2003Angewandte Chemie International EditionRequires access

Aluminoborate‐Based Molecular Sieves with 18‐Octahedral‐Atom Tunnels

Jing Ju, Jianhua Lin, Guobao Li, Tao Yang, Hongmei Li, Fuhui Liao, Chun‐K. Loong, Liping You

Open publisher page 121 citations

Abstract

A framework of AlO6 octahedra is present in the microporous aluminoborate HAl3B6O12(OH)4 (PKU-1; see picture), which was synthesized from AlCl3 in a boric acid flux. The octahedra share two or three edges with neighboring octahedra to form a framework with 18-ring tunnels along [001] and 10-ring tunnels along {100}. The borate groups share vertices with the octahedra, compensating the negative charge of the octahedral framework and almost completely blocking the 10-ring channels.

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What this paper is about

A framework of AlO6 octahedra is present in the microporous aluminoborate HAl3B6O12(OH)4 (PKU-1; see picture), which was synthesized from AlCl3 in a boric acid flux. The octahedra share two or three edges with neighboring octahedra to form a framework with 18-ring tunnels along [001] and 10-ring tunnels along {100}. The borate groups share vertices with the octahedra, compensating the negative charge of the octahedral framework and almost completely blocking the 10-ring channels.

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Available abstract

A framework of AlO6 octahedra is present in the microporous aluminoborate HAl3B6O12(OH)4 (PKU-1; see picture), which was synthesized from AlCl3 in a boric acid flux. The octahedra share two or three edges with neighboring octahedra to form a framework with 18-ring tunnels along [001] and 10-ring tunnels along {100}. The borate groups share vertices with the octahedra, compensating the negative charge of the octahedral framework and almost completely blocking the 10-ring channels.

Key concepts: Octahedron, Microporous material, Ring (chemistry), Crystallography, Atom (system on chip), Molecular sieve, Chemistry, Materials science

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