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A support for casks includes a base structure having (a) stanchions which can be disassembled or folded down, (b) complementary intermediate stanchions which can be disassembled or folded down, and (c) pivots or housings for forming mortised connections to the free ends of the stanchions or intermed

A support for casks includes a base structure having (a) stanchions which can be disassembled or folded down, (b) complementary intermediate stanchions which can be disassembled or folded down, and (c) pivots or housings for forming mortised connections to the free ends of the stanchions or intermediate stanchions of subjacent supports. The pivots or housings are out of alignment with respect to the stanchions and intermediate stanchions, such that the supports and casks supported thereon are arranged in staggered, parallel rows when stacked. The support can also include a plurality of freely rotating wheels such that the casks seated thereon can be rotated on their axes.

대표청구항 ▼

A support for casks includes a base structure having (a) stanchions which can be disassembled or folded down, (b) complementary intermediate stanchions which can be disassembled or folded down, and (c) pivots or housings for forming mortised connections to the free ends of the stanchions or intermed

A support for casks includes a base structure having (a) stanchions which can be disassembled or folded down, (b) complementary intermediate stanchions which can be disassembled or folded down, and (c) pivots or housings for forming mortised connections to the free ends of the stanchions or intermediate stanchions of subjacent supports. The pivots or housings are out of alignment with respect to the stanchions and intermediate stanchions, such that the supports and casks supported thereon are arranged in staggered, parallel rows when stacked. The support can also include a plurality of freely rotating wheels such that the casks seated thereon can be rotated on their axes. w Mexico (1996). Buekenhoudt et al., "Fouling Effects of CO2 on Inorganic Membrane Materials," Fifth International Conference on Inorganic Membrane., Ed. S.-I. Nakao (1998), pp. 486-489. Kusakabe et al., "Formation of a Y-Type Zeolite Membrane on a Porous Alpha-Alumina Tube for Gas Separation," Ind. Eng. Chem. Res., 36(3) (1997), pp. 649-655. Brinker et al., "Sol-Gel Transition in Simple Silicates," Journal of Non-Crystalline Solids, 48 (1982), pp. 47-64. Hietala et al., "Pore Structure Characterization of Thin Films Using a Surface Acoustic Wave/Volumetric Adsorption Technique," Langmuir, 9 (1993), pp. 249-251. Tsai et al., "Silica Gas Separation Membranes Prepared with Surfactant-Templated Sublayers," Proc Fifth Int. Conf. On Inorg. Memb., Ed. S.-I., Nakao (1998), pp. 180-183. Lu et al., "Continuous Formation of Supported Cubic and Hexagonal Mesoporous Films by Sol-Gel Dip-Coating," Nature, 389 (1997), pp. 364-368. R. Quinn, "A Repair Technique for Acid Gas Selective Polyelectrolyte Membranes," Journal of Membrane Science, 139 (1) (1998), pp. 97-102. White et al., "Properties of a Polyimide Gas Separation Membrane in Natural Gas Streams," Journal of Membrane Science, 103 (1-2) (1995), pp. 73-82. M.D. Thouless, "Decohesion of Films with Axisymmetries," Acta Metall, 36(12) (1988), pp. 3131-3135.