Abstract: The invention provides methods for obtaining genetic material from plant embryos while preserving their viability as well as methods for performing a molecular analysis of plant embryos, particularly with small quantities of genetic material. The methods may include the steps of collecting shed cellular material from one or more embryos; obtaining DNA from the shed cellular material; performing a molecular analysis of the DNA; and germinating at least one of the one or more embryos. A further extension of this method includes determining whether to germinate and grow the embryo or to discard the embryo based on its genotype as part of a breeding process.

Abstract: Methods for obtaining genetic material from plant embryos while preserving their viability are provided. In the methods, preservation of viability may be maintained by suspending the embryos in an aqueous solution surrounded by an oil matrix. Genetic material may be obtained from an aliquot of the aqueous solution and may be used directly for molecular analysis, or whole genome amplification may be performed prior to molecular analysis.

Abstract: Methods for preserving viability of plant tissues such as plant embryos are provided herein. Also included are methods for storing genomic DNA and/or molecular marker assay materials in an oil bilayer as part of a high-throughput molecular characterization system. Moreover, plant embryos may be treated while in an oil matrix. The treatment may include chromosome doubling, Agrobacterium-mediated transformation, or herbicide selection as part of an embryo rescue process.

Abstract: Methods for obtaining genetic material from plant embryos while preserving their viability as well as methods for performing a molecular analysis of plant embryos, particularly with small quantities of genetic material by collecting shed cellular material from one or more plant embryos; obtaining DNA from the shed cellular material; performing a molecular analysis of the DNA; and germinating at least one of the one or more plant embryos. A further extension includes determining whether to germinate and grow the embryo or to discard the embryo based on its genotype as part of a breeding process. Also provided are methods of genotyping embryos using embryo shed cellular material contained in or on agar and methods of analyzing plant embryonic tissue derived from microspores.

Abstract: Methods for preserving viability of plant tissues such as plant embryos are provided herein. Also included are methods for storing genomic DNA and/or molecular marker assay materials in an oil bilayer as part of a high-throughput molecular characterization system. Moreover, plant embryos may be treated while in an oil matrix. The treatment may include chromosome doubling, Agrobacterium-mediated transformation, or herbicide selection as part of an embryo rescue process.

Abstract: Methods for obtaining genetic material from plant embryos while preserving their viability are provided. In the methods, preservation of viability may be maintained by suspending the embryos in an aqueous solution surrounded by an oil matrix. Genetic material may be obtained from an aliquot of the aqueous solution and may be used directly for molecular analysis, or whole genome amplification may be performed prior to molecular analysis.

Abstract: Methods for preserving viability of plant tissues such as plant embryos are provided herein. Also included are methods for storing genomic DNA and/or molecular marker assay materials in an oil bilayer as part of a high-throughput molecular characterization system. Moreover, plant embryos may be treated while in an oil matrix. The treatment may include chromosome doubling, Agrobacterium-mediated transformation, or herbicide selection as part of an embryo rescue process.

Abstract: Methods for preserving viability of plant tissues such as plant embryos are provided herein. Also included are methods for storing genomic DNA and/or molecular marker assay materials in an oil bilayer as part of a high-throughput molecular characterization system. Moreover, plant embryos may be treated while in an oil matrix. The treatment may include chromosome doubling, Agrobacterium-mediated transformation, or herbicide selection as part of an embryo rescue process.

Abstract: Methods for preserving viability of plant tissues such as plant embryos are provided herein. Also included are methods for storing genomic DNA and/or molecular marker assay materials in an oil bilayer as part of a high-throughput molecular characterization system. Moreover, plant embryos may be treated while in an oil matrix. The treatment may include chromosome doubling, Agrobacterium-mediated transformation, or herbicide selection as part of an embryo rescue process.

Abstract: The invention provides methods for obtaining genetic material from plant embryos while preserving their viability as well as methods for performing a molecular analysis of plant embryos, particularly with small quantities of genetic material. The methods may include the steps of collecting shed cellular material from one or more plant embryos; obtaining DNA from the shed cellular material; performing a molecular analysis of the DNA; and germinating at least one of said one or more plant embryos. A further extension of this method includes determining whether to germinate and grow the embryo or to discard the embryo based on its genotype as part of a breeding process. Also provided are methods of genotyping embryos using embryo shed cellular material contained in or on agar and methods of analyzing plant embryonic tissue derived from microspores.

Abstract: The invention provides methods for obtaining genetic material from plant embryos while preserving their viability as well as methods for performing a molecular analysis of plant embryos, particularly with small quantities of genetic material. The methods may include the steps of collecting shed cellular material from one or more plant embryos; obtaining DNA from the shed cellular material; performing a molecular analysis of the DNA; and germinating at least one of said one or more plant embryos. A further extension of this method includes determining whether to germinate and grow the embryo or to discard the embryo based on its genotype as part of a breeding process. Also provided are methods of genotyping embryos using embryo shed cellular material contained in or on agar and methods of analyzing plant embryonic tissue derived from microspores.

Abstract: The invention provides methods for obtaining genetic material from plant embryos while preserving their viability as well as methods for performing a molecular analysis of plant embryos, particularly with small quantities of genetic material. The methods may include the steps of collecting shed cellular material from one or more embryos; obtaining DNA from the shed cellular material; performing a molecular analysis of the DNA; and germinating at least one of said one or more embryos. A further extension of this method includes determining whether to germinate and grow the embryo or to discard the embryo based on its genotype as part of a breeding process.

Abstract: Methods for obtaining genetic material from plant embryos while preserving their viability are provided. In the methods, preservation of viability may be maintained by suspending the embryos in an aqueous solution surrounded by an oil matrix. Genetic material may be obtained from an aliquot of the aqueous solution and may be used directly for molecular analysis, or whole genome amplification may be performed prior to molecular analysis.

Abstract: In a convective system that includes a blower to thermally treat and pressurize air, a convective device to receive and convect the thermally-treated pressurized air, and an air hose to conduct a flow of thermally-treated pressurized air from the blower to an inlet port in the convective device, an interface device is provided to control the flow of air at the interface where the inlet port and an end of the air hose operate to conduct the flow of air out of the air hose into the convective device. The interface device is received at the end of the air hose and operates to support the flow of air out of the end when the end and the inlet port are brought together. The interface device operates to stop, inhibit, or restrict the flow of air out of the end when the end and the inlet port are separated.

Abstract: An apparatus for warming a person includes an inflatable cover having two inlet ports and a plug removably received in one of the ports. With the plug received in the one port, the cover can be inflated by way of the port without the plug.

Abstract: An electric heating blanket includes a flexible sheet-like heating element, a first unheated flap extending from a first edge of the heating element, and a second unheated flap extending from a second edge of the heating element. A flexible water-resistant shell may cover the heating element.

Abstract: An electric warming blanket includes a flexible heater that may be enclosed within a flexible shell, which is, preferably, water resistant and may extend beyond lateral edges of the heater to support stiffening members. A layer of non-conductive flexible porous material may be bonded to one or both sides of the heater. When the heater is enclosed in the shell, a layer of thermal insulation may be disposed between one side of the heater and the shell. A temperature sensor may be coupled to the heater at a location where the heater will be in conductive contact with a body when the blanket is draped thereover, and at least one super-over temperature sensor may also be coupled to the heater; the at least one super over-temperature sensor is adapted to interrupt a supply of power to the heater.

Abstract: A flexible heating subassembly, which may be incorporated in an electric warming blanket or any other type of flexible heater, includes a single heater, which is preferably formed from an electrically conductive polymeric fabric. The subassembly further includes first and second conductive bus bars, each extending alongside a respective first and second edge of the heater, each being coupled to the heater by at least one row of stitching that extends along the respective bus bar. The edges of the heater may be folded over respective bus bars for coupling and each of the bus bars may terminate just beyond opposing ends of the heater. A ribbon of conductive material may be interposed between each of the bus bars and the heater.

Abstract: A flexible heating subassembly, that may be incorporated in a heating blanket or any other type of flexible heater, includes a conductive fabric heater to which first and second conductive bus bars, each being disposed alongside a respective first and second lateral edge of the heater, are coupled, each with a respective first and second row of conductive stitching. A first electrically insulating member is interposed between the first bus bar and the heater and is secured therebetween by the first row of stitching, and a second electrically insulating member is interposed between the second bus bar and the heater and is secured therebetween by the second row of stitching. The first and second insulating members prevent direct electrical contact between respective first and second bus bars and the heater.

Abstract: A cover includes an enclosure for a heating blanket which is formed between an upper sheet bonded to a lower sheet of the cover. An opening for the enclosure is formed by a panel of the upper sheet which is separable from the lower sheet.