68results about How to "Material becomes quick" patented technology

A calibration method for a device for identifying materials using X-rays, including: a) determining at least one calibration material and, for each calibration material, at least one calibration thickness of this material, b) measuring, for each of the calibration materials and for each of the selected calibration thicknesses, attenuation or transmission coefficients for X radiation, c) calculating statistical parameters from the coefficients, d) determining or calculating, for each calibration material and for each calibration thickness, a presence probability distribution law, as a function of the statistical parameters.

The present invention provides for the automatic authoring, marketing, and/or distributing of title material. A computer automatically authors material. The material is automatically formatted into a desired format, resulting in a title material. The title material may also be automatically distributed to a recipient. Meta material, marketing material, and control material are automatically authored and if desired, distributed to a recipient. Further, the title material may be authored on demand, such that it may be in any desired language and with the latest version and content.

The invention relates to electronic device having an operation temperature range, wherein the electronic device comprises a tunable capacitor (CST) comprising a first electrode (BE), a second electrode (TE), and a dielectric (FEL) arranged between the first electrode (BE) and the second electrode (TE). The dielectric (FEL) comprises dielectric material (FEL) having a value of a relative dielectric constant (ε_r) varying at least within the operation temperature range. The electronic device further comprises a temperature varying means (RES) being thermally coupled to the tunable capacitor for providing a temperature of the dielectric (FEL) causing a predetermined capacitance of the tunable capacitor (CST). The invention, which relies on the idea of varying temperature to vary a capacitance of a capacitor stack, provides an alternative tunable capacitor type for the known types. Advantageous embodiments feature high-tuning ratio, small device area, and stable capacitance value in case the temperature is well controlled. The invention further relates to a semiconductor device comprising the electronic device in accordance with the invention, to an electronic circuit comprising such electronic device, and to a method of manufacturing such electronic device.

There is provided a lithium ion secondary battery that includes a positive electrode having high thermal stability and is capable of greatly reducing the possibility of causing thermal runaway even in a nail penetration test. A lithium ion secondary battery including a positive electrode including a lithium composite oxide and a porous film bonded to at least one of a surface of the positive electrode and a surface of a negative electrode, wherein the porous film includes an inorganic oxide filler and a film binder, and the lithium composite oxide is represented by the formula: Li_a(Co_1-x-yM_x¹M_y²)_bO₂ (wherein element M¹ is at least one selected from the group consisting of Mg, Sr, Y, Zr, Ca and Ti, element M² is at least one selected from the group consisting of Al, Ga, In and Tl, and 0<a≦1.05, 0.005≦x≦0.15, 0≦y≦0.05 and 0.85≦b≦1.1).

Provided is an apparatus that includes a scaffold with a gel or liquid composition deposed on at least a portion of a luminal surface, the gel or liquid composition adapted to include microbubbles. Also provided is a system that includes a source of reduced pressure, the above scaffold, a manifold adjacent the scaffold, and a conduit for providing fluid communication between the manifold and the source of reduced pressure. Additionally provided is a method that includes implanting the above scaffold at the tissue site and disrupting a substantial portion of the microbubbles to induce fluid flow to the scaffold. Further provided is an apparatus that includes a scaffold that comprises a slowly degradable material and a quickly degradable material. Additionally provided is a system for coupling nerve tissue and a microchip assembly.

A combination one or more species of lactobacillus bacteria and one or more types of fibrolytic enzymes can be used to replace animal protein in cattle feed. The combination results in a better amino acid balance in the digestive tract of cattle resulting in a better utilization of nitrogen. Less water-soluble nitrogen compounds pass through the digestive tract resulting in less pollution. More nitrogen in the feed is converted to water insoluble compounds resulting in better feed utilization and less water-soluble pollution in the manure. The diseases carried by some animal protein additives, such as “mad cow” are not present in the additives of the present invention.

The invention provides a cluster film formation system in which, in a cluster formation container 5, target 1 is irradiated with laser beams 2 to generate material vapor, which generates a shock wave 4 of an inert gas, and the shock wave 4 is reflected by a wall of the cluster formation container 5 to confine the material vapor having progressed in a particular region, and atoms or molecules of the material vapor and the inert gas collide with each other mutually to form groups of clusters, which are made to flow out through an outflow window 7, and sprayed deposited on a substrate 9 to form a cluster film 10. Corresponding to augmentation of energy strength of the laser beams 2, a cross section area of the laser beams 2 on the surface of the target is made large, thereby an increase in the amount of generation of the material vapor and efficient generation of the shock wave of the inert gas both are realized, and at the same time, the cluster formation container is enlarged so that the reflected wave of the shock wave meets conditions for confining the material vapor.

A structure including a substrate, an intermediate layer provided and formed directly onto the substrate, a transition region, and a group II-VI bulk crystal material provided and formed as an extension of the transition region. The transition region acts to change the structure from the underlying substrate to that of the bulk crystal. In a method of manufacture, a similar technique can be used for growing the transition region and the bulk crystal layer.

In place of a step of centrifugation during preparation of outer membrane vesicles (OMVs) from bacteria, the invention utilises ultrafiltration. This allows much larger amounts of OMV-containing supernatant to be processed in a much shorter time. Thus the invention provides a process for preparing bacterial OMVs, comprising a step of ultrafiltration. The ultrafiltration step is performed on an aqueous suspension of OMVs after they have been prepared from bacteria and the OMVs remain in suspension after the filtration step. The invention is particularly useful for preparing OMVs from Neisseria meningitidis.

An inflatable dental tray for creating a dental impression. The tray is inflated for retention of an impression material that solidifies after a dental structure has been impressed therein. The inflatable tray can be configured for various inflation methods and in various shapes to form full or partial impressions. In one aspect of the invention the tray is inflated with impression material that flows from apertures forming a buildup. In another embodiment, the inflatable tray has a rigid support. Various additional inventive aspects include an exterior filled inflated tray and fill tubes that provide for proper mixing of impression material.

A process for the recovery of bottom ash is characterised by shredding and physical separation phases. The bottom ash undergoes an oxidation treatment of the amphoteric metals contained therein. After the process, the treated bottom ash can be employed as mineral additive for concretes or hydraulic bonding agents.

A gelling agent, and a method of use for the same, for gelling a puncture repair material, the puncture repair material including a natural rubber latex, a resin emulsion, and an antifreezing agent, the gelling agent comprising a compound (α) of the following Formula (1). In the following Formula 1, R¹ is an alkyl group having from 13 to 30 carbon atoms or an alkenyl group having from 13 to 30 carbon atoms.

An atomizing nozzle (20) for use in a misting system and a process (200) for manufacturing the atomizing nozzle (20) are provided. The atomizing nozzle (20) is made up of a nozzle body (24), a metallic orifice insert (26), and a non-metallic impeller. The nozzle body (24) has an inlet end (30), has an outlet end (32), has an insert recess (36) proximate the outlet end (32), and encompasses a first chamber (42). The metallic orifice insert (26) is affixed to the nozzle body (24) within the insert recess (36) and encompasses a second chamber (66). The non-metallic impeller (28) is configured to reside within the first and second chambers (42,66) between the metallic orifice insert (26) and the nozzle inlet end (30).

A technique and device for rehabilitating or repairing waste water system components or the like, comprising a spray-applied, multi-layer liner which seals the components and imparts structural integrity. The liner comprises a primer layer, a first moisture barrier layer, a foam layer and a second moisture barrier layer. The first and second moisture barrier layers are preferably made of the same material and form a skin on both sides of the internal foam layer. The combination of the foam layer and the two moisture barrier layers imparts structural strength and rigidity to the cured liner.

The present disclosure provides a docking device for material bottles used for guiding material in a first material bottle to flow into a second material bottle. The docking device includes a sleeve with two ends thereof being respectively engageable with mouths of the first material bottle and the second material bottle and a protrusion configured in the sleeve for guiding the material in the first material bottle to flow into the second material bottle. With the sleeve, the two material bottles can be docked together, thus, the material in one material bottle can be poured into the other material bottle quickly. Meanwhile, the protrusion configured in the sleeve can guide the flowing material to avoid side leakage when the material flows from one material bottle into the other material bottle along the inner wall of the sleeve.

In a method for producing a three-dimensional mold and a three-dimensional shaped object (1) by means of layer-by-layer material application, geometry data for the shaped object (1), a support part (2) having a base surface (3) for holding the three-dimensional shaped object (1), and a first and a second material (4, 5) that can be solidified are made available. In the solidified state, the second material (5) has a greater strength than the solidified first material (4). The solidified first material (4) can dissolve in the solvent. To form a negative-shape layer (12), material portions of the flowable first material (4) are applied to the base surface (3) and/or to a solidified material layer of the three-dimensional shaped object (1) situated on this surface, in accordance with the geometry data, in such a manner that the negative-shape layer (12) has at least one cavity (13) that has a negative shape of a material layer of the shaped object (1) to be produced. The negative-shape layer (12) is solidified. To form a shaped-object layer (16), the cavity (13) is filled with the second material (5), and afterward the second material (5) is solidified. Regions of the solidified negative-shape layer (12) and/or shaped-object layer (16) that project beyond a plane arranged at a predetermined distance from the base surface (3) are removed by means of machining material removal. The steps mentioned above are repeated at least once. The negative-shape layers (12) are brought into contact with the solvent in such a manner that the solidified first material (4) dissolves in a solvent.

The invention relates to the application of photon energy to energize dental materials to enhance their physical handling characteristics, efficacy, ability to be delivered, reactivity, polymerization, and/or post-cure mechanical properties, among other attributes.

An ion implanted semiconductor surface is illuminated with a flood illumination of monochromatic radiation, and an image of the surface is taken using light which has been Raman scattered. The illumination and imaging system are calibrated by flood illuminating a uniformly Raman scattering surface.

The present invention refers to a plant (1) for printing a fibrous material (T). The printing plant (1) comprises: a station (14) for supplying a fibrous material configured for supplying the fibrous material along a predetermined operative path, a treating station (10) configured for treating the fibrous material with a treatment composition by applying the composition itself on a first side (T1) of the fibrous material (T); and a printing station (6) configured for ink-printing at least part of a second side (T2) of the fibrous material (T) opposite to the first side (T1). Moreover, the present invention refers to a process of printing a fibrous material.

A technique and device for rehabilitating or repairing waste water system components or the like, comprising a spray-applied, multi-layer liner which seals the components and imparts structural integrity. The liner comprises a primer layer, a first moisture barrier layer, a foam layer and a second moisture barrier layer. The first and second moisture barrier layers are preferably made of the same material and form a skin on both sides of the internal foam layer. The combination of the foam layer and the two moisture barrier layers imparts structural strength and rigidity to the cured liner.

A method and apparatus for generating nano particles, including but not limited to nano particles of Ceo, at high concentration. The invention uses a solid aerosol disperser in communication with a furnace tube having a vaporization chamber and a dilution chamber. A heating element surrounds the furnace tube. Heat from the heating element heats bulk materials contained within a gas flow in the vaporization chamber to a temperature sufficient to convert the bulk materials to a vapor phase. Vaporized bulk materials are then moved to a dilution chamber, where an inert gas is introduced through a dilution gas port. The flow of the inert gas into the dilution chamber through the dilution gas port is sufficient to eject the bulk material from the exit of the dilution chamber, thereby condensing the bulk material into nano sized particles in a gas flow of sufficient volume to prevent agglomeration of the nano sized particles.

The present invention refers to a plant (1) for printing, particularly for digitally printing, a sheet fibrous material (T), said printing plant (1) comprising: a conveyor belt (2) configured for receiving the sheet fibrous material (T) and guiding it in the movement along an advancement direction (A); a printing station (6) adapted to ink-print at least part of a second side (T2) of the sheet fibrous material (T); one preparing station (4) configured for modifying the surface hydrophobicity of at least part of the sheet fibrous material (T). The preparing station (4) comprises at least a plasma treating device (11) configured for define a treatment environment where at least a portion of the fibrous material is received and wherein ionized gas is present. The plant (1) comprises a control unit (9) actives on the conveyor belt (2) and on the plasma treating device (11); the control unit (9) being configured for: commanding the movement of the conveyor belt (2), controlling at least an operative parameter of the plasma treating device (11) as function of the movement of the conveyor belt (2). The present invention further refers to a process of printing of sheet fibrous material.

Damping material is installed on a structure by moving a material placement head over the structure, and using the head to place the material on the structure.

The present invention refers to a plant (1) for printing, particularly for digitally printing, a sheet fibrous material (T), said printing plant (1) comprising: a conveyor belt (2) configured for temporarily receiving in contact a first side (T1) of the sheet fibrous material (T) and—during a predetermined operative condition—for continuously moving said sheet fibrous material (T) at a speed constantly greater than 0 along an advancement direction (A); one preparing station (4) configured for placing on the sheet fibrous material (T) a treatment composition (M) comprising at least one of: a treatment liquid and a treatment foam; a printing station (6) adapted to ink-print at least part of a second side (T2), opposite to the first side (T1), of the sheet fibrous material (T). The printing station (6) comprises a printing module (7) which, during said predetermined operative condition, is configured for: defining a print on all a width of the sheet fibrous material (T), staying in a fixed position and printing the second side (T2) of the sheet fibrous material (T) sliding on the conveyor belt. The present invention also refers to a process of printing of sheet fibrous material.