mhurhangee/patent-ind-claim-en huggingface dataset:
A turbo machine comprising a metering system for a combustion section , the turbo machine comprising: a main fuel line configured to provide a flow of fuel; a zone fuel line split from the main fuel line through which at least a portion of the flow of fuel is provided; a fuel valve disposed at the zone fuel line , wherein the fuel valve is configured to obtain and receive a present fuel valve area value and a present valve position value; a first pressure sensor disposed upstream of the fuel valve , wherein the first pressure sensor is configured to obtain a first pressure value; a second pressure sensor disposed downstream of the fuel valve , wherein the second pressure sensor is configured to obtain a second pressure value; a flow meter disposed downstream of the fuel valve ; and a controller configured to perform operations, the operations comprising: determining a demanded fuel valve actuator position based at least on an estimated fuel valve actuator position and a demanded fuel flow; comparing the demanded fuel flow and a present fuel flow; determining an actual fuel valve actuator position based at least on the demanded fuel valve actuator position and the compared demanded fuel flow and present fuel flow; and generating a valve effective area at the fuel valve based at least on the actual fuel valve actuator position. a main fuel line configured to provide a flow of fuel; a zone fuel line split from the main fuel line through which at least a portion of the flow of fuel is provided; a fuel valve disposed at the zone fuel line , wherein the fuel valve is configured to obtain and receive a present fuel valve area value and a present valve position value; a first pressure sensor disposed upstream of the fuel valve , wherein the first pressure sensor is configured to obtain a first pressure value; a second pressure sensor disposed downstream of the fuel valve , wherein the second pressure sensor is configured to obtain a second pressure value; a flow meter disposed downstream of the fuel valve ; and a controller configured to perform operations, the operations comprising: determining a demanded fuel valve actuator position based at least on an estimated fuel valve actuator position and a demanded fuel flow; comparing the demanded fuel flow and a present fuel flow; determining an actual fuel valve actuator position based at least on the demanded fuel valve actuator position and the compared demanded fuel flow and present fuel flow; and generating a valve effective area at the fuel valve based at least on the actual fuel valve actuator position. determining a demanded fuel valve actuator position based at least on an estimated fuel valve actuator position and a demanded fuel flow; comparing the demanded fuel flow and a present fuel flow; determining an actual fuel valve actuator position based at least on the demanded fuel valve actuator position and the compared demanded fuel flow and present fuel flow; and generating a valve effective area at the fuel valve based at least on the actual fuel valve actuator position.
A customizable mobile broadband network system, comprising a forwarding layer , a control layer , and a capability opening layer , wherein: the forwarding layer connects to the control layer through a first open interface , and is configured to provide a forwarding capability of the mobile broadband network system, wherein the first open interface is configured to open the forwarding capability to the control layer ; the control layer connects to the capability opening layer through a second open interface , and is configured to provide a control capability of the mobile broadband network system, wherein the second open interface is configured to open the control capability and the forwarding capability to the capability opening layer ; characterized in that the capability opening layer is configured to receive, through a third open interface, a network customization request from a user, wherein the network customization request includes parameters required for customizing a mobile broadband network, and combine the control capability and/or the forwarding capability according to the network customization request, so as to manage a customized-network instance, wherein in the combining, the capability opening layer is configured to select according to the parameters required for customizing the mobile broadband network, an atomic network capability set that is required for creating the network instance, and combine selected network capabilities into a required network function. the forwarding layer connects to the control layer through a first open interface , and is configured to provide a forwarding capability of the mobile broadband network system, wherein the first open interface is configured to open the forwarding capability to the control layer ; the control layer connects to the capability opening layer through a second open interface , and is configured to provide a control capability of the mobile broadband network system, wherein the second open interface is configured to open the control capability and the forwarding capability to the capability opening layer ; characterized in that the capability opening layer is configured to receive, through a third open interface, a network customization request from a user, wherein the network customization request includes parameters required for customizing a mobile broadband network, and combine the control capability and/or the forwarding capability according to the network customization request, so as to manage a customized-network instance, wherein in the combining, the capability opening layer is configured to select according to the parameters required for customizing the mobile broadband network, an atomic network capability set that is required for creating the network instance, and combine selected network capabilities into a required network function.
A method for producing upconverting nanoparticles, the method comprising steps of: - admixing two or more rare earth salts in a first solvent and an organic oil to form a reaction mixture in a reaction vessel, - subjecting the reaction mixture to a flow of an inert gas, wherein flow rate of the inert gas is 2-5 L/h, preferably 4-5 L/h, most preferably 4.8 L/h, and pressure in the reaction vessel is at least 50 Pa over atmospheric pressure, preferably 50-80 Pa over atmospheric pressure, - heating the reaction mixture from a first temperature to a second temperature, wherein the first temperature is 15-25 °C and the second temperature is 150-200 °C, preferably 160 °C, - cooling the reaction mixture from the second temperature to a third temperature, wherein the third temperature is preferably 15-60 °C, - admixing to the reaction mixture fluoride ion and sodium ion in a second solvent, and - heating the reaction mixture from the third temperature to a fourth temperature, wherein the fourth temperature is preferably 250-350 °C, more preferably 300-320 °C. - admixing two or more rare earth salts in a first solvent and an organic oil to form a reaction mixture in a reaction vessel, - subjecting the reaction mixture to a flow of an inert gas, wherein flow rate of the inert gas is 2-5 L/h, preferably 4-5 L/h, most preferably 4.8 L/h, and pressure in the reaction vessel is at least 50 Pa over atmospheric pressure, preferably 50-80 Pa over atmospheric pressure, - heating the reaction mixture from a first temperature to a second temperature, wherein the first temperature is 15-25 °C and the second temperature is 150-200 °C, preferably 160 °C, - cooling the reaction mixture from the second temperature to a third temperature, wherein the third temperature is preferably 15-60 °C, - admixing to the reaction mixture fluoride ion and sodium ion in a second solvent, and - heating the reaction mixture from the third temperature to a fourth temperature, wherein the fourth temperature is preferably 250-350 °C, more preferably 300-320 °C.
A porous membrane with an electrolyte for electrochemical devices comprising a first main surface and a second main surface separated by a thickness wherein: - carbon nanotubes, defining through-pores or through-channels open at both of their ends , with a diameter of less than or equal to 100 nm, oriented in the direction of the thickness of the membrane and all substantially parallel, on the totality of the thickness of the membrane, connect the first main surface and the second main surface ; - the carbon nanotubes are separated by a space, and said space between the carbon nanotubes is totally filled with at least one solid material; an electrolyte is confined inside the carbon nanotubes; and - the chemical composition of the confined electrolyte is the same in all the inside of the nanotubes; - preferably the first and the second main surfaces are planar and parallel, the membrane is a planar membrane and the nanotubes, the pores or channels, are substantially aligned, or aligned, perpendicularly to said surface. - carbon nanotubes, defining through-pores or through-channels open at both of their ends , with a diameter of less than or equal to 100 nm, oriented in the direction of the thickness of the membrane and all substantially parallel, on the totality of the thickness of the membrane, connect the first main surface and the second main surface ; - the carbon nanotubes are separated by a space, and said space between the carbon nanotubes is totally filled with at least one solid material; an electrolyte is confined inside the carbon nanotubes; and - the chemical composition of the confined electrolyte is the same in all the inside of the nanotubes; - preferably the first and the second main surfaces are planar and parallel, the membrane is a planar membrane and the nanotubes, the pores or channels, are substantially aligned, or aligned, perpendicularly to said surface.
Heating device with a combustion chamber and a burner arrangement, comprising a premix burner , which has a burner body with an inner chamber , which burner body is attached to or in a wall of the combustion chamber and projects into this combustion chamber , to which a mixture of air and fuel gas can be supplied, and towards the combustion chamber has a plurality of outlet openings for the outlet of the mixture and for combustion outside the inner space in the combustion chamber , wherein the inner space is composed of an inlet region starting from the wall of the combustion chamber in a region of up to 20 mm in an axial direction of the burner body and an outlet region with the plurality of outlet openings , wherein the inlet region of the inner space has at least one element at least for swirl generation or turbulence, so that when the mixture flows through it a lower internal pressure is produced in the inlet region than in the outlet region and than in the combustion chamber , and wherein in the inlet region connecting openings are provided to the combustion chamber through which the combustion gases are drawn in from the combustion chamber and are mixed in the inlet region with the remaining mixture.
A method of transmitting Device-to-Device, D2D, data by a D2D transmitting User Equipment, Tx UE, in a wireless communication system, the method comprising: determining, at the Tx UE, a bitmap indicating at least one subframe for data transmission within a subframe pool, wherein each bit of the bitmap indicates whether the D2D data can be transmitted in a corresponding subframe within the subframe pool; transmitting, by the Tx UE, control information indicating the determined bitmap through a channel for a scheduling assignment to a D2D receiving UE, Rx UE; transmitting, by the Tx UE, the D2D data to the Rx UE in the at least one subframe indicated by the bitmap,wherein the bitmap is determined from a first set of bitmaps or a second set of bitmaps, wherein the first set of bitmaps are used when a Radio Resource Control, RRC, information element relating to a resource pattern subset is configured, wherein the second set of bitmaps are used when the RRC information element is not configured, and wherein the first set of bitmaps are a subset of the second set of bitmaps. determining, at the Tx UE, a bitmap indicating at least one subframe for data transmission within a subframe pool, wherein each bit of the bitmap indicates whether the D2D data can be transmitted in a corresponding subframe within the subframe pool; transmitting, by the Tx UE, control information indicating the determined bitmap through a channel for a scheduling assignment to a D2D receiving UE, Rx UE; transmitting, by the Tx UE, the D2D data to the Rx UE in the at least one subframe indicated by the bitmap,wherein the bitmap is determined from a first set of bitmaps or a second set of bitmaps, wherein the first set of bitmaps are used when a Radio Resource Control, RRC, information element relating to a resource pattern subset is configured, wherein the second set of bitmaps are used when the RRC information element is not configured, and wherein the first set of bitmaps are a subset of the second set of bitmaps.
Method for producing a digitally printed flat, web-shaped or plate-shaped workpiece with an abrasion-resistant surface, comprising the following steps: a) providing a digital data record for a decorative image for a digital printing device ; b) feeding a printable workpiece to the printing device ; c) digital printing by means of the printing device by using at least one solvent-based printing ink ; d) reducing the solvent content to a residual moisture in the workpiece ; e) impregnating the printed workpiece with a resin mixture ; and f) curing the resin mixture by means of a heating press , wherein digital printing in step C) is carried out using at least one solvent-based printing ink with a weight proportion of solvent of 40-99%, preferably 65-92%, and the solvent-based printing ink is a pigmented printing ink. a) providing a digital data record for a decorative image for a digital printing device ; b) feeding a printable workpiece to the printing device ; c) digital printing by means of the printing device by using at least one solvent-based printing ink ; d) reducing the solvent content to a residual moisture in the workpiece ; e) impregnating the printed workpiece with a resin mixture ; and f) curing the resin mixture by means of a heating press , wherein digital printing in step C) is carried out using at least one solvent-based printing ink with a weight proportion of solvent of 40-99%, preferably 65-92%, and the solvent-based printing ink is a pigmented printing ink.
A medicament comprising oxaliplatin for use in the treatment of bladder cancer by locally administering oxaliplatin into the bladder of a patient to achieve a sustained concentration of oxaliplatin in urine in the bladder sufficient to produce a therapeutic concentration of oxaliplatin in bladder tissue, wherein the oxaliplatin is delivered into the bladder from an intravesical drug delivery device which continuously releases the oxaliplatin into the urine in the bladder over a sustained period of 1 day to 14 days.
A concentrated dispersion of nanometric silver particles, the dispersion comprising: (a) a first solvent; (b) a plurality of nanometric silver particles, in which at least 50% of said particles are single-crystal silver particles, said plurality of nanometric silver particles having an average secondary particle size d 50 within a range of 30 to 300 nanometers, said particles disposed within said solvent; and (c) at least one dispersant, wherein a concentration of said nanometric silver particles within the concentrated dispersion is within a range of 30% to 75%, by weight, wherein a concentration of said dispersant within the dispersion is within a range of 0.2% to 30% of said concentration of said nanometric silver particles, by weight, and wherein said average secondary particle size (d 5 o) refers to the mean diameter of the silver oxide and silver particles, and is specifically meant to include the diameters of agglomerated particles; wherein the mean diameter refers to an equivalent spherical particle size (d 50 ), calculated using the Stokes-Einstein equation, by a Brookhaven 90Plus particle size analyzer or by a functionally-equivalent particle size analyzer suited for measuring equivalent spherical particle size throughout the range of 5 to 2000 nanometers, the measurement being made of a representative sample containing the solid particles, at room temperature, and at a scattering angle of 90 degrees. (a) a first solvent; (b) a plurality of nanometric silver particles, in which at least 50% of said particles are single-crystal silver particles, said plurality of nanometric silver particles having an average secondary particle size d 50 within a range of 30 to 300 nanometers, said particles disposed within said solvent; and (c) at least one dispersant, wherein a concentration of said nanometric silver particles within the concentrated dispersion is within a range of 30% to 75%, by weight, wherein a concentration of said dispersant within the dispersion is within a range of 0.2% to 30% of said concentration of said nanometric silver particles, by weight, and wherein said average secondary particle size (d 5 o) refers to the mean diameter of the silver oxide and silver particles, and is specifically meant to include the diameters of agglomerated particles; wherein the mean diameter refers to an equivalent spherical particle size (d 50 ), calculated using the Stokes-Einstein equation, by a Brookhaven 90Plus particle size analyzer or by a functionally-equivalent particle size analyzer suited for measuring equivalent spherical particle size throughout the range of 5 to 2000 nanometers, the measurement being made of a representative sample containing the solid particles, at room temperature, and at a scattering angle of 90 degrees.
A method of bonding an electrode (ELEC) of a piezoelectric ultrasonic transducer (UT) to an electrically conductive layer (ECL) of a support substrate (SS) to support the piezoelectric ultrasonic transducer (UT) and establish an electrical connection between the electrode (ELEC) and the electrically conductive layer (ECL); the method comprising: roughening the surface (SUR) of at least the electrode (ELEC); applying an adhesive (ADH) to one or both of the electrode (ELEC) and the electrically conductive layer (ECL); assembling the electrode (ELEC) and the electrically conductive layer (ECL); and curing the adhesive (ADH) the method being characterized in that : said roughening the surface of said electrode (ELEC) is performed as post-processing on said electrode (ELEC) after manufacturing of said piezoelectric ultrasonic transducer (UT) with said electrode (ELEC). roughening the surface (SUR) of at least the electrode (ELEC); applying an adhesive (ADH) to one or both of the electrode (ELEC) and the electrically conductive layer (ECL); assembling the electrode (ELEC) and the electrically conductive layer (ECL); and curing the adhesive (ADH) the method being characterized in that : said roughening the surface of said electrode (ELEC) is performed as post-processing on said electrode (ELEC) after manufacturing of said piezoelectric ultrasonic transducer (UT) with said electrode (ELEC).
A method for operating a wireless device in an NR wireless communications network, the method comprising: obtaining (S1505): a numerology parameter NUM used by a network node to transmit one or more synchronization signals , SS, during a first time period, t1, and a second time period, t2, periodicity parameters T1 and T2 of the one or more SS transmitted during the first and second time periods, t1 and t2, respectively, and bandwidth parameters BW1 and BW2 and bandwidth center parameters BWC1 and BWC2 for the one or more SS during the first and second time periods, t1 and t2, respectively; determining (S1510) one or more antenna configuration characteristics C of the network node operable to transmit the one or more SS during the first and second time periods t1 and t2; and based on the NUM, T1, T2, BW1, BWC1, BW2, and BWC2 parameters and the one or more C characteristics, determining (S1515) a time Tss associated with a measurement of the one or more SS. obtaining (S1505): a numerology parameter NUM used by a network node to transmit one or more synchronization signals , SS, during a first time period, t1, and a second time period, t2, periodicity parameters T1 and T2 of the one or more SS transmitted during the first and second time periods, t1 and t2, respectively, and bandwidth parameters BW1 and BW2 and bandwidth center parameters BWC1 and BWC2 for the one or more SS during the first and second time periods, t1 and t2, respectively; a numerology parameter NUM used by a network node to transmit one or more synchronization signals , SS, during a first time period, t1, and a second time period, t2, periodicity parameters T1 and T2 of the one or more SS transmitted during the first and second time periods, t1 and t2, respectively, and bandwidth parameters BW1 and BW2 and bandwidth center parameters BWC1 and BWC2 for the one or more SS during the first and second time periods, t1 and t2, respectively; determining (S1510) one or more antenna configuration characteristics C of the network node operable to transmit the one or more SS during the first and second time periods t1 and t2; and based on the NUM, T1, T2, BW1, BWC1, BW2, and BWC2 parameters and the one or more C characteristics, determining (S1515) a time Tss associated with a measurement of the one or more SS.
A powder composition containing an oily substance, the powder composition comprising a powdery calcium silicate-based material and an oily substance impregnated into the material, wherein, in the material, a cumulative pore volume measured using a mercury porosimeter for a pore size of 10 to 70 nm is 1.1 cc/g or more and a cumulative pore volume measured using a mercury porosimeter for a pore size of 70 to 500 nm is 2.0 cc/g or less.
A Form II crystal of 3-ethyl-4-{3-isopropyl-4-(4-(1-methyl-1H-pyrazol-4-yl)-1H-imidazol-1-yl)-1H-pyrazolo[3,4-b]pyridin-1-yl}benzamide showing an X-ray powder diffraction spectrum having at least characteristic diffraction peaks at angles (2θ ± 0.2°) of 7.7°, 8.0°, 11.1°, 12.5°, 12.9°, 15.2°, 15.8°, 17.2°, 19.0°, 22.5°, 26.1°, and 27.4°.
A method for applying a 3-D autocorrelation function to a cerebral vascular MRI image, the method comprising: introducing into a patient a MR-effective nanoparticle contrast enhancing agent; subjecting the patient to MRI to obtain a cerebral vascular MRI image; applying a 3-D autocorrelation function to a subdomain of interest of the cerebral vascular MRI image to obtain at least one 3-D autocorrelation spectrum; and analyzing the at least one 3-D autocorrelation spectrum to determine the presence or absence of a characteristic fissure in the spectral domain. introducing into a patient a MR-effective nanoparticle contrast enhancing agent; subjecting the patient to MRI to obtain a cerebral vascular MRI image; applying a 3-D autocorrelation function to a subdomain of interest of the cerebral vascular MRI image to obtain at least one 3-D autocorrelation spectrum; and analyzing the at least one 3-D autocorrelation spectrum to determine the presence or absence of a characteristic fissure in the spectral domain.