mhurhangee/patent-ind-claim-en huggingface dataset:
A procedure for adjusting the composition of an electrolyte in a system comprising a fuel cell adapted for reacting hydrogen (H 2 ) and oxygen (O 2 ) molecules, to produce water and electricity, - said electrolyte being a solution having water as a solvent and NaOH or KOH as a solute, - said system comprising at least one reaction chamber which uses said electrolyte, - said reaction chamber being an electrolyser , able to create oxygen (O 2 ) and hydrogen (H 2 ) molecules by hydrolysis of water molecules, or a fuel cell . adapted for reacting hydrogen (H 2 ) and oxygen (O 2 ) molecules, to produce water and electricity, - said adjusting procedure comprising: - a step of measuring the concentration of the solute in said electrolyte, and - a pre-mixing in water of said solute in the solid state in a mixing tank separate from said reaction chamber , with consequent dissolution of said solute and provision of a replenishing solution, - a subsequent introduction of said replenishment solution into said reaction chamber . - said electrolyte being a solution having water as a solvent and NaOH or KOH as a solute, - said system comprising at least one reaction chamber which uses said electrolyte, - said reaction chamber being an electrolyser , able to create oxygen (O 2 ) and hydrogen (H 2 ) molecules by hydrolysis of water molecules, or a fuel cell . adapted for reacting hydrogen (H 2 ) and oxygen (O 2 ) molecules, to produce water and electricity, - said adjusting procedure comprising: - a step of measuring the concentration of the solute in said electrolyte, and - a pre-mixing in water of said solute in the solid state in a mixing tank separate from said reaction chamber , with consequent dissolution of said solute and provision of a replenishing solution, - a subsequent introduction of said replenishment solution into said reaction chamber . - a step of measuring the concentration of the solute in said electrolyte, and - a pre-mixing in water of said solute in the solid state in a mixing tank separate from said reaction chamber , with consequent dissolution of said solute and provision of a replenishing solution, - a subsequent introduction of said replenishment solution into said reaction chamber . - a pre-mixing in water of said solute in the solid state in a mixing tank separate from said reaction chamber , with consequent dissolution of said solute and provision of a replenishing solution, - a subsequent introduction of said replenishment solution into said reaction chamber .
Malus domestica plant comprising in its genome an impaired Podosphaera leucotricha resistance conferring gene wherein the amino acid sequence encoded by said resistance conferring gene is the primary amino acid sequence represented SEQ ID No. 1 and wherein expression, or transcription, of said Podosphaera leucotricha resistance conferring gene is reduced by at least 70%, more preferably at least 80%.
A vehicle power transmitting and receiving control device arranged in a vehicle , the vehicle including an on-vehicle power storage device that is configured to transmit and receive power to and from an external power supply device and a communication unit that is configured to perform bidirectional communication to transmit and receive the power, wherein the bidirectional communication is performed through a communication line (L3, L4) by superposing a high-frequency signal on a logic signal in which logic H and logic L appear alternately when a time ratio (D) of a time of logic H to a cycle time including a period of logic H and a period of logic L in the logic signal becomes a predetermined ratio, and the bidirectional communication includes communication for preparing for the transmission and reception of the power before transmitting and receiving the power, the vehicle power transmitting and receiving control device comprising: a determination unit that is configured to determine, when an abnormality occurs in the bidirectional communication performed before transmitting and receiving the power, whether or not to continue the bidirectional communication in accordance with a content of the abnormality, wherein the determination unit is configured to determine to continue the bidirectional communication on the condition that the content of the abnormality corresponds to a non-critical abnormality that allows for transmission and reception of the power; and an execution unit that is configured to perform transmission and reception of the power within a range in which a service restriction is imposed in accordance with the content of the abnormality of the bidirectional communication when the determination unit determines to continue the bidirectional communication. a determination unit that is configured to determine, when an abnormality occurs in the bidirectional communication performed before transmitting and receiving the power, whether or not to continue the bidirectional communication in accordance with a content of the abnormality, wherein the determination unit is configured to determine to continue the bidirectional communication on the condition that the content of the abnormality corresponds to a non-critical abnormality that allows for transmission and reception of the power; and an execution unit that is configured to perform transmission and reception of the power within a range in which a service restriction is imposed in accordance with the content of the abnormality of the bidirectional communication when the determination unit determines to continue the bidirectional communication.
An electron gun device configured to emit an electron beam by being heated to a high temperature in vacuum, comprising: a hollow cover tube container storing a liquid hydrogenated metal as a hydrogenated liquid metal or a liquid metal before hydrogenation; a vacuum chamber in which the hollow tube container is arranged; a heater configured to heat the hollow tube container storing the liquid metal to said high temperature; when the liquid hydrogenated metal is stored as a liquid metal before hydrogenation, the electron gun device comprises means to supply hydrogen for hydrogenation of the liquid metal; a Wehnelt electrode ; and an anode ; wherein a surface of a material that emits the electron beam is the liquid hydrogenated metal dissolved during a high-temperature operation, wherein the hollow cover tube container is solid during a high-temperature operation, the liquid hydrogenated metal is heated to the high temperature together with the cover tube container, and the hydrogenated liquid metal is exposed from the cover tube container to form a liquid surface on which gravity, an electric field, and a surface tension of the liquid surface are balanced, and wherein the electron beam is emitted from an exposed surface of the hydrogenated liquid metal. a hollow cover tube container storing a liquid hydrogenated metal as a hydrogenated liquid metal or a liquid metal before hydrogenation; a vacuum chamber in which the hollow tube container is arranged; a heater configured to heat the hollow tube container storing the liquid metal to said high temperature; when the liquid hydrogenated metal is stored as a liquid metal before hydrogenation, the electron gun device comprises means to supply hydrogen for hydrogenation of the liquid metal; a Wehnelt electrode ; and an anode ; wherein a surface of a material that emits the electron beam is the liquid hydrogenated metal dissolved during a high-temperature operation, wherein the hollow cover tube container is solid during a high-temperature operation, the liquid hydrogenated metal is heated to the high temperature together with the cover tube container, and the hydrogenated liquid metal is exposed from the cover tube container to form a liquid surface on which gravity, an electric field, and a surface tension of the liquid surface are balanced, and wherein the electron beam is emitted from an exposed surface of the hydrogenated liquid metal.
Method for controlling a pump with a variable-speed drive, comprising: inputting a target pressure value ( p cmd ) into a cascaded controller structure, wherein the controller structure comprises a pressure control loop , wherein the controlled system of the pressure control loop comprises a speed control loop , into which a target speed (n cmd ) is input as the manipulated variable of a pressure controller of the pressure control loop; wherein the controlled system of the speed control loop comprises a drive control loop , into which a target drive torque (M R cmd ) is input as the manipulated variable of a speed controller of the speed control loop; forming a pilot control value ( M f f cmd ) for the drive torque as the result of a temporal differential equation of the target pressure; and adding the pilot control value to the target drive torque that is input into the controlled system of the speed control loop, wherein the temporal differential equation of the target pressure comprises an inverse system model of the controlled system of the cascaded controller structure. wherein the controlled system of the pressure control loop comprises a speed control loop , into which a target speed (n cmd ) is input as the manipulated variable of a pressure controller of the pressure control loop; wherein the controlled system of the speed control loop comprises a drive control loop , into which a target drive torque (M R cmd ) is input as the manipulated variable of a speed controller of the speed control loop; forming a pilot control value ( M f f cmd ) for the drive torque as the result of a temporal differential equation of the target pressure; and adding the pilot control value to the target drive torque that is input into the controlled system of the speed control loop, wherein the temporal differential equation of the target pressure comprises an inverse system model of the controlled system of the cascaded controller structure.
A combination medicament for use in treating or preventing a cancer in which an ALK inhibitor and a VEGF inhibitor are combined, wherein the cancer is positive for an ALK fusion gene, wherein the ALK inhibitor is a compound of formula (I) or a salt thereof: and wherein the VEGF inhibitor is bevacizumab.
A solder paste in which change in viscosity over time is suppressed, the solder paste consisting of: a solder powder containing 42 mass% or more of Sn, a zirconium oxide powder, and a flux, wherein the solder paste contains 0.05 to 20.0% by mass of zirconium oxide powder with respect to the total mass of the solder paste, wherein the solder powder consists of optionally one or more selected from a group consisting of Ag: more than 0% and 10.0% or less, in terms of mass%, Cu: more than 0% and 10.0% or less, in terms of mass%, Bi: more than 0% and 58% or less, in terms of mass% and Sb: more than 0% and 20.0% or less, in terms of mass%, and optionally one or more selected from the group consisting of Co, Mn, Fe, Ge, Ga, Au, and Pt: more than 0% and 10.0% or less and the balance Sn, in terms of mass%, wherein a particle size of the zirconium oxide powder is 0.5 μm or more and 5 μm or less, wherein the particle size of the zirconium oxide powder is measured by: an SEM photograph of zirconium oxide powder is taken, and a projected circle equivalent diameter is obtained by image analysis for each particle present in the visual field, and the particle diameter of zirconium oxide is defined as an average value of the projected circle equivalent diameters of 0.1 μm or more. a solder powder containing 42 mass% or more of Sn, a zirconium oxide powder, and a flux, wherein the solder paste contains 0.05 to 20.0% by mass of zirconium oxide powder with respect to the total mass of the solder paste, wherein the solder powder consists of optionally one or more selected from a group consisting of Ag: more than 0% and 10.0% or less, in terms of mass%, Cu: more than 0% and 10.0% or less, in terms of mass%, Bi: more than 0% and 58% or less, in terms of mass% and Sb: more than 0% and 20.0% or less, in terms of mass%, and optionally one or more selected from the group consisting of Co, Mn, Fe, Ge, Ga, Au, and Pt: more than 0% and 10.0% or less and the balance Sn, in terms of mass%, wherein a particle size of the zirconium oxide powder is 0.5 μm or more and 5 μm or less, wherein the particle size of the zirconium oxide powder is measured by: an SEM photograph of zirconium oxide powder is taken, and a projected circle equivalent diameter is obtained by image analysis for each particle present in the visual field, and the particle diameter of zirconium oxide is defined as an average value of the projected circle equivalent diameters of 0.1 μm or more.
A bearing for mounting an anti-roll bar on a frame of a bogie , the anti-roll bar extending along a transverse axis (T) of the bogie and being mobile in rotation relatively to the frame around the axis (T), the bearing including a first half-shell intended to be mechanically secured to the frame , and a second half-shell adapted so as to be attached on the first half-shell by means of a first attachment system , the first half-shell and the second half-shell then forming a housing crossing through along the axis (T) and adapted for receiving the anti-roll bar, the first half-shell being distinct from the frame and being adapted so as to be attached on the frame by means of a second attachment system , characterized in that the first attachment system and the second attachment system coincide and are formed by attachment screws crossing the first half-shell and the second half-shell .
A rotary dumbbell, comprising a handle part and weight parts arranged at two ends of the handle part respectively, and further comprising a transmission self-locking mechanism and a driven mechanism which are arranged at the two ends of the handle part respectively and abut against the two weight parts respectively; wherein the transmission self-locking mechanism comprises a transmission assembly ; the transmission assembly comprises a planetary gear transmission mechanism , a first output screw , a long nut in matched connection with the first output screw , and a first screw spline splined to the first output screw ; the long nut is rotatably connected to the planetary gear transmission mechanism to enable the long nut to rotate under the drive of the planetary gear transmission mechanism , so that the first output screw moves axially through the first screw spline ; wherein the planetary gear transmission mechanism comprises a sun gear and a plurality of planetary gears symmetrically arranged outside the sun gear ; a large internal gear is arranged outside the planetary gears ; the large internal gear is meshed with the planetary gears , and the long nut is sleeved at a middle position of the sun gear ; characterized in that the transmission self-locking mechanism further comprises a self-locking ring ; the self-locking ring is provided with a self-locking hole , a self-locking pin matched with the self-locking hole and a plurality of self-locking posts in matched connection with central through holes of the planetary gears ; and the self-locking ring is nested on the large internal gear . the transmission self-locking mechanism comprises a transmission assembly ; the transmission assembly comprises a planetary gear transmission mechanism , a first output screw , a long nut in matched connection with the first output screw , and a first screw spline splined to the first output screw ; the long nut is rotatably connected to the planetary gear transmission mechanism to enable the long nut to rotate under the drive of the planetary gear transmission mechanism , so that the first output screw moves axially through the first screw spline ; wherein the planetary gear transmission mechanism comprises a sun gear and a plurality of planetary gears symmetrically arranged outside the sun gear ; a large internal gear is arranged outside the planetary gears ; the large internal gear is meshed with the planetary gears , and the long nut is sleeved at a middle position of the sun gear ; characterized in that the transmission self-locking mechanism further comprises a self-locking ring ; the self-locking ring is provided with a self-locking hole , a self-locking pin matched with the self-locking hole and a plurality of self-locking posts in matched connection with central through holes of the planetary gears ; and the self-locking ring is nested on the large internal gear .
A liquid vaccine formulation for use in a method of treatment by oral administration comprising: i. a rotavirus antigen, said antigen being antigen 116E, being present at a concentration range between 10 5.0 to 10 6.0 ffu/dose: ii. a combination buffer system selected from the following (a)-(c) (a) a Carbonate-Bicarbonate Buffer system; (b) a Magnesium Hydroxide Carbonate Buffer system; (c) a mixed buffer system comprising ammonium acetate; ammonium bicarbonate and di-ammonium ortho-phosphate; iii. a combination of sugars, wherein the combination of sugars comprises of sucrose, lactose and trehalose, or wherein the combination of sugars is sucrose and trehalose; iv. recombinant Human Serum Albumin; v. a partially hydrolysed protein lactalbumin hydrolysate, wherein the pH of the formulation is between 7 to 8.5, wherein the vaccine formulation is stable for at least 2 years at 2 to 8 °C and 6 months at 25 °C. i. a rotavirus antigen, said antigen being antigen 116E, being present at a concentration range between 10 5.0 to 10 6.0 ffu/dose: ii. a combination buffer system selected from the following (a)-(c) (a) a Carbonate-Bicarbonate Buffer system; (b) a Magnesium Hydroxide Carbonate Buffer system; (c) a mixed buffer system comprising ammonium acetate; ammonium bicarbonate and di-ammonium ortho-phosphate; (a) a Carbonate-Bicarbonate Buffer system; (b) a Magnesium Hydroxide Carbonate Buffer system; (c) a mixed buffer system comprising ammonium acetate; ammonium bicarbonate and di-ammonium ortho-phosphate; iii. a combination of sugars, wherein the combination of sugars comprises of sucrose, lactose and trehalose, or wherein the combination of sugars is sucrose and trehalose; iv. recombinant Human Serum Albumin; v. a partially hydrolysed protein lactalbumin hydrolysate, wherein the pH of the formulation is between 7 to 8.5, wherein the vaccine formulation is stable for at least 2 years at 2 to 8 °C and 6 months at 25 °C.
A method for producing encapsulated quantum dots, the method comprising the steps of: a. dispersing quantum dots in an organic solvent together with an organic polymer to form a first solution system; b. contacting the solution system with a second solution system which induces spontaneous aggregation of the quantum dots within discrete beads of the encapsulating polymer; and c. removing the organic solvent and isolating the quantum dot-containing polymer beads, wherein the organic polymer is selected from the list of: polycarbonate, polybutadiene, polyisoprene, polyethylene, epoxy and poly(o-cresylglycidylether)-co-formaldehyde. a. dispersing quantum dots in an organic solvent together with an organic polymer to form a first solution system; b. contacting the solution system with a second solution system which induces spontaneous aggregation of the quantum dots within discrete beads of the encapsulating polymer; and c. removing the organic solvent and isolating the quantum dot-containing polymer beads,
A forming section for forming a fibrous web (W), the forming section comprising: a first forming fabric arranged to run in a loop supported by guide elements ; a second forming fabric arranged to run in a loop supported by guide elements , the second forming fabric being arranged so in relation to the first forming fabric that the two forming fabrics converge towards each other to form an inlet gap into which stock can be injected; and a forming roll arranged within the loop of the second forming fabric , the forming roll being arranged to guide the second forming fabric into the inlet gap and to guide the first and the second forming fabric along a part of their path which is common to both the first and the second forming fabric and which begins at the inlet gap, the forming roll comprising a flexible tubular jacket which is arranged to run in a loop around an axis of rotation (A) that extends in a direction perpendicular to the direction in which the first and second forming fabric are arranged to run, and the forming roll further comprising a support ledge located inside the loop of the flexible tubular jacket and extending in a direction parallel to the axis of rotation (A) of the flexible tubular jacket and which support ledge is arranged to be capable of pressing the flexible tubular jacket in a direction outwards away from the axis of rotation (A) of the flexible tubular jacket in an area along the loop in which the flexible tubular jacket is arranged to run such that, in the area in which the flexible tubular jacket is pressed outwards by the support ledge , the flexible tubular jacket and the forming fabrics are caused to follow a path with a radius of curvature which is smaller than the radius of curvature of the flexible tubular jacket outside the area in which the support ledge contacts the flexible tubular jacket , the support ledge having a top surface facing the inner surface of the flexible tubular jacket and which top surface is convex, wherein the support ledge has a varying radius such that, as the flexible tubular jacket moves over the support ledge from an end adjacent the inlet gap to a point further away from the inlet gap , the radius of the support ledge will decrease from a greater radius to a smaller radius.
A treatment system for suction bags , comprising: - a frame including a loading area configured to allow loading of suction bags within the frame , a cutting area in which suction bags are intended to be cut, a treatment area in which liquid waste, originating from cut suction bags , is intended to be treated, and a storage area in which treated suction bags are intended to be stored, - a rotating support which is housed at least partly in the frame and which is mounted movably in rotation about a first axis of rotation (A1), the rotating support comprising several receiving locations each configured to accommodate a suction bag , the rotating support being configured to move suction bags received in the receiving locations from the loading area to the cutting area then to the storage area , - a cutting member which is located in the cutting area and which is mounted movably in rotation about a second axis of rotation (A2) which is substantially horizontal, the cutting member defining a cutting plane which is substantially vertical and being configured to cut at least one suction bag received in a receiving location and located in the cutting area . - a frame including a loading area configured to allow loading of suction bags within the frame , a cutting area in which suction bags are intended to be cut, a treatment area in which liquid waste, originating from cut suction bags , is intended to be treated, and a storage area in which treated suction bags are intended to be stored, - a rotating support which is housed at least partly in the frame and which is mounted movably in rotation about a first axis of rotation (A1), the rotating support comprising several receiving locations each configured to accommodate a suction bag , the rotating support being configured to move suction bags received in the receiving locations from the loading area to the cutting area then to the storage area , - a cutting member which is located in the cutting area and which is mounted movably in rotation about a second axis of rotation (A2) which is substantially horizontal, the cutting member defining a cutting plane which is substantially vertical and being configured to cut at least one suction bag received in a receiving location and located in the cutting area .