Stormedia Texas, LLC

Lam & Sons, LLC

Other

Akashic Memories Corp.

United Module Corporation, Inc.

United Modular Corporation

United Mobile Corporation

Akshic Memories Corporation

Eric K Li

Manfred Weiler

Vijayen S Veerasamy

George T C Li

Veerasamy Vijayen

Hudson A Washburn

John C Scott

Robert J Kobliska

Nal T Viswanathan

A double walled domed electric roasting oven and method of use is described. The double walled domed electric roasting oven includes a double walled dome lid, a base pan, a temperature controlling component and a heating element. The double walled dome lid is formed by coupling a domed inner wall and a domed outer wall with a fastener. The double walled dome lid has a dome lid height. The base pan interfaces with a bottom of the double walled dome lid. The base pan has a base pan height. The dome lid height is at least 2.5 times greater than the base pan height. The temperature controlling component is disposed on an exterior outer wall of the double walled dome lid. The temperature controlling component includes a heating element that is electrically coupled to the temperature controlling component. The heating element is radially disposed about the exterior inner wall surface of the domed inner wall and positioned within the domed outer wall.

Double walled domed electric roasting oven

A portable electric grill and method of use are described. The grill includes a double walled dome lid, a basin having a cavity, a grill that interfaces with the basin, a first heating element, a second heating element, a temperature controlling component, and a support that interfaces with a surface. The double walled dome lid includes a dome lid inner wall and a dome lid outer wall. The dome lid inner wall and the dome lid outer wall are joined at a base of the double walled dome lid. The basin interfaces with the base of the double walled dome lid, and the basin includes a hinge coupling the basin and the double walled dome lid. The first heating element is radially disposed about an exterior surface of the dome lid inner wall and within the dome lid outer wall. The second heating element is disposed within the basin cavity.

Portable electric grill having a domed lid and method of use

Domed roasting oven

An invertible roasting oven, cooking apparatus, and method of cooking with a cooking apparatus are described. In various embodiments, the invertible roasting oven may include a double walled dome lid having an inner wall and an outer wall, a heating element that is disposed within the double walled dome lid between the inner wall and the outer wall, and a shallow pan that interfaces with the double walled dome lid. The shallow pan may be configured to function as a base to the double walled dome lid in a first mode of operation and as a cover to the double walled dome lid in a second mode of operation. The invertible roasting oven may further include a cradle that receives the double walled dome lid when the cooking apparatus is operating in the second mode of operation.

Invertible electric roasting oven and method of use

The invention provides systems and methods for the deposition of an improved diamond-like carbon material, particularly for the production of magnetic recording media. The diamond-like carbon material of the present invention is highly tetrahedral, that is, it features a large number of the spcarbon-carbon bonds which are found within a diamond crystal lattice. The material is also amorphous, providing a combination of short-range order with long-range disorder, and can be deposited as films which are ultrasmooth and continuous at thicknesses substantially lower than known amorphous carbon coating materials. The carbon protective coatings of the present invention will often be hydrogenated. In a preferred method for depositing of these materials, capacitive coupling forms a highly uniform, selectively energized stream of ions from a dense, inductively ionized plasma. Such inductive ionization is enhanced by a relatively slow moving (or 'quasi-static') magnetic field, which promotes resonant ionization and ion beam homogenization.

Systems and methods for the production of highly tetrahedral amorphous carbon coatings

Highly tetrahedral amorphous carbon coatings and systems and methods for their production

Recording media having protective overcoats of highly tetrahedral amorphous carbon and methods for their production

The invention provides systems and methods for the deposition of an improved diamond-like carbon material, particularly for the production of magnetic recording media. The diamond-like carbon material of the present invention is highly tetrahedral, that is, it features a large number of the sp carbon&mdash;carbon bonds which are found within a diamond crystal lattice. The material is also amorphous, providing a combination of short-range order with long-range disorder, and can be deposited as films which are ultrasmooth and continuous at thicknesses substantially lower than known amorphous carbon coating materials. The carbon protective coatings of the present invention will often be hydrogenated. In a preferred method for depositing of these materials, capacitive coupling forms a highly uniform, selectively energized stream of ions from a dense, inductively ionized plasma. Such inductive ionization is enhanced by a relatively slow moving (or &ldquo;quasi-static&rdquo;) magnetic field, which promotes resonant ionization and ion beam homogenization.

The invention provides systems and methods for the deposition of an improved diamond-like carbon material, particularly for the production of magnetic recording media. The diamond-like carbon material of the present invention is highly tetrahedral, that is, it features a large number of the sp carbon-carbon bonds which are found within a diamond crystal lattice. The material is also amorphous, providing a combination of short-range order with long-range disorder, and can be deposited as films which are ultrasmooth and continuous at thicknesses substantially lower than known amorphous carbon coating materials. The carbon protective coatings of the present invention will often be hydrogenated. In a preferred method for depositing of these materials, capacitive coupling forms a highly uniform, selectively energized stream of ions from a dense, inductively ionized plasma. Such inductive ionization is enhanced by a relatively slow moving (or &ldquo;quasi-static&rdquo;) magnetic field, which promotes resonant ionization and ion beam homogenization.

Method of producing recording media having protective overcoats of highly tetrahedral amorphous carbon

The invention provides systems and methods for the deposition of an improved diamond-like carbon material, particularly for the production of magnetic recording media. The diamond-like carbon material of the present invention is highly tetrahedral, that is, it features a large number of the sp.sup.3 carbon--carbon bonds which are found within a diamond crystal lattice. The material is also amorphous, providing a combination of short-range order with long-range disorder, and can be deposited as films which are ultrasmooth and continuous at thicknesses substantially lower than known amorphous carbon coating materials. The carbon protective coatings of the present invention will often be hydrogenated. In a preferred method for depositing of these materials, capacitive coupling forms a highly uniform, selectively energized stream of ions from a dense, inductively ionized plasma. Such inductive ionization is enhanced by a relatively slow moving (or 'quasi-static') magnetic field, which promotes resonant ionization and ion beam homogenization.

Method for producing recording media having protective overcoats of

A new high quality, low cost, thin-film magnetic recording member is provided, which has a coercive field strength greater than 650 Oe, a saturation magnetization greater than 10,000 Gauss, and a squareness ratio of 0.9 or larger. The member includes a substrate on which is directly sputter deposited a chromium layer, without the use of an intervening nickel-containing layer between the substrate and the chromium. A nickel-cobalt recording layer is then sputter deposited directly onto the chromium layer. In the preferred mode, the start of that nickel-cobalt deposition begins less than 100 seconds after the chromium deposition is terminated and is followed by the sputtering of a protective layer. Before the chromium deposition, the substrate is preheatead to drive off adsorbed gases, and to establish the proper conditions for the chromium deposition. The substrate is also heated during the time between when the chromium deposition ends and the nickel-cobalt deposition begins.

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Palo Alto, CA, United States of America

Eric K Li