Abstract:
Microwave interactive coating compositions are disclosed which comprise finely divided carbon, a powdered inert solid and a binder. A preferred composition comprises finely divided carbon, finely divided microwave reactive metal, powdered inert material and a dielectric binder, preferably an acrylic latex. These compositions are capable of producing microwave reactive heaters comparable to those produced by vapor deposition of metals on a carrier film.
Abstract:
A microwave energy interactive structure includes a first susceptor film including a first layer of microwave energy interactive material supported on a first polymer film, a moisture-containing layer joined to the first layer of microwave energy interactive material, an adjoining layer joined to the moisture-containing layer such that the moisture-containing layer is disposed between the susceptor film and the adjoining layer, and a second layer of microwave energy interactive material on a side of the adjoining layer opposite the moisture-containing layer. The adjoining layer may be joined to the moisture-containing layer by a discontinuous adhesive layer.
Abstract:
A microwave heating construct includes a platform having a plurality of peripheral edges, a plurality of elevating panels for maintaining the platform in a raised position, and a layer of microwave energy interactive material overlying at least a portion of the platform. The platform includes a movable portion defined at least partially by a line of disruption extending substantially between a pair of adjacent edges of the platform. The movable portion of the platform is adapted to pivot along the line of disruption.
Abstract:
A microwave energy interactive structure includes a layer of indium tin oxide, which may be supported on a microwave energy transparent substrate. In one embodiment, the microwave energy interactive structure may have at least one of an oxygen transmission rate of less than about 0.05 cc/m2/day and a water vapor transmission rate of less than about 0.09 g/m2/day.
Abstract translation:微波能量交互结构包括可以支撑在微波能量透明基板上的氧化铟锡层。 在一个实施方案中,微波能量交互结构可以具有小于约0.05cc / m 2 /天的氧气透过率和小于约0.09g / m 2 /天的水蒸气透过率中的至少一种。
Abstract:
A microwave energy interactive structure includes a first susceptor film including a first layer of microwave energy interactive material supported on a first polymer film, a moisture-containing layer joined to the first layer of microwave energy interactive material, an adjoining layer joined to the moisture-containing layer such that the moisture-containing layer is disposed between the susceptor film and the adjoining layer, and a second layer of microwave energy interactive material on a side of the adjoining layer opposite the moisture-containing layer. The adjoining layer may be joined to the moisture-containing layer by a discontinuous adhesive layer.
Abstract:
A package configured to receive a food item for storage and heating therein is disclosed. The package includes an opening and a closure mechanism and comprises an insulating microwave material. A plurality of packages in a stacked relation also is provided.
Abstract:
A tray or container which may be hermetically sealed having a flange, rim, handle, rib, bottom surface, sidewall, or other portion that is encapsulated by or formed from injection molded material
Abstract:
The heating effect of a microwave susceptor can be improved by providing a pattern of microwave transparent areas in the susceptor. The transparent areas are preferably circles having a diameter of about 0.5 inch. The distance between adjacent circles is preferably about 0.5 inch. The susceptor may be used to brown and crispen the crust of frozen pizza heated in a microwave oven. The crust of the pizza is browner, especially at its central area, than the crust of pizza heated using a conventional susceptor.