging channel or paging channel received in the active interval; means for selecting a warm-up time for a next active interval of the wireless device based on the determined conditions; means for determining a wake-up time for the next active interval based on the selected warm-up time; and means for sleeping until the wake-up time.
A method for use in a first wireless transmit/receive unit (WTRU), the method comprising: determining a base pattern length to use for device to device (D2D) communication directly with a second WTRU based on at least a transmission configuration, wherein the base pattern length comprises a number of subframes; selecting, based on an indication from a network, a base pattern having the determined base pattern length, wherein the base pattern comprises one or more transmission opportunities in the number of subframes; and transmitting one or more data packets to the second WTRU in at least one of the one or more transmission opportunities of the base pattern. determining a base pattern length to use for device to device (D2D) communication directly with a second WTRU based on at least a transmission configuration, wherein the base pattern length comprises a number of subframes; selecting, based on an indication from a network, a base pattern having the determined base pattern length, wherein the base pattern comprises one or more transmission opportunities in the number of subframes; and transmitting one or more data packets to the second WTRU in at least one of the one or more transmission opportunities of the base pattern.
A system for dynamically delivering content from a content provider system to a user device, said content provider system being configured to deliver content in response to a request having one or more predefined formats, the user device comprising an application executing on the user device, the application being associated with an application interface, the application being configured to receive one or more input data blocks from at least one user through the application interface, an input data block comprising a set of data items, each data item having a type and a value, wherein the application comprises an executable application extension, the system further comprising a bridging device, the bridging device being configured to dynamically connect said application to said content provider system during execution of the application extension, the application extension being configured to activate a connection to the bridging device, in response to the detection of an activation condition, the application being configured to transmit at least some of the data items comprised in each input data block to the bridging device during the connection to the bridging device, the bridging device being configured to generate a request for content comprising request parameters according to one of said predefined request formats using said data items received from the application and to transmit said request to the content provider system, wherein the bridging device comprises: - a parser configured to parse a set of reference values for each request parameter, in response to the receipt of an input data block; - a mapper configured to determine if at least some of the reference values of said set of reference values map a data item in said input data block or in one or more auxiliary sources, said mapper being further configured to associate an elementary scoring indicating the level of relevance of the match between the reference value and a data item to each data item mapping a reference value, the bridging device further comprising a request generator configured to generate a content request based on the elementary scorings associated with the data items mapping said reference values, - a parser configured to parse a set of reference values for each request parameter, in response to the receipt of an input data block; - a mapper configured to determine if at least some of the reference values of said set of reference values map a data item in said input data block or in one or more auxiliary sources, said mapper being further configured to associate an elementary scoring indicating the level of relevance of the match between the reference value and a data item to each data item mapping a reference value,
An electric drive system for an electrically-powered vehicle, the electric drive system including an electric drive motor, an electric control motor, a drive output; a transmission system for transmitting drive from the drive motor and the control motor to the drive output and a control system for controlling operation of the drive motor and the control motor, wherein the transmission system includes an epicyclic gear set comprising a sun gear that is drivingly connected to the drive motor, a planet gear mounted on a planet gear cairier that is drivingly connected to the drive output and a rotatable annulus that is drivingly connected to the control motor, wherein the control system is constructed and arranged to control operation of the drive system according to a first control process for providing forward drive to the vehicle, said first control process comprising operating the drive motor at a substantially uniform predetermined speed, and operating the control motor at a decreasing speed as the speed of the drive output increases, the speed of the drive output being related to the difference between the speed of the drive motor and the speed of the control motor.
An alumina porous body having a porosity of 15 to 45% and an average pore size of 2 to 15 μm, the alumina porous body comprising 5 to 30 mass% of titanium oxide wherein the alumina porous body has a microstructure in which a bonding phase that contains titania particles as the main component binds alumina particles as an aggregate, the aggregate alumina particles having an average particle diameter of 2 to 80 μm, and wherein the average particle diameter is calculated by analysing an SEM photograph of the microstructure of the porous alumina body according to the method set out in of the description, characterized in that the alumina porous body comprises copper oxide, the total content of oxides of coper being from 0.001 to 1.5% mass, and the bonding phase containing copper.
A fabricating method for a quartz vial having a body for containing a substance and a cylindrical neck disposed above the body comprising the steps of: forming an outer peripheral surface of the neck by shaving a quartz glass member; and forming the body by hot working a portion of the quartz glass member adjacent to the neck. forming an outer peripheral surface of the neck by shaving a quartz glass member; and forming the body by hot working a portion of the quartz glass member adjacent to the neck.
Luminaire - a carrier element, - an LED module which is arranged on the carrier element, and - a cover element which is arranged on the carrier element, wherein the cover element is arranged to press the LED module against the carrier element, wherein the LED module surrounds the cover element in a cross-section, wherein the cover element is designed as a component with a profile shape, wherein the cover element comprises a lens region viewed in a cross-section normal to the profile shape, and two lateral arm regions, wherein the lens region is formed between the two arm regions wherein upwardly projecting shoulder surfaces are provided on the carrier element, wherein the said shoulder surfaces serve to support latching lugs formed on the upper end regions of the arm regions, wherein the latching lugs are formed on top of each other wherein the LED module is held on the carrier element by holding parts, wherein the holding parts have surfaces which consist of an electrically non-conductive material, characterized in that the holding parts are arranged in a latching manner on the carrier element. - a carrier element, - an LED module which is arranged on the carrier element, and - a cover element which is arranged on the carrier element, wherein the cover element is arranged to press the LED module against the carrier element,
A method for determining an application delay value of a minimum scheduling offset restriction in a wireless communication system, the method comprising: receiving downlink control information, DCI, including information for a change to a value of K 0min or K 2min in a slot n of a scheduling cell, wherein each of the K 0min and K 2min is an applied minimum scheduling offset restriction, and applying a changed K 0min or a changed K 2min value in a slot n+X of the scheduling cell, characterized in that the X is determined based on a following equation, X = max ⌈ Y ⋅ 2 μ PDCCH 2 μ PDSCH ⌉ Z wherein the Y is a currently applied Kamin value in a scheduled cell, the μ PDCCH is a subcarrier spacing configuration for a physical downlink control channel, PDCCH, in the scheduling cell, the μ PDSCH is a subcarrier spacing configuration for a physical downlink shared channel, PDSCH, in the scheduled cell, and the Z is a value determined by a subcarrier spacing, SCS, of the scheduling cell, and wherein based on the subcarrier spacing, SCS, of the scheduling cell being 15kHz, 30kHz, 60kHz, 120kHz, the Z is 1, 1, 2, 2, respectively. receiving downlink control information, DCI, including information for a change to a value of K 0min or K 2min in a slot n of a scheduling cell, wherein each of the K 0min and K 2min is an applied minimum scheduling offset restriction, and applying a changed K 0min or a changed K 2min value in a slot n+X of the scheduling cell, characterized in that the X is determined based on a following equation, X = max ⌈ Y ⋅ 2 μ PDCCH 2 μ PDSCH ⌉ Z wherein the Y is a currently applied Kamin value in a scheduled cell, the μ PDCCH is a subcarrier spacing configuration for a physical downlink control channel, PDCCH, in the scheduling cell, the μ PDSCH is a subcarrier spacing configuration for a physical downlink shared channel, PDSCH, in the scheduled cell, and the Z is a value determined by a subcarrier spacing, SCS, of the scheduling cell, and wherein based on the subcarrier spacing, SCS, of the scheduling cell being 15kHz, 30kHz, 60kHz, 120kHz, the Z is 1, 1, 2, 2, respectively.