mhurhangee/ep-ind-claims huggingface dataset:
A method of forming a crystalline Boehmite product having an average particle size d 50 that is greater than 100 nanometers and less than 3000 nanometers, and a crystallite size that is in a range of 30 nanometers to 120 nanometers, the method comprising: providing a highly dispersible grade of Boehmite obtained from a precipitation process using heat and/or shear with concentrations of 0.5% to 7.5% mineral or organic acid relative to the alumina content, the highly dispersible grade of Boehmite defined by greater than 95% of the Boehmite being configured to disperse in a water medium as particles that have an average size of less than 100 nm and act as a seed material; providing the water medium; adding an organic dispersing agent to the water medium with mixing; mixing large aluminum oxide precursors in the form of coarse grade Gibbsite having an average particle size d 50 of 50 micrometers or more and the highly dispersible grade of Boehmite, with the water medium and organic dispersing agent to form an aqueous slurry; adjusting the pH of the slurry to be between 8,0 to 12,0; heating the slurry to a temperature between 120°C and 250°C for a duration of time that is from 1,0 hour up to 24 hours; collecting the slurry to form a wet cake; and drying the wet cake to obtain the crystalline Boehmite product; wherein the water represents 60% to 90%, the large aluminum oxide precursors represent 10% to 30%, and the organic dispersing agent represents 0,001% to 0,02% of the overall weight of the aqueous slurry and the highly dispersible grade of Boehmite is present in a ratio to the large aluminum oxide precursors of 0,05 to 0,25. providing a highly dispersible grade of Boehmite obtained from a precipitation process using heat and/or shear with concentrations of 0.5% to 7.5% mineral or organic acid relative to the alumina content, the highly dispersible grade of Boehmite defined by greater than 95% of the Boehmite being configured to disperse in a water medium as particles that have an average size of less than 100 nm and act as a seed material; providing the water medium; adding an organic dispersing agent to the water medium with mixing; mixing large aluminum oxide precursors in the form of coarse grade Gibbsite having an average particle size d 50 of 50 micrometers or more and the highly dispersible grade of Boehmite, with the water medium and organic dispersing agent to form an aqueous slurry; adjusting the pH of the slurry to be between 8,0 to 12,0; heating the slurry to a temperature between 120°C and 250°C for a duration of time that is from 1,0 hour up to 24 hours; collecting the slurry to form a wet cake; and drying the wet cake to obtain the crystalline Boehmite product; wherein the water represents 60% to 90%, the large aluminum oxide precursors represent 10% to 30%, and the organic dispersing agent represents 0,001% to 0,02% of the overall weight of the aqueous slurry and the highly dispersible grade of Boehmite is present in a ratio to the large aluminum oxide precursors of 0,05 to 0,25.
A method for insulating a ground floor of a building, the ground floor being supported on soil, the method comprising the steps of: a. Removing soil, which is arranged for supporting the ground floor, at first locations below respective first area parts of the ground floor, wherein the first area parts are spaced apart from one another in a first direction, thereby forming a plurality of first tunnels below the ground floor; b. Providing an insulating material in each of the first tunnels; c. Removing soil, which is arranged for supporting the ground floor, at second locations below respective second area parts of the ground floor, wherein the second area parts are spaced apart from one another in the first direction, thereby forming a plurality of second tunnels below the ground floor; wherein the second locations are different from the first locations in the first direction; d. Providing an insulating material in each of the second tunnels; wherein the steps a. and b. are carried out before step c. a. Removing soil, which is arranged for supporting the ground floor, at first locations below respective first area parts of the ground floor, wherein the first area parts are spaced apart from one another in a first direction, thereby forming a plurality of first tunnels below the ground floor; b. Providing an insulating material in each of the first tunnels; c. Removing soil, which is arranged for supporting the ground floor, at second locations below respective second area parts of the ground floor, wherein the second area parts are spaced apart from one another in the first direction, thereby forming a plurality of second tunnels below the ground floor; wherein the second locations are different from the first locations in the first direction; d. Providing an insulating material in each of the second tunnels;
An attaching device for a camera comprising a base support with a spherical section-shaped holding surface and, resting on the holding surface, a spherical camera holder, wherein the camera holder has a hollow chamber for holding the camera and a lens opening, and wherein either the camera holder or the base support includes a hard magnetic material, wherein the respective other element includes a soft magnetic material and the hollow chamber is arranged in a first semi-spherical area of the camera holder, and wherein, in a second semi-spherical area of the camera holder, concentric recesses are provided for cables of the camera, wherein the recesses extend from the first semi-spherical area to a pole of the camera holder.
A method, comprising: installing, by a network function virtualization compute element, an image supporting at least one virtualized network function on the compute element, the image comprising instructions and data to initiate a Transmission Control Protocol, TCP, connection between the compute element and a Software Defined Network, SDN, controller over a network upon a reboot of the compute element; rebooting the compute element after the installing; establishing, by the rebooted compute element as TCP client in accordance with the instructions and using the data, a TCP connection with the controller over the network; accepting (440, 540), by the compute element as a cryptographic network protocol server, a cryptographic network protocol connection via the TCP connection from the controller as a cryptographic network protocol client in accordance with the instructions; accepting, by the compute element as a network management protocol server, a network management protocol connection via the cryptographic network protocol connection from the controller as network management protocol client in accordance with the instructions; receiving, by the compute element from the controller over the network management protocol connection, network management commands regarding a status of the rebooted compute element; and transmitting, by the compute element to the controller over the network management protocol connection, responses to the received commands in accordance with the instructions. installing, by a network function virtualization compute element, an image supporting at least one virtualized network function on the compute element, the image comprising instructions and data to initiate a Transmission Control Protocol, TCP, connection between the compute element and a Software Defined Network, SDN, controller over a network upon a reboot of the compute element; rebooting the compute element after the installing; establishing, by the rebooted compute element as TCP client in accordance with the instructions and using the data, a TCP connection with the controller over the network; accepting (440, 540), by the compute element as a cryptographic network protocol server, a cryptographic network protocol connection via the TCP connection from the controller as a cryptographic network protocol client in accordance with the instructions; accepting, by the compute element as a network management protocol server, a network management protocol connection via the cryptographic network protocol connection from the controller as network management protocol client in accordance with the instructions; receiving, by the compute element from the controller over the network management protocol connection, network management commands regarding a status of the rebooted compute element; and transmitting, by the compute element to the controller over the network management protocol connection, responses to the received commands in accordance with the instructions.
An integrated touch screen system comprising: a touch screen including a plurality of display pixels, the plurality of display pixels including an addressing system that includes a plurality of conductive lines; a display system configured to update an image displayed by the display pixels during a display phase, wherein the updating of the image includes actively operating a power supply to apply voltages to the conductive lines to address the display pixels; and a touch sensing system configured to sense touch during a touch sensing phase, the touch sensing phase including a plurality of active sensing periods during which the touch sensing system performs active touch sensing while the power supply is inactive, the touch sensing phase further including at least one gap period between active sensing periods, wherein the power supply is actively operated to apply voltages to the conductive lines during the at least one gap period while active touch sensing is not being performed. a touch screen including a plurality of display pixels, the plurality of display pixels including an addressing system that includes a plurality of conductive lines; a display system configured to update an image displayed by the display pixels during a display phase, wherein the updating of the image includes actively operating a power supply to apply voltages to the conductive lines to address the display pixels; and a touch sensing system configured to sense touch during a touch sensing phase, the touch sensing phase including a plurality of active sensing periods during which the touch sensing system performs active touch sensing while the power supply is inactive, the touch sensing phase further including at least one gap period between active sensing periods, wherein the power supply is actively operated to apply voltages to the conductive lines during the at least one gap period while active touch sensing is not being performed.
A fibrous preform of a turbomachine vane or blade comprising two fibrous portions formed by three-dimensional weaving and forming an aerodynamic profile of the vane or blade and defining therebetween an interior volume, wherein each fibrous portion has at least one fibrous vibration damping stiffener (19a-19h) comprising one or several unidirectional layers of yarns (191a-191d) and present in the interior volume, and in which said at least one fibrous stiffener is present on a non-interlinked area on which the unidirectional layer(s) of yarns are separated from the corresponding fibrous portion, and wherein the yarns of this or these unidirectional layers are woven with the corresponding fibrous portion outside the non-interlinked area, or wherein said at least one fibrous stiffener is added onto each fibrous portion.
Valve assembly for an injection valve, comprising - a valve body including a central longitudinal axis, the valve body comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially movable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, the valve needle comprising a retainer element extending in radial direction, and - an electro-magnetic actuator unit comprising an armature and a pole piece, the armature being axially movable in the cavity and being designed to actuate the valve needle via the retainer element, the pole piece being fixedly coupled to the valve body and comprising an inner recess, the retainer element being at least partially arranged in the inner recess, wherein the pole piece comprises a stop element extending into the inner recess of the pole piece in radial direction, the stop element has a stop surface facing the fluid outlet portion and the retainer element, and the stop surface of the stop element is designed to limit the axial movement of the retainer element, and the armature is at a distance (d_res_2) from the pole piece when the retainer element is in contact with the stop surface of the stop element. - a valve body including a central longitudinal axis, the valve body comprising a cavity with a fluid inlet portion and a fluid outlet portion, - a valve needle axially movable in the cavity, the valve needle preventing a fluid flow through the fluid outlet portion in a closing position and releasing the fluid flow through the fluid outlet portion in further positions, the valve needle comprising a retainer element extending in radial direction, and - an electro-magnetic actuator unit comprising an armature and a pole piece, the armature being axially movable in the cavity and being designed to actuate the valve needle via the retainer element, the pole piece being fixedly coupled to the valve body and comprising an inner recess, the retainer element being at least partially arranged in the inner recess,
A heart valve therapeutic device comprising: a support comprising an elongate wire anchor (7, 1701, 1750) configured to percutaneously extend through a blood vessel to the heart of a patient; a prosthetic valve element comprising a coupler for coupling the prosthetic valve element to the anchor (7, 1701, 1750); and a user actuator (20, 21) for allowing user coupling of the valve element on the anchor at a desired location, and in which said user actuator is for allowing user control of the valve element shape and/or location, and wherein the actuator is arranged to change axial position of the coupler (16, 50) on the elongate anchor, characterized in that, the wire anchor has a stiffness to hold its shape and location to support the prosthetic valve element without fixing to a heart wall, and in that the coupler (16, 50) comprises an annular spring or clip which contracts around the elongate wire anchor, the device further comprises a delivery catheter, and said coupler is configured to support the valve element after removal of the delivery catheter. a support comprising an elongate wire anchor (7, 1701, 1750) configured to percutaneously extend through a blood vessel to the heart of a patient; a prosthetic valve element comprising a coupler for coupling the prosthetic valve element to the anchor (7, 1701, 1750); and a user actuator (20, 21) for allowing user coupling of the valve element on the anchor at a desired location, and in which said user actuator is for allowing user control of the valve element shape and/or location, and wherein the actuator is arranged to change axial position of the coupler (16, 50) on the elongate anchor, characterized in that, the wire anchor has a stiffness to hold its shape and location to support the prosthetic valve element without fixing to a heart wall, and in that the coupler (16, 50) comprises an annular spring or clip which contracts around the elongate wire anchor, the device further comprises a delivery catheter, and said coupler is configured to support the valve element after removal of the delivery catheter.
An autonomous utilities-providing container (100, 510) comprising: two or more utility supplying modules; a control module, coupled to the utility supplying modules and configured to remotely communicate with a central control system; wherein the utility supplying modules are configured to dispense a quantity of a utility based upon information provided by the central control system, wherein the two or more utility supplying modules comprise at least (i) an electricity module comprising an electricity production unit (145, 422) and an electricity supply unit, said electricity supply unit configured to be coupled to a plurality of demand sites; and characterized in comprising (ii) a potable water production module, comprising a water purification unit (170, 424) and a water dispensing unit. two or more utility supplying modules; a control module, coupled to the utility supplying modules and configured to remotely communicate with a central control system; wherein the utility supplying modules are configured to dispense a quantity of a utility based upon information provided by the central control system, wherein the two or more utility supplying modules comprise at least (i) an electricity module comprising an electricity production unit (145, 422) and an electricity supply unit, said electricity supply unit configured to be coupled to a plurality of demand sites; and characterized in comprising (ii) a potable water production module, comprising a water purification unit (170, 424) and a water dispensing unit. (i) an electricity module comprising an electricity production unit (145, 422) and an electricity supply unit, said electricity supply unit configured to be coupled to a plurality of demand sites; and characterized in comprising (ii) a potable water production module, comprising a water purification unit (170, 424) and a water dispensing unit.
A contention window adjustment method executed by a user terminal, comprising: receiving indication information sent by a base station, wherein the indication information is used for indicating results of demodulating transmitted data by the base station in hybrid automatic repeat request, HARQ, processes corresponding to a reference time domain resource when channel access is performed at a first moment; and adjusting a size of a contention window corresponding to a second moment according to the indication information, wherein the first moment is earlier than the second moment. receiving indication information sent by a base station, wherein the indication information is used for indicating results of demodulating transmitted data by the base station in hybrid automatic repeat request, HARQ, processes corresponding to a reference time domain resource when channel access is performed at a first moment; and adjusting a size of a contention window corresponding to a second moment according to the indication information, wherein the first moment is earlier than the second moment.
Rail vehicle having a chassis, a vehicle body which is supported on the chassis and is equipped with side walls, and a device for removing obstacles from a travel path, which has two clearing blades (3, 4) aligned in the form of a wedge with respect to each other, each having a wedge tip end facing the other clearing blade (3,4) and a free end (7, 8) facing away from the wedge tip end and fixedly connected to the rail vehicle by way of fastening means, and means for reducing a bow wave generated by the clearing blades, characterised in that the means for reducing the bow wave have at least one vertical guide plate (12, 13), which is arranged in the region of the free end (7, 8) of a clearing blade (3, 4), so that a flow of air generated by the clearing blade (3, 4) flows past the vertical guide plate (12, 13), and at least one horizontal guide plate (14, 15), with which a vertical guide plate (12, 13) is fastened to the respective clearing blade (3, 4).
Motor vehicle forecarriage comprising - a forecarriage frame, - a pair of front wheels (10', 10") kinematically connected to the forecarriage frame by means of an articulated quadrilateral, - said articulated quadrilateral comprising a pair of cross members (24', 24"), hinged to the forecarriage frame in correspondence of middle hinges, - said cross members (24', 24") being connected together, in correspondence of opposite transverse ends (40, 44), by means of uprights (48', 48") pivoted to said transverse ends (40, 44) in correspondence of side hinges, - the cross members (24', 24") and the uprights (48', 48") defining said articulated quadrilateral, wherein - each of the uprights (48', 48") guides and supports a stub axle of a front wheel (10', 10"), each upright (48', 48") extending from an upper end to a lower end, - wherein each stub axle is mechanically connected to a rotation pin of the respective front wheel (10', 10") so as to rotatably support the front wheel (10', 10") around a rotation axis (R-R), and wherein each rotation pin of the respective front wheel (10', 10") is comprised between the upper end and the lower end of the corresponding upright (48', 48") of the articulated quadrilateral, wherein between each stub axle and the respective upright are arranged suspension means of the respective front wheel (10', 10"), characterised in that each of said uprights (48', 48") is hollow so as to house internally, at least partially, said suspension means of the respective front wheel (10', 10"). - a forecarriage frame, - a pair of front wheels (10', 10") kinematically connected to the forecarriage frame by means of an articulated quadrilateral, - said articulated quadrilateral comprising a pair of cross members (24', 24"), hinged to the forecarriage frame in correspondence of middle hinges, - said cross members (24', 24") being connected together, in correspondence of opposite transverse ends (40, 44), by means of uprights (48', 48") pivoted to said transverse ends (40, 44) in correspondence of side hinges, - the cross members (24', 24") and the uprights (48', 48") defining said articulated quadrilateral, wherein - each of the uprights (48', 48") guides and supports a stub axle of a front wheel (10', 10"), each upright (48', 48") extending from an upper end to a lower end, - wherein each stub axle is mechanically connected to a rotation pin of the respective front wheel (10', 10") so as to rotatably support the front wheel (10', 10") around a rotation axis (R-R), and wherein each rotation pin of the respective front wheel (10', 10") is comprised between the upper end and the lower end of the corresponding upright (48', 48") of the articulated quadrilateral, wherein between each stub axle and the respective upright are arranged suspension means of the respective front wheel (10', 10"), characterised in that each of said uprights (48', 48") is hollow so as to house internally, at least partially, said suspension means of the respective front wheel (10', 10").
A base assembly for a grinding mill comprising: a first ring having a first mating surface; a support frame having a second mating surface, the support frame being movably coupled to the first ring, the first mating surface and the second mating surface being in sliding engagement with one another; a second ring removably coupled to the first ring, the second ring being operable to receive impact forces from grinding members which engage the second ring; the base assembly being operable to dampen vibrations resulting from the impact forces applied to the base assembly. a first ring having a first mating surface; a support frame having a second mating surface, the support frame being movably coupled to the first ring, the first mating surface and the second mating surface being in sliding engagement with one another; a second ring removably coupled to the first ring, the second ring being operable to receive impact forces from grinding members which engage the second ring; the base assembly being operable to dampen vibrations resulting from the impact forces applied to the base assembly.
A pharmaceutical composition including at least one tocotrienol, together with one or more pharmaceutically acceptable excipients for use in stabilizing and/or controlling blood glucose levels in an animal, wherein the composition is administered by transmucosal delivery.