mhurhangee/patent-ind-claim-en huggingface dataset:
A refrigerator comprising a polyurethane foam formed of a composition for preparing polyurethane, the refrigerator comprising: a cabinet; a door configured to open and close the cabinet; and a thermal insulation disposed in at least one of the cabinet and the door, wherein the thermal insulation comprises: a polyurethane foam-forming polyol system comprising a fiber having hydroxyl groups; and isocyanate, wherein the fiber comprises at least one of nanofiber and microfiber and an amount of the nanofiber is in the range of 0.01 to 1 weight % based on a total weight of the composition, and an amount of the microfiber is in the range of 0.01 to 0.5 weight % based on the total weight of the composition. a cabinet; a door configured to open and close the cabinet; and a thermal insulation disposed in at least one of the cabinet and the door, wherein the thermal insulation comprises: a polyurethane foam-forming polyol system comprising a fiber having hydroxyl groups; and isocyanate, wherein the fiber comprises at least one of nanofiber and microfiber and an amount of the nanofiber is in the range of 0.01 to 1 weight % based on a total weight of the composition, and an amount of the microfiber is in the range of 0.01 to 0.5 weight % based on the total weight of the composition. a polyurethane foam-forming polyol system comprising a fiber having hydroxyl groups; and isocyanate, wherein the fiber comprises at least one of nanofiber and microfiber and an amount of the nanofiber is in the range of 0.01 to 1 weight % based on a total weight of the composition, and an amount of the microfiber is in the range of 0.01 to 0.5 weight % based on the total weight of the composition.
A wall assembly for a gas turbine engine , comprising: a support shell ; a liner panel for a combustor of the gas turbine engine, the liner panel mounted to and spaced from the support shell so as to define cavities formed in the combustor wall assembly between the support shell and liner panel , wherein a multiple of cooling impingement passages penetrate through the support shell to allow air from a radially outer plenum to enter the cavities , wherein the liner panel comprises: a multiple of heat transfer augmentors at least partially forming a cold side of the liner panel , each defining a cone shaped pin , characterized in that each cone shaped pin terminates with a rounded tip that forms a distal end of each cone shaped pin , wherein each rounded tip defines a hemi-spherical surface and each cone shaped pin has a side surface extending at an angle (α) of between 10 and 25 degrees from a line orthogonal to the liner panel . a support shell ; a liner panel for a combustor of the gas turbine engine, the liner panel mounted to and spaced from the support shell so as to define cavities formed in the combustor wall assembly between the support shell and liner panel , wherein a multiple of cooling impingement passages penetrate through the support shell to allow air from a radially outer plenum to enter the cavities , wherein the liner panel comprises: a multiple of heat transfer augmentors at least partially forming a cold side of the liner panel , each defining a cone shaped pin , characterized in that each cone shaped pin terminates with a rounded tip that forms a distal end of each cone shaped pin , wherein each rounded tip defines a hemi-spherical surface and each cone shaped pin has a side surface extending at an angle (α) of between 10 and 25 degrees from a line orthogonal to the liner panel .
A method for determining a composition of a mixture of a first fluid and a second fluid in a vessel, the method comprising: determining, with a sensor system including a resonant transducer , a set of complex impedance spectrum values of the mixture of the first fluid and the second fluid as a function of a height in the vessel, wherein spectra are measured as both a real part of impedance spectra and an imaginary part of impedance spectra; applying a multivariate data analysis to the signals from the resonant transducer; determining a fluid phase inversion point from the set of complex impedance spectrum values, wherein the fluid phase inversion point is determined using Z parameters; combining the Z parameters with conductivity and fluid phase data; applying a phase model of the first fluid to the set of complex impedance spectrum values above the fluid phase inversion point; and applying a phase model of the second fluid to the set of complex impedance spectrum values below the fluid phase inversion point, wherein the composition as a function of height is determined using the conductivity and the fluid phase inversion point as input parameters in the multivariate analysis. determining, with a sensor system including a resonant transducer , a set of complex impedance spectrum values of the mixture of the first fluid and the second fluid as a function of a height in the vessel, wherein spectra are measured as both a real part of impedance spectra and an imaginary part of impedance spectra; applying a multivariate data analysis to the signals from the resonant transducer; determining a fluid phase inversion point from the set of complex impedance spectrum values, wherein the fluid phase inversion point is determined using Z parameters; combining the Z parameters with conductivity and fluid phase data; applying a phase model of the first fluid to the set of complex impedance spectrum values above the fluid phase inversion point; and applying a phase model of the second fluid to the set of complex impedance spectrum values below the fluid phase inversion point, wherein the composition as a function of height is determined using the conductivity and the fluid phase inversion point as input parameters in the multivariate analysis.
An information processing device (20-2), wherein the information processing device is a glass-type wearable device having a transmissive display unit (30-2) and further comprising: a device detection unit (25-2) configured to detect the presence of a device worn or held by a user within the user's field of view based on a captured image following a user operation, wherein the captured image is an image of the field of view of the user while the user is wearing the glass-type wearable device, and wherein the user operation is an action of moving the device to enter the field of view of the user; a recognition unit (22-2a; 25-2b) configured to recognize a position of the detected device on the transmissive display unit; a line-of-sight detection unit (23-2) configured to detect a line-of-sight position (P) of the user during the user operation; and a line-of-sight detection adjustment unit (24-2) configured to perform an adjustment to line-of-sight detection performed by the line-of-sight detection unit (23-2) on the basis of the recognized position of the detected device and the line-of-sight position (P). a device detection unit (25-2) configured to detect the presence of a device worn or held by a user within the user's field of view based on a captured image following a user operation, wherein the captured image is an image of the field of view of the user while the user is wearing the glass-type wearable device, and wherein the user operation is an action of moving the device to enter the field of view of the user; a recognition unit (22-2a; 25-2b) configured to recognize a position of the detected device on the transmissive display unit; a line-of-sight detection unit (23-2) configured to detect a line-of-sight position (P) of the user during the user operation; and a line-of-sight detection adjustment unit (24-2) configured to perform an adjustment to line-of-sight detection performed by the line-of-sight detection unit (23-2) on the basis of the recognized position of the detected device and the line-of-sight position (P).
A tangible device having a surface comprising: at least one waffler , created by making an indentation to said surface; a first stabilizing film in said at least one waffler; a first nanoscale material having ferromagnetic properties when in nanoscale form, said first nanoscale material being applied to said at least one waffler on said surface of said device, said first nanoscale material being in powdered form and a predetermined amount of said first nanoscale material spread across said first stabilizing film, said first nanoscale material being a metal; a ferromagnetic powder mixed with said first nanoscale material; a second stabilizing film provided over said first nanoscale material and ferromagnetic powder mixture; a ceramic powder spread over said second stabilizing film; and a sealing agent material ; wherein said first nanoscale material and said ferromagnetic powder are within said at least one waffler. at least one waffler , created by making an indentation to said surface; a first stabilizing film in said at least one waffler; a first nanoscale material having ferromagnetic properties when in nanoscale form, said first nanoscale material being applied to said at least one waffler on said surface of said device, said first nanoscale material being in powdered form and a predetermined amount of said first nanoscale material spread across said first stabilizing film, said first nanoscale material being a metal; a ferromagnetic powder mixed with said first nanoscale material; a second stabilizing film provided over said first nanoscale material and ferromagnetic powder mixture; a ceramic powder spread over said second stabilizing film; and a sealing agent material ; wherein said first nanoscale material and said ferromagnetic powder are within said at least one waffler.
Combination of a clamp and a profile beam wherein the profile beam has a contact surface and has two parallel clamping surfaces lying perpendicularly of the contact surface and lying opposite each other, which clamping surfaces extend in longitudinal direction of the profile beam wherein the clamp comprises: - a support body with a support surface on which the profile beam with the contact surface is supported while lying thereagainst; - a first pair of clamping fingers standing upright from the support surface and engaging on the clamping surfaces of the profile beam in a first position; - a second pair of clamping fingers standing upright from the support surface and engaging on the clamping surfaces of the profile beam in a second position; wherein the profile beam comprises a channel , which channel extends in longitudinal direction of the profile beam and is arranged in the contact surface and between the two clamping surfaces , wherein the width and the depth of the channel are greater than the width and the height of the first pair of clamping fingers and than the width and height of the second pair of clamping fingers . wherein the clamp comprises: - a support body with a support surface on which the profile beam with the contact surface is supported while lying thereagainst; - a first pair of clamping fingers standing upright from the support surface and engaging on the clamping surfaces of the profile beam in a first position; - a second pair of clamping fingers standing upright from the support surface and engaging on the clamping surfaces of the profile beam in a second position; - a support body with a support surface on which the profile beam with the contact surface is supported while lying thereagainst; - a first pair of clamping fingers standing upright from the support surface and engaging on the clamping surfaces of the profile beam in a first position; - a second pair of clamping fingers standing upright from the support surface and engaging on the clamping surfaces of the profile beam in a second position; wherein the profile beam comprises a channel , which channel extends in longitudinal direction of the profile beam and is arranged in the contact surface and between the two clamping surfaces , wherein the width and the depth of the channel are greater than the width and the height of the first pair of clamping fingers and than the width and height of the second pair of clamping fingers .
A fuel cell system comprising: an alkaline fuel cell having an electrolyte , and an anode electrode and a cathode electrode that are disposed on two sides of the electrolyte; a discharge passageway that is connected to a discharge opening of the fuel cell and that discharges from the fuel cell an exhaust fuel that contains an unreacted fuel; a circulation passageway that is connected to an introduction opening for introducing the fuel into the fuel cell and that circulates and supplies the exhaust fuel to the fuel cell; and fuel/water separation means linked to the discharge passageway and the circulation passageway and disposed between the discharge passageway and the circulation passageway, the fuel/water separation means separating and removing water from the exhaust fuel that flows in from the discharge passageway, and causing a concentrated fuel from which water has been separated and removed to flow into the circulation passageway, wherein the fuel is a water-soluble liquid fuel, and wherein the fuel/water separation means includes a recirculation portion that connects to the discharge passageway , and a fuel condensation portion which contacts the recirculation portion, and whose boundary with the recirculation portion is defined by a pervaporation membrane that selectively allows the fuel in the exhaust fuel to permeate through the pervaporation membrane, and into which the concentrated fuel having permeated through the pervaporation membrane is introduced, and which is connected to the circulation passageway so as to supply the concentrated fuel to the circulation passageway. an alkaline fuel cell having an electrolyte , and an anode electrode and a cathode electrode that are disposed on two sides of the electrolyte; a discharge passageway that is connected to a discharge opening of the fuel cell and that discharges from the fuel cell an exhaust fuel that contains an unreacted fuel; a circulation passageway that is connected to an introduction opening for introducing the fuel into the fuel cell and that circulates and supplies the exhaust fuel to the fuel cell; and fuel/water separation means linked to the discharge passageway and the circulation passageway and disposed between the discharge passageway and the circulation passageway, the fuel/water separation means separating and removing water from the exhaust fuel that flows in from the discharge passageway, and causing a concentrated fuel from which water has been separated and removed to flow into the circulation passageway, wherein the fuel is a water-soluble liquid fuel, and wherein the fuel/water separation means includes a recirculation portion that connects to the discharge passageway , and a fuel condensation portion which contacts the recirculation portion, and whose boundary with the recirculation portion is defined by a pervaporation membrane that selectively allows the fuel in the exhaust fuel to permeate through the pervaporation membrane, and into which the concentrated fuel having permeated through the pervaporation membrane is introduced, and which is connected to the circulation passageway so as to supply the concentrated fuel to the circulation passageway.
A coating composition comprising A) a self-assembled silica condensate; and B) a film-forming binder wherein said self-assembled silica condensate is formed by the hydrolysis of a reaction mixture comprising - at least two medium to long chain trialkoxy silanes wherein the medium to long chain trialkoxy silanes have a structure according to formula : (RO) 3 -Si-R 1 ; wherein each R is independently an alkyl group having 1 to 4 carbon atoms and R 1 is an organic group comprising from 3 to 20 carbon atoms or wherein said self-assembled silica condensate is formed by the hydrolysis of a reaction mixture comprising - a medium to long chain trialkoxy silane wherein the medium to long chain trialkoxy silane has a structure according to formula : (RO) 3 -Si-R 1 ; wherein each R is independently an alkyl group having 1 to 4 carbon atoms and R 1 is an organic group comprising from 3 to 20 carbon atoms and said reaction mixture further comprises a silane functional polymer wherein the film-forming binder comprises a crosslinkable component and a crosslinking component. - at least two medium to long chain trialkoxy silanes wherein the medium to long chain trialkoxy silanes have a structure according to formula : (RO) 3 -Si-R 1 ; wherein each R is independently an alkyl group having 1 to 4 carbon atoms and R 1 is an organic group comprising from 3 to 20 carbon atoms or wherein said self-assembled silica condensate is formed by the hydrolysis of a reaction mixture comprising - a medium to long chain trialkoxy silane wherein the medium to long chain trialkoxy silane has a structure according to formula : (RO) 3 -Si-R 1 ; wherein each R is independently an alkyl group having 1 to 4 carbon atoms and R 1 is an organic group comprising from 3 to 20 carbon atoms and said reaction mixture further comprises a silane functional polymer wherein the film-forming binder comprises a crosslinkable component and a crosslinking component.
Pressure-sensitive adhesive tape, comprising or consisting of a moisture-curing composition, comprising or consisting of: A 5 to 60 parts by weight of at least one film-forming component; B 40 to 95 parts by weight of at least one epoxide component; C 10 to 500 parts by weight of at least one moisture-activatable curing agent; D optionally, 0.1 to 15 parts by weight of at least one stabilizer, and E optionally, 0.1 to 200 parts by weight of at least one additive, based in each case on the moisture-curing composition, wherein the parts by weight of components A and B total 100, characterized in that the moisture-activatable curing agent C comprises or consists of at least one blocked amine. A 5 to 60 parts by weight of at least one film-forming component; B 40 to 95 parts by weight of at least one epoxide component; C 10 to 500 parts by weight of at least one moisture-activatable curing agent; D optionally, 0.1 to 15 parts by weight of at least one stabilizer, and E optionally, 0.1 to 200 parts by weight of at least one additive,
A method of modeling a pulsed radar gauge (PRG) including a transceiver coupled by a process connection to a probe installed on a tank , comprising: providing a mathematical model that includes (i) dielectric properties and dimensions of materials used in said process connection, (ii) at least one dimension of said tank (tank dimension), (iii) dielectric characteristics of at least one product material in said tank, and (iv) a length of said probe (probe length), using a processor implementing a stored echo prediction algorithm which utilizes said mathematical model, inputting pulse characteristics including a shape of an input radar pulse launched by a transmitter of said transceiver onto said probe into said mathematical model, generating a predicted echo curve from said mathematical model; comparing said predicted echo curve to an actual echo curve obtained by said PRG, said comparing compares at least one of an amplitude, position, width or number of reflection peaks, and a general shape; generating an alarm when said actual echo curve varies from said predicted echo curve by more than a predetermined amount; and after said alarm, providing guidance to an operator through a set-up or a diagnostic process for said PRG. providing a mathematical model that includes (i) dielectric properties and dimensions of materials used in said process connection, (ii) at least one dimension of said tank (tank dimension), (iii) dielectric characteristics of at least one product material in said tank, and (iv) a length of said probe (probe length), using a processor implementing a stored echo prediction algorithm which utilizes said mathematical model, inputting pulse characteristics including a shape of an input radar pulse launched by a transmitter of said transceiver onto said probe into said mathematical model, generating a predicted echo curve from said mathematical model; comparing said predicted echo curve to an actual echo curve obtained by said PRG, said comparing compares at least one of an amplitude, position, width or number of reflection peaks, and a general shape; generating an alarm when said actual echo curve varies from said predicted echo curve by more than a predetermined amount; and after said alarm, providing guidance to an operator through a set-up or a diagnostic process for said PRG.
An antibody that binds to latent myostatin and does not bind to mature myostatin, wherein the antibody blocks the non-proteolytic, spontaneous release of mature myostatin from latent myostatin, and wherein the antibody comprises HVR-H1 comprising the amino acid sequence of SEQ ID NO: 55, HVR-H2 comprising the amino acid sequence of SEQ ID NO:58, HVR-H3 comprising the amino acid sequence of SEQ ID NO: 61, HVR-L1 comprising the amino acid sequence of SEQ ID NO: 65, HVR-L2 comprising the amino acid sequence of SEQ ID NO: 70, and HVR-L3 comprising the amino acid sequence of SEQ ID NO: 73.
A method of monitoring an ice protection system of a rotorcraft or an aircraft, the method comprising: applying heat to rotating blades (12A-12C) of the rotorcraft or the aircraft according to a heater duty cycle; and characterised by determining an anticipated ice shed time for ice to shed from the rotating blades (12A-12C); sensing a torque of the rotating blades (12A-12C); determining an actual ice shed time for ice to shed from the rotating blades (12A-12C) based on the sensed torque; determining a status of the ice protection system based on the anticipated ice shed time and the actual ice shed time; and outputting the status of the ice protection system for consumption by a consuming system . applying heat to rotating blades (12A-12C) of the rotorcraft or the aircraft according to a heater duty cycle; and characterised by determining an anticipated ice shed time for ice to shed from the rotating blades (12A-12C); sensing a torque of the rotating blades (12A-12C); determining an actual ice shed time for ice to shed from the rotating blades (12A-12C) based on the sensed torque; determining a status of the ice protection system based on the anticipated ice shed time and the actual ice shed time; and outputting the status of the ice protection system for consumption by a consuming system .
A pharmaceutical composition comprising an antisense oligomer (ASO) or a viral vector encoding an ASO, wherein the ASO comprises a sequence selected from SEQ ID NOs: 351-353, 355, 357-360, 404, 409 and 410.