mhurhangee/patent-ind-claim-en huggingface dataset:
A method of sealing a section of a wall of a wellbore adjoining a target zone containing undesirable fluids for preventing penetration of the undesirable fluids into the wellbore, the method comprising the steps of: deploying an inflatable balloon in the wellbore using a coiled tubing ; initiating an exothermic reaction to form reaction products ; inflating the balloon to expand against and form a seal with the wall of the target zone; and contacting the reaction products with the interior of the inflated balloon to melt and separate the portion of the balloon in contact with the wall of the wellbore to create permanent skin damage and thus sealing of the surface of the target zone. deploying an inflatable balloon in the wellbore using a coiled tubing ; initiating an exothermic reaction to form reaction products ; inflating the balloon to expand against and form a seal with the wall of the target zone; and contacting the reaction products with the interior of the inflated balloon to melt and separate the portion of the balloon in contact with the wall of the wellbore to create permanent skin damage and thus sealing of the surface of the target zone.
Circuit with four buffers (A, B, C, D), a first data input (P1) for first data (D1), a second data input (P2) for second data (D2), a data output (P3) and a control logic , wherein the control logic is configured to connect the first data input (P1) to a first buffer (A) of the four buffers (A-D), connect the second data input (P2) to a second buffer (B) of the four buffers (A-D), connect the data output (P3) to a third buffer (C) of the four buffers (A-D), characterized in that to disconnect the connection between the first data input (P1) and the buffer (A-D) currently connected to the first data input (P1) and establish a connection between the first data input (P1) and the currently unconnected buffer (A-D) when first data (D1) is validly written to the buffer (A-D) currently connected to the first data input (P1) via the first data input (P1), to disconnect the connection between the second data input (P2) and the buffer (A-D) currently connected to the second data input (P2) and establish a connection between the second data input (P2) and the currently unconnected buffer (A-D) when second data (D2) is validly written to the buffer (A-D) currently connected to the second data input (P2) via the second data input (P2), and to read data (D3), to disconnect the connection between the data output (P3) and the buffer (A-D) currently connected to the data output (P3) and establish a connection between the data output (P3) and the currently unconnected buffer (A-D) when the unconnected buffer (A-D) has newer validly written data. four buffers (A, B, C, D), a first data input (P1) for first data (D1), a second data input (P2) for second data (D2), a data output (P3) and a control logic , wherein the control logic is configured to connect the first data input (P1) to a first buffer (A) of the four buffers (A-D), connect the second data input (P2) to a second buffer (B) of the four buffers (A-D), connect the data output (P3) to a third buffer (C) of the four buffers (A-D), characterized in that to disconnect the connection between the first data input (P1) and the buffer (A-D) currently connected to the first data input (P1) and establish a connection between the first data input (P1) and the currently unconnected buffer (A-D) when first data (D1) is validly written to the buffer (A-D) currently connected to the first data input (P1) via the first data input (P1), to disconnect the connection between the second data input (P2) and the buffer (A-D) currently connected to the second data input (P2) and establish a connection between the second data input (P2) and the currently unconnected buffer (A-D) when second data (D2) is validly written to the buffer (A-D) currently connected to the second data input (P2) via the second data input (P2), and to read data (D3), to disconnect the connection between the data output (P3) and the buffer (A-D) currently connected to the data output (P3) and establish a connection between the data output (P3) and the currently unconnected buffer (A-D) when the unconnected buffer (A-D) has newer validly written data.
Process for the protection against corrosion of an article, comprising the steps of: (a) application of a layer of a corrosion protecting composition comprising: (i) an amorphous polymer composition comprising an amorphous polymer having a glass transition temperature of -20°C or less as determined by differential scanning calorimetry, wherein the amorphous polymer has a number average molecular weight M n in the range of 1,000 to 150,000 g/mol as determined with gel permeation chromatography, and (ii) a water-absorbing filler having a water-absorption of 20 wt.% or higher as determined according to the procedure described in standard NEN-EN-ISO 10769:2011, wherein the water-absorbing filler comprises a filler that binds water by a chemical reaction, on a surface of the article, and (b) application of a mechanical protective layer on top of the layer of said corrosion protecting composition, wherein the article is in a wet environment, wherein an article in a wet environment is defined as an article wherein water is present on a surface of the article or part thereof, or an article that is (partly) submerged in water, and wherein the article is in a wet environment during the application of said layer of the corrosion protecting composition. (a) application of a layer of a corrosion protecting composition comprising: (i) an amorphous polymer composition comprising an amorphous polymer having a glass transition temperature of -20°C or less as determined by differential scanning calorimetry, wherein the amorphous polymer has a number average molecular weight M n in the range of 1,000 to 150,000 g/mol as determined with gel permeation chromatography, and (ii) a water-absorbing filler having a water-absorption of 20 wt.% or higher as determined according to the procedure described in standard NEN-EN-ISO 10769:2011, wherein the water-absorbing filler comprises a filler that binds water by a chemical reaction, on a surface of the article, and (i) an amorphous polymer composition comprising an amorphous polymer having a glass transition temperature of -20°C or less as determined by differential scanning calorimetry, wherein the amorphous polymer has a number average molecular weight M n in the range of 1,000 to 150,000 g/mol as determined with gel permeation chromatography, and (ii) a water-absorbing filler having a water-absorption of 20 wt.% or higher as determined according to the procedure described in standard NEN-EN-ISO 10769:2011, wherein the water-absorbing filler comprises a filler that binds water by a chemical reaction, (b) application of a mechanical protective layer on top of the layer of said corrosion protecting composition,
Protective circuit for a first field-effect transistor , at least comprising the first field-effect transistor , a control device , a first temperature sensor , a second field-effect transistor , a third field-effect transistor , a second temperature sensor , and a measuring resistor , wherein first field-effect transistor has a first drain terminal , a first source terminal and a first gate terminal , wherein by means of the control device an electrical first voltage between the first drain terminal and the first source terminal is determinable and a characteristic of the first field-effect transistor , that is to say a variation of the first electrical resistance as a function of a first temperature of the first field-effect transistor , is stored in the control device , wherein by means of the first temperature sensor the changing first temperature of the first field-effect transistor is detectable; wherein the first resistance of the first field-effect transistor and an electrical first current conducted via the first field-effect transistor are determinable by the control device ; wherein the first source terminal is connected to a electrical machine and to a ground via the electrical machine ; wherein the third field-effect transistor is arranged between the electrical machine and the ground , characterized in that the first field-effect transistor is connectable to a voltage source via the first drain terminal , wherein the second field-effect transistor is arranged between the voltage source and the first field-effect transistor which has a second drain terminal , a second source terminal and a second gate terminal ; wherein an electrical second voltage between the second drain terminal and the second source terminal is determinable by means of the control device ; wherein a changing second temperature of the second field-effect transistor is furthermore detectable by means of the second temperature sensor ; wherein a second resistance of the second field-effect transistor and an electrical second current conducted via the second field-effect transistor are determinable on the basis of the second temperature ; wherein the measuring resistor for determining an electrical third current conducted via the third field-effect transistor is arranged between the third field-effect transistor and the ground ; wherein the measuring resistor is electrically connected with the control device , wherein the control device is set up to monitor the third current ; wherein limit values for ratios of determined currents are stored in the control device , wherein the control device is set up to communicate control signals to the gate terminals of the field-effect transistors once specific limit values are reached, so that corresponding switching of the field-effect transistors can be performed.
A locking adjusting arrangement, comprising: a position-sensitive component comprising a first aperture disposed in a body of the position-sensitive component, wherein the body comprises opposing fingers at least partially defining the first aperture; a first sleeve comprising a first eccentric aperture, wherein the first sleeve is configured to be received into the first aperture; and a second sleeve comprising a second eccentric aperture, wherein the second sleeve is configured to be received into the first eccentric aperture; wherein the first sleeve is compressed between the opposing fingers thereby providing a friction lock to maintain a relative angle of the first sleeve with respect to the position-sensitive component. a position-sensitive component comprising a first aperture disposed in a body of the position-sensitive component, wherein the body comprises opposing fingers at least partially defining the first aperture; a first sleeve comprising a first eccentric aperture, wherein the first sleeve is configured to be received into the first aperture; and a second sleeve comprising a second eccentric aperture, wherein the second sleeve is configured to be received into the first eccentric aperture; wherein the first sleeve is compressed between the opposing fingers thereby providing a friction lock to maintain a relative angle of the first sleeve with respect to the position-sensitive component.
A method of enhancing wireless communication coverage in a communications system, the method being performed in an unmanned aerial vehicle, UAV, , the UAV comprising a signal amplification device arranged to convey wireless signaling, and the method comprising: - measuring a received signal strength from an entity of the communications system while rotating horizontally and ascending to an altitude to find a height and a direction at which the wireless signaling is received from an entity of the communications system, wherein prior to the conveying the rotating comprises: - rotating around a vertical axis while measuring the received signal strength for at least two directions, and rotating to a direction for which the highest received signal strength was measured; and - conveying the wireless signaling between the entity and a first communication device , wherein the unmanned aerial vehicle comprises a donor antenna communicating with the first communication device and a pick-up antenna communicating with the entity. - measuring a received signal strength from an entity of the communications system while rotating horizontally and ascending to an altitude to find a height and a direction at which the wireless signaling is received from an entity of the communications system, wherein prior to the conveying the rotating comprises: - rotating around a vertical axis while measuring the received signal strength for at least two directions, and rotating to a direction for which the highest received signal strength was measured; and - conveying the wireless signaling between the entity and a first communication device , wherein the unmanned aerial vehicle comprises a donor antenna communicating with the first communication device and a pick-up antenna communicating with the entity.
A bonded abrasive wheel comprising magnetizable abrasive particles retained in a first organic binder, wherein the bonded abrasive wheel has a central portion adjacent to a central hub, wherein the bonded abrasive wheel has an outer circumference and a rotational axis extending through the central hub, wherein a majority of the magnetizable abrasive particles are substantially parallel to the rotational axis.
A process for obtaining a reservoir comprising protein-decorated nanoparticles on paper substrates which comprises the steps of: i. treatment of a paper substrate with a hydrophilic negatively charged polymer over the paper substrate; and ii. applying protein-decorated nanoparticles over the hydrophilic negatively charged polymer-modified paper substrate obtained in step (i). i. treatment of a paper substrate with a hydrophilic negatively charged polymer over the paper substrate; and ii. applying protein-decorated nanoparticles over the hydrophilic negatively charged polymer-modified paper substrate obtained in step (i).
A retroviral particle comprising a protein coming from the Gag polyprotein, an envelope protein, optionally an integrase and at least two different encapsidated non-viral RNAs, the different encapsidated non-viral RNAs each comprising an RNA sequence of interest linked to an encapsidation sequence, each encapsidation sequence being recognized by a binding domain introduced into the protein coming from the Gag polyprotein.
Use of latanoprost for suppressing the content reduction of netarsudil or a salt thereof or a solvate thereof in a pharmaceutical preparation comprising an aqueous composition comprising the following components (A) and (B): (A) netarsudil or a salt thereof or a solvate thereof; and (B) latanoprost, wherein the aqueous composition is housed in a container formed of polypropylene. (A) netarsudil or a salt thereof or a solvate thereof; and (B) latanoprost,
An apparatus to verify efficiency of a unit under test, UUT , in a transmit opportunity, TxOP, Operation condition, the apparatus comprising: memory configured to store channel data from monitoring of a first channel; and processing circuitry coupled to the memory and configured to: initiate configuration of the UUT to a maximum TxOP duration for transmissions from the UUT connected to a companion device via the first channel ; initiate communication of a transmit command to the UUT to cause the UUT to perform a TxOP operation using the maximum TxOP duration ; monitor channel availability on the first channel between the UUT and the companion device in the TxOP operation ; identify a pause in the TxOP operation based on the channel availability for the first channel ; and determine whether a duration of the pause is greater than or equal to a minimum pause duration . memory configured to store channel data from monitoring of a first channel; and processing circuitry coupled to the memory and configured to: initiate configuration of the UUT to a maximum TxOP duration for transmissions from the UUT connected to a companion device via the first channel ; initiate communication of a transmit command to the UUT to cause the UUT to perform a TxOP operation using the maximum TxOP duration ; monitor channel availability on the first channel between the UUT and the companion device in the TxOP operation ; identify a pause in the TxOP operation based on the channel availability for the first channel ; and determine whether a duration of the pause is greater than or equal to a minimum pause duration . initiate configuration of the UUT to a maximum TxOP duration for transmissions from the UUT connected to a companion device via the first channel ; initiate communication of a transmit command to the UUT to cause the UUT to perform a TxOP operation using the maximum TxOP duration ; monitor channel availability on the first channel between the UUT and the companion device in the TxOP operation ; identify a pause in the TxOP operation based on the channel availability for the first channel ; and determine whether a duration of the pause is greater than or equal to a minimum pause duration .
A filament feeding device for use in 3D-printing, wherein said filament feeding device comprises: a first feeding wheel configured to rotate with a first rotational shaft , a second feeding wheel configured to rotate with a second rotational shaft , wherein said first and second feeding wheels are separated by a separation distance so as to allow feeding of a filament material received between said first and second filament wheels , characterized in that, said filament feeding device further comprises an adjuster element configured to move said first rotational shaft relative the second rotational shaft by engaging the first rotational shaft with a cam curve slot , the adjuster element being movable between a first distinct position setting said separation distance to a first predetermined distance, and into a second distinct position setting said separation distance to a second predetermined distance, wherein the adjuster element engages the first rotational shaft with a respective first and second position in the cam curve slot in the first and second distinct position respectively, and wherein said second predetermined separation distance is larger than said first predetermined separation distance. a first feeding wheel configured to rotate with a first rotational shaft , a second feeding wheel configured to rotate with a second rotational shaft , wherein said first and second feeding wheels are separated by a separation distance so as to allow feeding of a filament material received between said first and second filament wheels , characterized in that, said filament feeding device further comprises an adjuster element configured to move said first rotational shaft relative the second rotational shaft by engaging the first rotational shaft with a cam curve slot , the adjuster element being movable between a first distinct position setting said separation distance to a first predetermined distance, and into a second distinct position setting said separation distance to a second predetermined distance, wherein the adjuster element engages the first rotational shaft with a respective first and second position in the cam curve slot in the first and second distinct position respectively, and wherein said second predetermined separation distance is larger than said first predetermined separation distance.
Device for cooling heat radiating components comprising a cooling body having a plurality of cooling fins arranged straight and parallel to each other along a longitudinal axis (L), an axial fan for conveying cooling air in a main conveying direction (F) along a fan axis (A), the axial fan being arranged on the cooling body and the fan axis (A) being arranged transversely to the longitudinal axis (L), and the axial fan having a fan propeller which is driven in rotation about the fan axis (A) and has a plurality of fan blades arranged transversely to the fan axis (A), and an air guiding element arranged between the axial fan and the cooling body for influencing the air flow, wherein the air guiding element is set with guiding vanes in two sectors around the fan axis (A) and is free of guiding vanes in two further sectors around the fan axis (A), and wherein the sectors set with guiding vanes each start, with respect to radially outer ends of the guiding vanes , from an initial radius with respect to the fan axis (A) which encloses an acute angle with the cooling fins or is arranged parallel to the cooling fins , and extend over an angle of less than 180 degrees in the direction of rotation of the fan propeller . a cooling body having a plurality of cooling fins arranged straight and parallel to each other along a longitudinal axis (L), an axial fan for conveying cooling air in a main conveying direction (F) along a fan axis (A), the axial fan being arranged on the cooling body and the fan axis (A) being arranged transversely to the longitudinal axis (L), and the axial fan having a fan propeller which is driven in rotation about the fan axis (A) and has a plurality of fan blades arranged transversely to the fan axis (A), and an air guiding element arranged between the axial fan and the cooling body for influencing the air flow, wherein the air guiding element is set with guiding vanes in two sectors around the fan axis (A) and is free of guiding vanes in two further sectors around the fan axis (A), and wherein the sectors set with guiding vanes each start, with respect to radially outer ends of the guiding vanes , from an initial radius with respect to the fan axis (A) which encloses an acute angle with the cooling fins or is arranged parallel to the cooling fins , and extend over an angle of less than 180 degrees in the direction of rotation of the fan propeller .