mhurhangee/ep-ind-claims huggingface dataset:
Wave energy conversion system, comprising a water duct, a free surface chamber, and an energy conversion device, wherein: the free surface chamber is delimited by walls (28, 30), the free surface chamber is in use partially filled with a liquid and partially filled with a gas, the free surface chamber defines a free surface at a level where the liquid adjoins the gas, the free surface having a free surface area, the water duct extends from a first end which is open to a water basin to a second end which is open to the free surface chamber, such that in use the water duct is filled with the liquid and the liquid in the free surface chamber and the water duct forms a mass-spring system wherein surface waves in the water basin cause the free surface to rise and fall periodically, and the energy conversion device is arranged to convert fluid-dynamic energy of the liquid or the gas into a different form of energy, characterised in that at least one of the walls is displaceable linearly, and that the system further comprises displacement means, which displacement means are operable for displacing the displaceable wall such that the size of the free surface area is adjustable in order to adjust the natural period of the mass-spring system. the free surface chamber is delimited by walls (28, 30), the free surface chamber is in use partially filled with a liquid and partially filled with a gas, the free surface chamber defines a free surface at a level where the liquid adjoins the gas, the free surface having a free surface area, the water duct extends from a first end which is open to a water basin to a second end which is open to the free surface chamber, such that in use the water duct is filled with the liquid and the liquid in the free surface chamber and the water duct forms a mass-spring system wherein surface waves in the water basin cause the free surface to rise and fall periodically, and the energy conversion device is arranged to convert fluid-dynamic energy of the liquid or the gas into a different form of energy, characterised in that at least one of the walls is displaceable linearly, and that the system further comprises displacement means, which displacement means are operable for displacing the displaceable wall such that the size of the free surface area is adjustable in order to adjust the natural period of the mass-spring system.
A data center system comprising: a first rack and a second rack defining a hot air corridor therebetween; a first support having a first end and a second end opposite the first end, the first end of the first support is configured to be secured to a floor within the hot air corridor; a cooling frame secured to the second end of the first support, the cooling frame having a first face and a second face opposite the first face; a cooling unit secured within the cooling frame, the cooling unit configured to receive hot air from the hot air corridor and expel a cool medium from the first face and the second face of the cooling frame down onto the first and second rack; a plurality of pipes secured to a top portion of the cooling frame, wherein the plurality of pipes are configured to communicate with the cooling unit to carry a liquid coolant to portions of the data center system; a first distribution frame coupled to the first face of the cooling frame; and a second distribution frame coupled to the second face of the cooling frame. a first rack and a second rack defining a hot air corridor therebetween; a first support having a first end and a second end opposite the first end, the first end of the first support is configured to be secured to a floor within the hot air corridor; a cooling frame secured to the second end of the first support, the cooling frame having a first face and a second face opposite the first face; a cooling unit secured within the cooling frame, the cooling unit configured to receive hot air from the hot air corridor and expel a cool medium from the first face and the second face of the cooling frame down onto the first and second rack; a plurality of pipes secured to a top portion of the cooling frame, wherein the plurality of pipes are configured to communicate with the cooling unit to carry a liquid coolant to portions of the data center system; a first distribution frame coupled to the first face of the cooling frame; and a second distribution frame coupled to the second face of the cooling frame.
A method of processing an audio signal for an audio processing apparatus including an audio decoder, comprising the steps of: identifying whether a coding type of the audio signal is a music signal coding type using first type information; if the coding type of the audio signal is not the music signal coding type, identifying whether the coding type of the audio signal is a speech signal coding type or a mixed signal coding type using second type information; if the coding type of the audio signal is the mixed signal coding type, extracting spectral data and a linear predictive coefficient from the audio signal; generating a residual signal for linear prediction by performing inverse frequency conversion on the spectral data; and reconstructing the audio signal by performing linear prediction coding on the linear predictive coefficient and the residual signal, wherein if the coding type of the audio signal is the music signal coding type, the first type information is used only, and wherein if the coding type of the audio signal is the speech signal coding type or the mixed signal coding type, both of the first type information and the second type information are used. identifying whether a coding type of the audio signal is a music signal coding type using first type information; if the coding type of the audio signal is not the music signal coding type, identifying whether the coding type of the audio signal is a speech signal coding type or a mixed signal coding type using second type information; if the coding type of the audio signal is the mixed signal coding type, extracting spectral data and a linear predictive coefficient from the audio signal; generating a residual signal for linear prediction by performing inverse frequency conversion on the spectral data; and reconstructing the audio signal by performing linear prediction coding on the linear predictive coefficient and the residual signal, wherein if the coding type of the audio signal is the music signal coding type, the first type information is used only, and wherein if the coding type of the audio signal is the speech signal coding type or the mixed signal coding type, both of the first type information and the second type information are used.
A method for detecting a loss of compression in a cylinder of a hybrid pneumatic-thermal drive system, - the hybrid drive system comprising: ∘ at least one cylinder; ∘ a piston capable of moving inside the cylinder and defining, together with the cylinder, a combustion chamber, and - a compressed air tank capable of being selectively placed in fluid communication with the combustion chamber, the method characterized in that it includes the steps of: a) cutting off the fuel supply to the combustion chamber, b) placing the compressed air tank and the combustion chamber in fluid communication with each other, c) measuring the air pressure inside the compressed air tank while the piston is close to the top dead centre position thereof, and, d) comparing the measured air pressure to a reference value. - the hybrid drive system comprising: ∘ at least one cylinder; ∘ a piston capable of moving inside the cylinder and defining, together with the cylinder, a combustion chamber, and ∘ at least one cylinder; ∘ a piston capable of moving inside the cylinder and defining, together with the cylinder, a combustion chamber, and - a compressed air tank capable of being selectively placed in fluid communication with the combustion chamber, the method characterized in that it includes the steps of: a) cutting off the fuel supply to the combustion chamber, b) placing the compressed air tank and the combustion chamber in fluid communication with each other, c) measuring the air pressure inside the compressed air tank while the piston is close to the top dead centre position thereof, and, d) comparing the measured air pressure to a reference value. a) cutting off the fuel supply to the combustion chamber, b) placing the compressed air tank and the combustion chamber in fluid communication with each other, c) measuring the air pressure inside the compressed air tank while the piston is close to the top dead centre position thereof, and, d) comparing the measured air pressure to a reference value.
A method for establishing a session, comprising: receiving, by an access and mobility management function entity, a session establishment request sent by a user equipment, and sending the session establishment request to a session management function entity; determining, by the access and mobility management function entity, that a type of the session to be established for the user equipment is a control plane session according to a negotiation result with the user equipment in a registration process of the user equipment; wherein the negotiation result is Control Plane CIoT EPS optimisation; instructing, by the access and mobility management function entity, the session management function entity to establish the control plane session for the user equipment; and performing, by the access and mobility management function entity, control plane data transmission with the user equipment through the control plane session and through a Non Access Stratum, NAS, message. receiving, by an access and mobility management function entity, a session establishment request sent by a user equipment, and sending the session establishment request to a session management function entity; determining, by the access and mobility management function entity, that a type of the session to be established for the user equipment is a control plane session according to a negotiation result with the user equipment in a registration process of the user equipment; wherein the negotiation result is Control Plane CIoT EPS optimisation; instructing, by the access and mobility management function entity, the session management function entity to establish the control plane session for the user equipment; and performing, by the access and mobility management function entity, control plane data transmission with the user equipment through the control plane session and through a Non Access Stratum, NAS, message.
An electronic communication module for a tire comprising: a radio device having at least a portion of its outer surface surrounded by a rubber composition, the rubber composition comprising 100 parts per one hundred parts rubber, phr, of at least one diene-based elastomer, and at least about 35 phr of carbon black, wherein the carbon black has a nitrogen surface area as measured by ASTM test D6556 of no more than 30 m 2 /g and a dibutyl phthalate, DBP, absorption as measured by ASTM test D2414 of no more than 60 cm 3 /100 g, the rubber composition, when cured, having a dielectric constant at 915 MHz of less than 7. 100 parts per one hundred parts rubber, phr, of at least one diene-based elastomer, and at least about 35 phr of carbon black, wherein the carbon black has a nitrogen surface area as measured by ASTM test D6556 of no more than 30 m 2 /g and a dibutyl phthalate, DBP, absorption as measured by ASTM test D2414 of no more than 60 cm 3 /100 g, the rubber composition, when cured, having a dielectric constant at 915 MHz of less than 7.
A system for injecting, comprising: a. a syringe body defining an interior medicine chamber; b. a stopper member configured to be inserted into the interior medicine chamber to contain medicine within the medicine chamber; c. a plunger member configured to be manually manipulated to insert the stopper member relative to the syringe body; d. a needle having proximal and distal ends, the proximal end comprising an anchoring geometry configured to be at least partially penetrated into the stopper member such that upon retraction of the stopper member, the needle is pulled proximally along with the stopper member to be at least partially contained within the interior medicine chamber; e. a needle latch having a grasped state, wherein the needle latch, when in the grasped state, prevents retraction of the needle, and wherein the needle latch, when not in the grasped state, allows retraction of the needle, wherein the needle latch comprises a pair of flexible arms; f. an energy-storing member (63, 93) configured to facilitate retraction of the stopper member relative to the syringe body; g. a door configured to flex the pair of flexible arms, wherein the needle comprises a notch feature configured to interface with the pair of flexible arms when the needle latch is in the grasped state, and wherein a forward axial force is applied to the needle to move the needle latch from in the grasped state to not in the grasped state, to release the needle. a. a syringe body defining an interior medicine chamber; b. a stopper member configured to be inserted into the interior medicine chamber to contain medicine within the medicine chamber; c. a plunger member configured to be manually manipulated to insert the stopper member relative to the syringe body; d. a needle having proximal and distal ends, the proximal end comprising an anchoring geometry configured to be at least partially penetrated into the stopper member such that upon retraction of the stopper member, the needle is pulled proximally along with the stopper member to be at least partially contained within the interior medicine chamber; e. a needle latch having a grasped state, wherein the needle latch, when in the grasped state, prevents retraction of the needle, and wherein the needle latch, when not in the grasped state, allows retraction of the needle, wherein the needle latch comprises a pair of flexible arms; f. an energy-storing member (63, 93) configured to facilitate retraction of the stopper member relative to the syringe body; g. a door configured to flex the pair of flexible arms,
A work vehicle display system utilized in conjunction with a multi-section work implement moved by a work vehicle through an agricultural space, the multi-section work implement having implement sections (22, 24, 26) independently controllable utilizing an Automatic Section Control system, the work vehicle display system comprising: a display device utilized within an operator station of the work vehicle and on which a map display is generated; a position tracking data source configured to provide data indicative of a position of the multi-section work implement; and a controller architecture operably coupled to the display device and to the position tracking data source, characterized in that the controller architecture is operable in an ASC lookahead mode in which the controller architecture: projects a future position of the multi-section work implement at a future timepoint based, at least in part, on data received from the position tracking data source; projects future operative states of the implement sections (22, 24, 26) at the future timepoint when the implement sections (22, 24, 26) are controlled by the ASC system; and generates ASC lookahead symbology on the map display visually indicating the projected future position of the multi-section work implement and the projected future operative states of the implement sections (22, 24, 26). a display device utilized within an operator station of the work vehicle and on which a map display is generated; a position tracking data source configured to provide data indicative of a position of the multi-section work implement; and a controller architecture operably coupled to the display device and to the position tracking data source, characterized in that the controller architecture is operable in an ASC lookahead mode in which the controller architecture: projects a future position of the multi-section work implement at a future timepoint based, at least in part, on data received from the position tracking data source; projects future operative states of the implement sections (22, 24, 26) at the future timepoint when the implement sections (22, 24, 26) are controlled by the ASC system; and generates ASC lookahead symbology on the map display visually indicating the projected future position of the multi-section work implement and the projected future operative states of the implement sections (22, 24, 26). projects a future position of the multi-section work implement at a future timepoint based, at least in part, on data received from the position tracking data source; projects future operative states of the implement sections (22, 24, 26) at the future timepoint when the implement sections (22, 24, 26) are controlled by the ASC system; and generates ASC lookahead symbology on the map display visually indicating the projected future position of the multi-section work implement and the projected future operative states of the implement sections (22, 24, 26).
A high-yield method for rapidly conjugating a nucleic acid having an amino group to a diethylenetriamine pentaacetic acid (DTPA) derivative, wherein the nucleic acid is a ribonucleic acid, a deoxyribonucleic acid or a locked nucleic acid, and the method comprises the steps of: reacting the nucleic acid and the DTPA derivative for 5 min at 94°C in an aqueous sodium bicarbonate solution or for 10 min at 75°C in a 2-10% sodium bicarbonate solution in DMSO, with heating under microwave, wherein the DTPA derivative is a DTPA anhydride or p-isothiocyanate benzyl-DTPA (SCN-Bn-DTPA).
A device for collision detection, the device comprising: first, second, and third acceleration sensors installed at different positions of an object whose collision is to be detected; and a collision detection unit configured to: calculate predicted acceleration of the third acceleration sensor based on measurement information measured by the first acceleration sensor and the second acceleration sensor, and detect whether a shape of the object has been deformed or not by comparing the predicted acceleration with a measured acceleration measured by the third acceleration sensor. first, second, and third acceleration sensors installed at different positions of an object whose collision is to be detected; and a collision detection unit configured to: calculate predicted acceleration of the third acceleration sensor based on measurement information measured by the first acceleration sensor and the second acceleration sensor, and detect whether a shape of the object has been deformed or not by comparing the predicted acceleration with a measured acceleration measured by the third acceleration sensor. calculate predicted acceleration of the third acceleration sensor based on measurement information measured by the first acceleration sensor and the second acceleration sensor, and detect whether a shape of the object has been deformed or not by comparing the predicted acceleration with a measured acceleration measured by the third acceleration sensor.
Method for destroying a phytopathogen and/or inhibiting the growth of a phytopathogen for preventing or treating plant diseases caused by said phytopathogen, comprising the application, to the plant or to the ground surrounding the plant, of a sufficient quantity of 4-phenylbutyric acid, or of one of the salts thereof, characterised in that the phytopathogen is selected from bacteria.
A closed cell expansion system, comprising: a cell growth chamber having an inlet and an outlet, wherein the cell growth chamber comprises two frustoconical shaped sections joined together to form the cell growth chamber, wherein the two frustoconical shaped sections are joined together at a maximum cross-sectional area of the cell growth chamber, wherein the two frustoconical shaped sections taper in opposite directions toward the inlet and the outlet of the cell growth chamber, wherein the inlet and the outlet of the cell growth chamber are disposed on opposite ends of the cell growth chamber, and wherein the cell growth chamber comprises a first volume; a mass transfer device having an inlet and an outlet for a first fluid and an inlet and an outlet for a second fluid, wherein a plurality of hollow fibers are disposed within a housing of the mass transfer device, the housing comprising an intracapillary portion and an extracapillary portion, and wherein the intracapillary portion comprises a second volume, the second volume being different from the first volume; and a first fluid circulation loop fluidly associated with the cell growth chamber and the mass transfer device, wherein non-adherent cells expand in at least two of the cell growth chamber, the mass transfer device, and the first fluid circulation loop, and wherein the non-adherent cells expand in a media that travels through the cell growth chamber, the mass transfer device, and the first fluid circulation loop. a cell growth chamber having an inlet and an outlet, wherein the cell growth chamber comprises two frustoconical shaped sections joined together to form the cell growth chamber, wherein the two frustoconical shaped sections are joined together at a maximum cross-sectional area of the cell growth chamber, wherein the two frustoconical shaped sections taper in opposite directions toward the inlet and the outlet of the cell growth chamber, wherein the inlet and the outlet of the cell growth chamber are disposed on opposite ends of the cell growth chamber, and wherein the cell growth chamber comprises a first volume; a mass transfer device having an inlet and an outlet for a first fluid and an inlet and an outlet for a second fluid, wherein a plurality of hollow fibers are disposed within a housing of the mass transfer device, the housing comprising an intracapillary portion and an extracapillary portion, and wherein the intracapillary portion comprises a second volume, the second volume being different from the first volume; and a first fluid circulation loop fluidly associated with the cell growth chamber and the mass transfer device, wherein non-adherent cells expand in at least two of the cell growth chamber, the mass transfer device, and the first fluid circulation loop, and wherein the non-adherent cells expand in a media that travels through the cell growth chamber, the mass transfer device, and the first fluid circulation loop.
A method for evaluating ergonomic strain, caused by reaction torque, experienced by an operator when using a portable electric power wrench to tighten a real screw joint to a certain torque at a certain location(s) on an object to be assembled, characterised in that the method further comprises the steps of: - providing a test rig with at least one test screw joint simulating the screw joint on the object to be assembled, step 201; - controlling the portable electric power wrench with an electrical drive unit device to simulate a torque ramp response phase over time so that the torque over time gives a reaction torque equivalent to what the operator would have experienced on a real screw joint, step 203a. - providing a test rig with at least one test screw joint simulating the screw joint on the object to be assembled, step 201; - controlling the portable electric power wrench with an electrical drive unit device to simulate a torque ramp response phase over time so that the torque over time gives a reaction torque equivalent to what the operator would have experienced on a real screw joint, step 203a.