Abstract: A 3-D printing system includes a membrane configured to releasably retain a print sample thereon, a membrane release slidably supported on a portion of the membrane, and a vacuum source. The membrane release includes a housing defining a cavity within an interior portion thereof, a first roller rotatably supported within a portion of the cavity of the housing and rotatably disposed on a first portion of the membrane, and a second roller rotatably supported within a portion of the cavity of the housing in spaced relation from the first roller and forming a gap therebetween. The second roller is rotatably disposed on a second portion of the membrane and the vacuum source is in fluid communication with the cavity of the housing such that the application of a vacuum to the cavity effectuates a corresponding deformation of the membrane between the first and second rollers.

Abstract: According to the present invention, a piezoelectric film having a single crystal structure is able to be formed, from various piezoelectric materials, on a film structure of the present invention. A film structure according to the present invention includes: a substrate; a buffer film which is formed on the substrate and has a tetragonal crystal structure containing zirconia; a metal film containing a platinum group element, which is formed on the buffer film by means of epitaxial growth; and a film containing Sr(Ti1?x, Rux)O3 (wherein 0?x?1), which is formed on the metal film by means of epitaxial growth.

Abstract: A microwave heating system configured for heating a plurality of articles is provided. One or more of the microwave launchers can be offset slightly, such that the microwave energy introduced into the heating chamber is discharged at a launch tilt angle of at least 2°. Additionally, each launcher can include a microwave-transparent window disposed between the microwave chamber and the one or more launch openings and at least 50 percent of the chamber-side surface of the window can be oriented at an angle of at least 2° from the horizontal.

Abstract: A workflow system includes a workflow database. The workflow database may convert proposals or bids into a workflow process. The workflow process may involve one or more tasks which are performed by resources. The workflow database may have access to systems, or provide a system to interface with resources, contractors, vendors, billing departments, and generate reports of workflow process.

Abstract: An apparatus for removing paint from a metallic component. The apparatus includes an electrolytic cell in which the metallic component is an anode, and a DC power supply capable of producing a plasma causing the paint from the metallic component to disintegrate. A method of depainting a metallic component includes providing an electrolytic cell with the metallic component to be depainted acting as an anode. A DC power supply connected to the cathode and anode is activated to produce a plasma causing the paint from the metallic component to disintegrate. Another method of method of depainting a metallic component includes providing an aqueous solution of sodium hydrogen carbonate, sodium citrate, and potassium oxalate as an electrolyte, a cathode and a pained metallic component as an anode. A DC power supply connected to the cathode and anode produces a plasma causing the paint from the painted metallic component to disintegrate.

Abstract: A plasma CVD apparatus efficiently coats the surfaces of fine particles with a thin film or super-fine particles by concentrating a plasma near the fine particles. The plasma CVD apparatus includes a chamber, a container disposed in the chamber for housing the fine particles, the container having a polygonal inner shape in a cross section substantially perpendicular to a longitudinal axis of the container, a ground shielding member for shielding a surface of the container other than a housing face, a rotation mechanism for causing the container to rotate or act as a pendulum on an axis of rotation substantially perpendicular to the cross section, an opposed electrode disposed in the container so as to face the housing face, a plasma power source electrically connected to the container, a gas introducing mechanism for introducing a raw gas into the container, and an evacuation mechanism for evacuating the chamber.

Abstract: The present invention provides an apparatus for rapid ellipsometry. The apparatus contains a light source, a polarizer, a sample stage, an integrated polarization analyzer, and a detector assembly. The light emitted by light source is polarized by the polarizer and shines on the sample mounted on sample stage. The light is reflected from the sample surface and passes through the integrated polarization analyzer. The analyzer contains multiple polarizers with different polarization angles from 0 to 180 degrees for transmitting light from the sample. The detector assembly includes multiple detectors corresponding one-to-one with the multiple polarizers, for independently determining the light intensity transmitted by each polarizer. The current invention provides a rapid ellipsometry apparatus that is highly efficient, with the fastest acquisition time down to nanosecond scale for obtaining dynamic parameters of the sample.

Abstract: A material transport property measurement system includes an ellipsometry system, a heat capacity measurement system, and a controller. The ellipsometry system has a light source to generate a light which passes through a polarizer and shines on a sample. The sample reflects the light to an integrated polarization analyzer, which includes multiple polarizers with different polarization angles distributed from 0 to 180 degrees. A detector assembly includes multiple detectors corresponding to the multiple polarizers to detect light passing through the respective polarizers and generate multiple first electrical signals. The heat capacity measurement system measures a temperature parameter of the sample using a non-contact method, and outputs a second electrical signal. The controller analyzes the second and the multiple first electrical signals to obtain the transport properties of the material. A material transport property measurement method is also provided.

Abstract: A method for manufacturing a crystal film including: forming a Zr film on a substrate heated to 700° C. or more by a vapor deposition method using a vapor deposition material having a Zr single crystal; forming a ZrO2 film on said Zr film on a substrate heated to 700° C. or more, by a vapor deposition method using said vapor deposition material having a Zr single crystal, and oxygen; and forming a Y2O3 film on said ZrO2 film on a substrate heated to 700° C. or more, by a vapor deposition method using a vapor deposition material having Y, and oxygen.

Abstract: A method for controlling a microwave heating system is provided. The method may be used with a system having a liquid-filled microwave heating chamber and includes measuring the value of one or more microwave system parameters. Suitable parameters can include, for example, net microwave power discharged, the temperature of the liquid in the microwave chamber, the flow rate of liquid through the microwave chamber, and the speed of the conveyance system disposed within the microwave chamber. The measured value of the selected parameter is then compared to a target value for that parameter in order to determine a difference. Based on the difference, one or more actions can be taken in order to start, stop, or alter the operation of the microwave heating system.

Abstract: A microwave heating system configured to heat a plurality of articles is provided. The microwave heating system includes a microwave splitter, a pair of microwave launchers, and at least one inductive iris disposed between the splitter and the launch opening of one of the launchers. A microwave launcher suitable for use in such a heating system is also provided. The launcher includes an inductive iris disposed within the interior of the launcher, spaced between its inlet and outlet and obstructing at least a portion of the microwave pathway.

Abstract: A microwave heating system configured for heating a plurality of articles is provided. One or more of the microwave launchers can be offset slightly, such that the microwave energy introduced into the heating chamber is discharged at a launch tilt angle of at least 2°. Additionally, each launcher can include a microwave-transparent window disposed between the microwave chamber and the one or more launch openings and at least 50 percent of the chamber-side surface of the window can be oriented at an angle of at least 2° from the horizontal.

Abstract: A microwave heating system configured to heat a plurality of articles is provided. The microwave heating system can include one or more microwave launchers that define at least one launch opening having a depth of not more than about 0.625?, wherein ? is the predominant wavelength of the microwave energy passing through the launcher. Additionally, in some embodiments, the launch opening may have a width or depth that is less than the corresponding inlet dimension, such that the microwave launcher has a generally tapered profile. When the microwave launcher includes a single inlet and two or more launch openings, the center points of adjacent outlets may be laterally spaced from one another relative to the direction in which the articles are passed through the heating chamber.

Abstract: A microwave system for heating a plurality of articles and a method of using the same is provided. The microwave heating system comprises at least three microwave launchers and at least three microwave allocation devices for dividing the microwave energy into at least three separate portions. Each allocation device is configured to divide the microwave energy passing therethrough according to a predetermined ratio, and at least one of the allocation devices is configured to divide the microwave energy according to a predetermined ratio that is not 1:1. The resulting energy portions can then be discharged into the microwave heating chamber via the launchers and used to heat a plurality of articles, including foodstuffs, medical fluids, or medical instruments, disposed within the heating chamber.

Abstract: A microwave heating system configured to heat a plurality of articles is provided. The microwave heating system includes a thermalization zone for adjusting the temperature of the articles disposed therein to be substantially uniform and a microwave heating zone for heating the thermalized articles. At least one of the thermalization zone and microwave heating zone are liquid-filled and may include a plurality of fluid agitators for discharging jets of liquid medium toward the articles at multiple locations within the chamber.

Abstract: A microwave heating system for continuously heating a plurality of articles and process for using the same are provided. The microwave system includes a thermalization zone for thermalizing the articles to a substantially uniform temperature, a microwave heating zone for increasing the temperature of the articles by at least about 50° C., and a quench zone for cooling the articles after heating. The heating can be carried out at a rate of at least 25° C. per minute. The system also includes at least one conveyance system for transporting the articles through each of the thermalization, microwave heating, and quench zones. The system can be commercial-sized and may have an overall production rate of at least 20 packages per minute per convey line.

Abstract: A method for heating a plurality of articles according to a prescribed heating profile is provided. The method includes heating a first test article in a small-scale microwave heating system and, based on the value of one or more parameters determined during this small-scale heating, determining a prescribed heating profile for the test article. Suitable parameters can include for example, net power discharged, sequential microwave distribution, average temperature and flow rate of the fluid in the heating chamber, and residence time. The heating profile can then be used to control a commercial-scale microwave heating system used to heat a plurality of similar articles.

Abstract: A microwave heating system configured to heat a plurality of articles and a process for using the same are provided. The microwave heating system includes a liquid-filled thermalization zone, a liquid-filled microwave heating zone, and a pressure lock system disposed therebetween. The pressure lock system includes a pair of locking gate valves and a pressure adjustment chamber configured to transition the articles being heated from the thermalization zone to the microwave heating zone, which may be operated at different pressures.

Abstract: A method and system for heating a plurality of articles is provided. The method includes discharging microwave energy into a microwave chamber and passing a plurality of articles through the heating zone. At least a portion of the microwave energy discharged into the heating zone may first be phase shifted using one or more phase shifting devices. One embodiment of a rotatable phase shifting device is also provided and includes an elongated fixed member disposed proximate a rotatable housing. The phase shifting device employed by the microwave heating system is configured such that the ratio of the article residence time in the heating zone to the phase shifting rate is at least about 4:1. Rotatable phase shifting devices, or variable phase short circuits, as described herein can also be used in other applications, such as, for example, as impedance or frequency tuning devices.