Mobil Oil Corporation

David C Calabro

James C Vartuli

Kirk D Schmitt

Jeffrey S Beck

Sharon B McCullen

Bruce P Pelrine

Lisa S Baugh

Pavel Kortunov

Michael Siskin

John L Hen

Bohumil V Kral

Pamela J Cook

Dennis G Peiffer

Preeti Kamakoti

Quanchang Li

There is provided a method for preparing crystalline ultra-large pore oxide materials. The materials are formed from reaction mixtures comprising an amphiphilic compound, such as a cetyltrimethylammonium compound, a source of at least one oxide, such as silica, and water. The concentration of amphiphilic compounds in these reaction mixtures is rather low. The addition of an inorganic salt, such as sodium bromide, to the reaction mixture may result in the increased thermal stability of the as-synthesized form of the crystalline material and may also alter the crystalline phase of the product.

Synthesis of crystalline ultra-large pore oxide materials

A method of preparing silicoaluminophosphate (SAPO) compositions from a forming mixture which comprises sources of oxides of silicon, aluminum and phosphorus wherein the oxides of silicon and phosphorus are provided at least in part by a reagent containing both phosphorus and silicon reactive sites in the same molecule; and maintaining the forming mixture under conditions sufficient to form said compositions. The reagent is preferably a phosphonate-functionalized organosiliconate such as diethylphosphatoethyltriethoxysilane.

Method of preparing silicoaluminophosphate compositions using a reagent

A method of preparing silicoaluminophosphate (SAPO) compositions from a forming mixture which comprises sources of oxides of silicon, aluminum and phosphorus and quaternary ammonium-functionalized organosiliconate directing agent wherein the oxides of silicon are provided at least in part by said directing agent, e.g., N-trimethoxysilylpropyl-N,N,N-trimethylammonium chloride.

A process is provided for separating at least one component from a mixture of components which comprises contacting the mixture with a composition comprising a functionalized inorganic, porous, non-layered crystalline phase having uniformly sized pores of at least about 13, e.g., at least about 15, Angstrom Units in diameter.

Sorption separation over modified synthetic mesoporous crystalline

A process is provided for effecting catalytic conversion of an organic compound-containing feedstock to conversion product which comprises contacting said feedstock under catalytic conversion conditions with a catalyst comprising an active form of a functionalized inorganic, porous, non-layered crystalline phase having uniformly sized pores of at least about 13, e.g., at least about 15, Angstrom Units in diameter.

Catalytic conversion over modified synthetic mesoporous crystalline

This invention relates to a method for preparing crystalline silicates such as zeolites from a forming mixture containing quaternary ammonium-functionalized organosiliconate as a directing agent. The products prepared depend, inter alia, on reaction conditions such as temperature, crystallization time, and pH. More particularly, this invention relates to the use of a quaternary ammonium-functionalized organosiliconate in the preparation of ZSM-5, ZSM-48, ZSM-51 and the ZSM-48 composition thus prepared.

Crystalline molecular sieve synthesis using quaternary

A method is described for modifying an ultra-large pore crystalline material by contacting with a treatment composition M'X'Y'.sub.n wherein M' is an element of Groups IIA, IVA, VA, VIA, VIIA, IB, IIB, IVB, VB or VIB; X' is halide, hydride, alkoxide of C.sub.1-6', or acetate; Y' is X or phosphine, sulfide, carbonyl or cyano; and N=1-5. The contacted crystalline material becomes functionalized. The functionalized material is also described and can be used as a sorbent or catalyst component.

Method for functionalizing synthetic mesoporous crystalline material

This invention relates to a method for synthesizing ultra-large pore crystalline material which can be used as a sorbent or catalyst component for conversion of organic and inorganic compounds. A dialkoxyaluminoxytrialkoxysilane is added to the reaction mixture as a metal oxide source.

Synthesis of mesoporous crystalline material using organometallic

There is disclosed a low density polymer having a broad molecular weight distribution, such that its melt flow ratio (MFR) is about 50 to about 250, and a substantially constant melt index-corrected density. The polymer, produced e.g., by blending a first polymer component of high molecular weight with a second polymer component of low molecular weight, with both polymer components having substantially the same melt index-corrected density, produces films having improved strength properties and low hexane extractables, as compared to films made from comparable individual polymer components. There is also disclosed a low density polymer, also having MFR of about 50 to about 250, having substantially no polymer chains having low molecular weight and short chain branches, which is prepared by blending a first polymer component of low density and high molecular weight with a second polymer component of relatively high density and relatively low molecular weight. The melt index-corrected densities of these two polymer components are dissimilar.

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Somerset, NJ, United States of America

David C Calabro