MICROPOROUS CRYSTALLINE COMPOSITE COMPOSITIONS AND PROCESSES FOR MAKING THEM

Abstract: The invention involves composite structures of multiple phases, at least two of which are inorganic crystalline compositions that are contiguous and have a common crystal framework and structure, and at least one of them contains phosphorus and aluminum atoms as part of its crystalline framework structure; and to processes for making the same. It is desired that each phase has a microporous molecular sieve structure. The process involves the growth of a crystalline structure constituting such a phase in the presence of crystals of another of such a phase. Preferably, the process involves a hydrothermal crystallization treatment of the precursors to such phase.

Description: The invention relates to multi-compositional, multiphase composites and to heterogenous mixtures comprising a multiphase, multi-compositional composite. Prior Art : There is a phenomenon in heterogeneous catalysis characterized as tortuous diffusion. It involves the passage of gaseous or liquid reactant and reaction product(s) in the porous network of a solid heterogenous catalyst. Tortuous diffusion contemplates contact of the gaseous or liquid reactant and reaction product(s) with the catalytic agent in the porous network of the catalyst for a period longer than the prescribed residence time of the reactants and reaction product(s) in a bed of the catalyst. The length of contact time of the reactants and the reaction product(s) within the catalyst is dependent on the complexity of the porosity and the size of the pores. Catalysts with high surface areas provide a substantial porosity and the reactants or reaction product(s) have a relatively lengthy stay within the catalyst, longer than the calculated residence time. If the reactants and/or the reaction products are capable of generating undesirable products with such passage of time, then a considerable drop in the efficiency of the reaction will occur. One way to avoid the adverse effects of tortuous diffusion is to create a catalyst with low surface area, that is, a solid catalyst which has relatively few pores and a significant number of them are large. However, this cannot be effectively done with all catalysts. Some cannot be effective or exist as a low surface area structure. There is described herein a novel catalyst structure which provides a basis for controlling the tortuous diffusion factor with a special class of non-zeolitic molecular sieve catalysts which have immutable crystalline microporous structures. New families of crystalline microporous molecular sieve oxides have been recently patented or filed on (by the filing of patent applications), see Table A below, that are based on the presence of aluminum and phosphorus in the framework of the crystal structures. These molecular sieves are actually not zeolites because they are not aluminosilicates and many possess novel crystal structures relative to the known zeolites while others possess framework structures comparable in topology to certain zeolites. For convenience, they are herein characterized as members of the family of "non-zeolitic molecular sieves" which family is generically referred to by the acronym "NZMS". A list of the patents and patent applications covering certain of the NZMSs, and a description of their subject matter, is set out in Table A below. The manufacturing procedures of these new families are employed in the practice of this invention. Because of the importance of this new family of NZMSs to this invention, it is appropriate to quote from Flanigen et al , in a paper entitled, "Aluminophosphate Molecular Sieves and the Periodic Table", published in the "New Developments in Zeolite Science and Technology" Proceedings of the 7th International Zeolite Conference, edited by Y. Murakami, A. Iijima and J.W. Ward, pages 103-112 (1986), in respect to the nomenclature of those materials: "The materials are classified into binary (2), ternary (3), quaternary (4), quinary (5), and senary (6) compositions based on the number of elements contained in the catonic framework sites of any given structure. A normalized TO₂ formula represents the relative concentration of framework elements in the composition, (EL x Al y P z )O₂, where El is the incorporated element and x, y and z are the mole fractions of the respective elements in the composition. Acronyms describing the framework composition are shown in Table 1, e.g., SAPO = ( S i, A l, P ) O ₂ composition. The structure type is indicated by an integer following the compositional acronym, e.g., SAPO-5 is a (Si, Al, P)O₂ composition with the type 5 structure. The numbering of the structure type is arbitrary and bears no relationship to structural numbers used previously in the literature, e.g. ZSM-5, and only identifies structures found in the aluminophosphate-based molecular sieves. The same structure number is used for a common structure type with varying framework composition." That nomenclature will be followed in characterizing how a particular phase of the composites of this invention are made. For example, if a phase is made by the procedure for making SAPO-37, then the phase will be characterized as a SAPO-37; if a phase is made by the procedure for making SAPO-31, then the phase will be characterized as a SAPO-31; and so on. It is recognized in the art that the relative acidity of zeolitic molecular sieves can be characterized by their performance in dilute (2 mole %) n-butane cracking, see Rastelli et al., The Canadian Journal of Chemical Engineering, 60 , pages 44-49, February 1982. This is true for the NZMS class of molecular sieves. Lok et al., Journal of the American Chemical Society, 1984, 106 , 6092-6093. Where reference is made herein and in the claims to the acidity of a molecular sieve, that acidity characterization is in reference to the material's k A as determined by its dilute n-butane cracking performance as described by Rastelli et al., supra . In broader terms, acidity means activity in acid catalyzed catalytic reactions generally. The molecular sieves described in Table A and in the Flanigen et al. article, supra , provide unique catalytic and adsorbent capabilities not as such found in other molecular sieves, particularly the zeolitic molecular sieves. They have a broad range of activity. In most instances, they possess very desirable and superior stability in respect to thermal and hydrothermal properties. U.S. Patent No. 4,440,871, one of the patents referred to in Table A, infra , at col. 8, lines 10-16 states the following: "While not essential to the synthesis of SAPO compositions, it has been found that in general stirring or other moderate agitation of the reaction mixture and/or seeding the reaction mixture with seed crystals of either the SAPO species to be produced or a topologically similar aluminophosphate or aluminosilicate composition, facilitates the crystallization procedure." Comparable language may be found in many of the other patents and patent applications cited in Table A below, see the notations in this regard in Table A. Specific references are made to examples in the patents and patent applications cited in Table A where seeding was specifically employed. Many of the patents and patent applications of Table A discuss and disclose the use of aluminum and phosphorus containing molecular sieves as a source of aluminum and/or phosphorus in the manufacture of the molecular sieves. None of the patents and patent applications of Table A mention the formation of composites or the formation of multi-compositional, multiphase compositions where the phases are distinct and compositionally heterogeneous as to each other. U.S. Patent No. 4,427,577, patented Jan. 24, 1984 and U.S. Patent No. 4,482,774, patented November 13, 1984, describe a "catalyst composition" of a "crystalline modified-silica" overlaying a "silica core having substantially the same crystalline structure as the modified-silica" and "hydrocarbon conversion" processes using the catalyst. The silica core may be a silica polymorph that has only few acid sites, thus "Little catalytic activity" as contrasted with the overlaying modified-silica. The modified-silica...is a zeolite" and contains the modifying elements Al, B, Ga, Cr, Fe, V, Ti, Be, As, or a combination of them. The preferred modified silica zeolites are the aluminosilicates, borosilicates or gallosilicates. The total structures of the examples exhibited the crystal structure of the core material, and the X-ray diffraction patterns were characteristic of ZSM-5 lines. No analysis is shown in the patent which shows that the composition of the composite was heterogeneous. The patentee notes that "the resultant composite zeolite catalyst has been found to display advantages in acid-catalysed hydrocarbon conversions when compared to the modified-silica zeolite alone or to the silica alone." U.S. Patents 4,394,251 and 4,394,362 appear to be directed to the same technology. U.S. Patent No. 4,427,577 depicts that manufacture only of a composite having the X-ray diffraction pattern of one crystal structure, to wit, ZSM-5, suggesting the limited applicability of the process and the range of compositions of the patent. Such inferred limitation is also based on the limited available silica polymorphs known to the art which would or could be suitable for the core. Thus, composite formation as practiced by that patent is a relatively narrow technology that fails to be predictive of a technology of greater scope. U.S. Patent No. 3,368,981, patented Feb. 13, 1968, depicts the deposition of crystalline aluminosilicate on an amorphous support. U.S. Patent No. 3,468,815, patented Sept. 23, 1969, forms a crystalline aluminosilicate in the presence of an alumina, and the combination is provided on a support. U.S. Patent No. 3,523,092, patented Aug. 4, 1970, relates to the deposition of a crystalline aluminosilicate onto an inert support material. The latter materials are typically amorphous structures. U.S. Patent No. 3,810,845, patented May 14, 1974, relates to supported zeolite catalysts made, e.g., by depositing an aluminosilicate onto a deactivated cracking catalyst. U. S. Patents Nos. 4,203,869, patented May 20, 1980, and 4,088,605, patented May 9, 1978, claim "a crystalline aluminosilicate zeolite having an aluminum-free outer shell of SiO₂," in which the outer shell has the same crystal structure, and describe the initiation of the manufacture of an aluminosilicate and then during the process, aluminum is replaced by an apparent Al sequestering agent or left out and crystal growth is continued over the inner core. An overall crystalline structure characteristic of the interior is alleged to be formed. U. S. Patent No. 4,222,896, patented Sept. 16, 1980, and U. S. Patent No. 4,228,036, patented Oct. 14, 1980, composites a zeolite in an amorphous magnesia-alumina-aluminum phosphate matrix. U.S. Patent No. 4,454,241, patented June 12, 1984, discloses the treatment of a partially cation exchanged calcined zeolite containing catalyst with a dihydrogen phosphate anion or a dihydrogen phosphite anion. Phosphorus is alleged to be composited with the catalyst, but there is no description of what that means. U. S. Patent No. 4,605,637, patented August 12, 1986, makes an intimate particulate mixture of a zeolite such as ZSM-5 and an AlPO₄, such as AlPO₄-5, and subjects the mixture to hydrothermal treatment. The treatment made the mixture more catalytically active. European Patent Publication 0 161 818, filed April 17, 1985, describes mixing AlPO₄-5 with a caustic solution containing silica followed by calcination. The application theorizes incorporation of metal oxide directly into the aluminum phosphate lattice structure. U.S. Patent No. 4,512,875, patented April 23, 1985, describes the use of non-zeolites AlPO₄, silicalite and SAPO in combination with conventional zeolite catalysts for hydrocarbon cracking processes for converting a crude oil feed which contains certain carbon hydrogen fragmentation compounds. Copending U.S. Application, Serial No. 675,283, filed November 27, 1984, commonly assigned, is concerned with the use of SAPO molecular sieves as catalysts for cracking crude oil feedstocks. Copending U.S. Application, Serial No. 675,279, filed November 27, 1984, commonly assigned, is concerned with the use of mixtures of SAPO molecular sieves in combination with zeolitic aluminosilicate molecular sieves as catalysts for enhancing gasoline octane by increasing the ratio of branched to linear olefins and iso to normal paraffins. Copending U.S. Application, Serial No. 682,946, filed December 18, 1984, commonly assigned, describes the use of mixtures of a SAPO molecular sieve with a hydrogenation catalyst and, optionally, one or more traditional hydrocracking catalysts. Included in such traditional hydrocracking catalyst are conventional zeolitic aluminosilicates. Copending U.S. Patent Application, Serial No. 683,246, filed December 18, 1984, commonly assigned, is directed to catalytic dewaxing and hydrodewaxing processes and employs traditional dewaxing catalysts containing zeolitic aluminosilicate mixed with SAPO molecular sieve catalyst. The mixed catalyst of these copending applications provide advantages over the traditional zeolite catalysts. This invention is concerned with unpredictably versatile and highly useful multi-compositional, multiphase composites that comprise different inorganic microporous crystalline compositions, preferably molecular sieve compositions, as phases thereof wherein at least one phase is grown by crystal growth in the presence of another phase, in which: (a) the different phases are contiguous and have a common crystal framework structure; (b) at least one phase contains phosphorus and aluminum atoms as part of the crystal's framework structure. The composite exhibits a distinct compositional heterogeneity in composition of one phase to another therein. At least one phase may comprise a deposition substrate upon which an another phase is deposited as an outer layer or there are multiple phases jointly formed (such as by differential crystallization) in which the phase comprising the deposition substrate or one of the phases jointly formed constituting the deposition substrate contains at least about 20 weight percent of the total weight of the phases making up the composite. According to one embodiment there are two of such phases and one comprises the structure and composition of a non-zeolitic molecular sieve and the other of such phases comprises the structure and composition of an aluminosilicate molecular sieve. The aluminosilicate molecular sieve may be a Y-type zeolitic molecular sieve. One of the phases may be a SAPO or a CoAPSO composition. The phase constituting the deposition substrate is termed the deposition substrate phase, and any remaining phase is termed an outer layer, in which the outer layer comprises a phase which contains phosphorus and aluminum atoms as part of the crystal's framework structure. The outer layer may contain a NZMS, which is one of AlPO₄; SAPO, preferably one of SAPO-5, SAPO-11, SAPO-31, SAPO-40, SAPO-41 and SAPO-47; MeAPO, preferably one of CoAPO, ZAPO, MAPO and MnAPO; MeAPSO, ELAPO; ELAPSO; and mixtures thereof. The deposition substrate may be an AlPO₄ which is structurally compatible with the SAPO contained in the outer layer. The outer layer may contain an intermediate pore size SAPO. The processes for making composites of multiple phases, at least two of which are different inorganic crystalline compositions, preferably molecular sieve compositions, contiguously aligned and possessing a common crystal framework structure, and at least one of the two contains phosphorus and aluminum atoms as part of the crystalline framework structure comprise (a) the growth of a crystalline structure constituting one such phase containing phosphorus and aluminum atoms as part of the crystalline structure in the presence of a deposition substrate comprising crystals of another of such a phase of similar crystal topology, (b) the growth of a crystalline structure constituting one such phase in the presence of a deposition substrate comprising crystals of similar topology of another such phase containing phosphorus and aluminum atoms as part of the crystalline structure, or (c) by joint growth of crystals (such as by differential crystallization) of similar topology constituting one such phase containing phosphorus and aluminum atoms as part of the crystalline structure with another of such a phase, one of which constitutes the deposition substrate for another of the phases, in which the deposition substrate, in each of case (a), (b) and (c), is present therein in an amount of at least about 20 weight percent of the total weight of the phases. The growth of the composite crystalline structure is carried out such that a particulate composition is obtained which contains at least 50 weight percent, more preferably at least 75 weight percent, most preferably at least 95 weight percent, and most desirably (and usually) 100 percent, of the multi-compositional, multiphase composite, and any remainder being particles each of which are made wholly of a molecular sieve composition constituting a phase of the composite. Though the composites of this invention utilize formulations and procedures of the prior art to make the various phases of the composites, such is not to infer that each phase is of a composition that is equivalent to a known composition in the art. Because of the unique activity of catalysts made from the composites of this invention, it is believed that the act of compositing the phases alters their composition somewhat and consequently, each of the phases constitutes a novel composition of matter. The composition of the composite is not an aggregation or mixture of known compositions. This is not to say that the composition and structure of a phase is outside of the scope of the prior art. It is the position herein that the composition, but not the crystal structure, of the phase appears to be novel in respect to the specific compositions illustrated in the prior art. Thus the compositions of the various phases and the composites of this invention, constitute novel compositional improvements in the art. Details of the Invention: The composites of this invention, which are derived from a combination of procedures known in the prior art to make the individual molecular sieves making up the phases thereof, can have one or more the following advantages: greater adsorbent and catalytic selectivity greater adsorbent and catalytic activity superior thermal and hydrothermal stability superior retention of activity after extended exposure to severe hydrothermal treatment enhanced stability to coking in catalytic reactions lower raw material costs significant cost/performance advantages The composites of this invention are distinctive in that they contribute more benefits than could be derived from the individual components making up the composite when used alone. There would be no reason to make the composite if such were not the case because composite manufacture adds a substantial manufacturing cost. In the most practical way of viewing this invention, the composite of this invention must provide a greater benefit than any of the components thereof used alone or in admixture otherwise the manufacturing cost would prohibit its use. This invention is directed to composites in which a molecular sieve of the kind characterized in Table A below is in integral lattice association with another structurally compatible inorganic material, inclusive of the molecular sieves of Table A. The composite of this invention is an essentially singular microporous crystal structure. Though the composite may be further composited with amorphous or different kinds of crystalline materials, and such is also part of this invention, the microporous crystalline composite is "crystalline" as that term is understood in this art and as further discussed below, and constitutes an unified crystalline structure. The crystalline composite of this invention comprises multiple phases, at least one of which is a NZMS which contains aluminum and phosphorus as part of the crystal framework structure of the phase in question. That means, from a composition standpoint, the unit structure may be present in the crystal framework of the phase. Another aspect of the invention provides that the various phases of the composite are integrally bonded to each other by growth of one crystal phase from another such that the crystal structures of the phases yield a composite of a common single crystal structure even though the composite has a heterogeneous chemical composition. The phases are essentially crystallographically indistinct from one another. As pointed out above, the phases of the composites are in integral lattice association with each other. It is believed that the phases are joined together by direct chemical linkages. The phases of the composites of this invention are not simple blends or physical mixtures that are bonded together by an adhesive generated by a third component which fails to satisfy the crystallographic characterization of the phases and their epitaxial relationships in the composites of this invention. In a most preferred embodiment, the composite of the invention comprises a core particle enveloped by a shell in which the core and shell constitute different phases contiguously aligned with each other and their crystal framework structures are, in material crystallographic terms, the same. Crystalline molecular sieves, whether zeolites or of the NZMS variety, are formed as small crystals ranging in size from 0.1 microns (.4 X 10⁻⁵ inch) to 75 microns (.003 inch) in average cross-sectional area, usually between 0.1-10 microns. The spread in particle size for any particular molecular sieve is about 10 microns in average cross-sectional area. Crystalline molecular sieves are not spheres, they can range from regularly to irregularly shaped structures in the fashion of most crystals. Many are formed as part of agglomerations of crystals. It is well known in the art to make molecular sieves by incorporating into a gel of the components for growing the molecular sieve crystals a seeding compound having a crystal structure common to that which is being produced. Typically, the amount of seed ranges up to 10 wt.% of the inorganic oxide component of the molecular sieve, see, e.g., examples 51 and 53 of U. S. 4,440,871. In such instances, one finds the following: The seed is not characterized as a distinctive feature of the structure. The characterizations of the compositions made by the seeding technique fail to note any property contribution of the seed crystals. The seeding technique is typically noted for facilitating crystal formation. It is assumed that the seed crystals are so overwhelmed by the concentration of the gel that the ultimate molecular sieve is unaffected property-wise by utilization of the seed. The seeded compositions are not believed to possess many of the useful (and in some cases, unique) properties of the composites of this invention. In addition, a number of references speak about the use of aluminophosphates, either as crystalline or amorphous structures, as suitable sources of phosphorus or aluminum in making aluminum and phosphorus containing molecular sieves. In view of the fact that the resulting composition is a homogeneous structure in which the digestion of the aluminophosphate reagent appears to be sufficiently complete, it is assumed that none is present either to act as a seed or to impact on the properties of the generated molecular sieve. This recognition that aluminophosphates which have the capacity of seeding can be dissolved in the gel so that it becomes a source for aluminum and phosphorus for creating a molecular sieve of a NZMS type demonstrates that much of the seeding can be accomplished by little of the seed because so much of the seed can be dissolved to supply reagents for the composition of the NZMS. It is not established that the benefits of seeding depend upon the retention of the particulate shape of the seed. Such disclosures of seeding and using aluminophosphate as a reagent can be found in the patents recited in Table A below. Seeding adds cost to the manufacture of molecular sieves. Though seeding reduces the induction period in crystal nucleation, which is a cost saving, the cost of making the seed, which manufacture involves a similar nucleation induction period, significantly outweighs that advantage. Consequently, seeding is typically a laboratory tool to facilitate the manufacture of certain molecular sieves. Because seeding adds cost to the manufacture of molecular sieves, the seed typically represents a small part of the ultimate solids content of the molecular sieve. The term "solids content" of a molecular sieve represents the inorganic oxide which remains after the calcination of the precursor to the calcined sieve. Seeding effects nucleation in the gel stage of the manufacture. How nucleation works is not thoroughly understood. However, because seeding operates with a small amount of seed, and because some amount of the seed's surface is dissolved by the gel medium, the ultimate portion of the seed in the seeded particle can be significantly less than the indicated portion of seed used for seeding. The seed contributes processing advantages, not product advantages. It is significant to note that the use of a molecular sieve as a seed by the prior art for the generation of another molecular sieve yields a product which is not characterized as distinguishable from a molecular sieve of the same composition, but which is made without such a seed. It has been determined that much of the benefits of NZMSs as catalysts or absorbents are achieved in the outer surface portion (mantle) of the sieve particle. Where a NZMS is employed as a catalyst in a chemical reaction in which irreversible secondary reactions occur that generate by-products, much of the primary reaction occurs in the outer mantle and much of the secondary reaction(s) occurs in the core area of the molecular sieve particle. This phenomena is believed to be, to a large extent, the product of the tortuous diffusion of the adsorbate(s) through the core of the molecular sieve particle which increases the adsorbate(s)'s contact with the catalyst. This extra contact with an active catalyst phase results in undesired secondary reaction(s) being promoted. The efficiency or selectivity of a chemical reaction is measured by the ability of the catalyst to generate the primary reaction product(s) while avoiding or minimizing the formation of the irreversible (in the context of the reactions) secondary reaction product(s). In this context, it should be appreciated that a secondary reaction product is considered an undesired by-product of the reaction. This invention is directed to providing NZMS catalysts that achieve enhanced efficiencies or selectivities to the primary reaction product(s) while minimizing the adverse secondary reactions. This invention provides for an absorbent particulate composite composition that possesses a differentiation in adsorbency or catalytic activity and/or selectivity within the particle at different parts thereof. This is accomplished through selection of the composition of the phases of the composite and the nature of their placement in the composite's structure. If the core of the composite is made of a phase that is less active than the layer or phase surrounding it, then the reaction product of a tortuous diffusion of reactant to the core will result in less secondary reaction products being formed than if the whole particle were made of the composition of the surrounding layer. Higher selectivities are the result. This invention is directed to the use of a sufficient amount of a phase within a multi-compositional, multiphase composite that the compositional heterogeneity of the various phases are maintained. When utilizing one phase as a deposition substrate for another phase, the deposition substrate must be present in the ultimate composite in such an amount that it retains its identity as a distinct phase within the composite, that is, the composite is clearly composed of phases which are compositionally heterogeneous with each other but are topologically compatible with each other. This is regarded, in characterizing this invention, as providing that a deposition substrate constitute at least about 20 wt. % of the total weight of the phases making up the composite. In other words, the language "of at least about 20 wt. %" is intended to mean that the amount of the deposition substrate phase present in the composite is sufficient for it to have a separate and distinct heterogeneous compositional identity vis-a-vis the other phases of the composite. The nature of the deposition of one phase upon the other in the composite is believed to be that of a layer of a phase directly upon the surface of another phase. In such a representation, the deposited layer is termed herein the "outer layer" and the substrate phase providing the deposition surface is termed the "deposition substrate." This terminology holds even though more than two phases exist in the composite. The invention also encompasses a heterogeneous mixture comprising: (A) a multi-compositional, multiphase composite comprising different inorganic crystalline molecular sieve compositions as phases thereof wherein at least one phase is grown by crystal growth in the presence of another phase, in which: (a) the different phases are contiguously aligned to each other and possess a common crystal framework structure; (b) at least one phase contains phosphorus and aluminum atoms as part of the crystal's framework structure; (c) the composite exhibits a distinct compositional heterogeneity of one phase to another therein; and (B) an inorganic crystalline composition which is not so contiguously aligned and not sharing a common crystal framework structure with the multi-compositional, multiphase composite of (A), but is bonded to the multi-compositional, multiphase composite of (A), or (C) an amorphous composition which is bonded to the multi-compositional, multiphase composite of (A). The composites of this invention are typically superior as adsorbents and catalysts for the variety of uses that have been suggested for the molecular sieves having essentially the composition and structure of each of the phases used in making the composite or for physical blends of such molecular sieves. They are usually more active and selective with respect to adsorbing a given material or catalyzing a given reaction than are their independent phase counterparts or physical blends of their independent phase counterparts. In particular, the catalysts of the invention, in their catalytic performance, are at least more selective or more active than a comparable catalyst which contains any one of the phases alone. This is particularly the case when the phase comprising the deposition substrate contains at least about 50 weight percent of the total weight of the phases making up the composite. It has been noted that the molecular sieve composites of this invention are superior in several or many respect to the molecular sieves having essentially the composition and structure of each of the phases used in making the composite. This synergy in performance allows one to trade on the advantages afforded by a component phase thereof. Usually, a component phase will possess a property which is superior to that same property of the other component phase(s). In the case of the composites of this invention, that dominant functional property will, in most instances, also prevail as the dominant functional property characteristic of the composite. In many cases, the composites's property in question will be even more favorable than the property exhibited by the molecular sieve structure having the dominant functional property, especially when compared on a weight for weight basis. However, one can expect that there will be instances when this synergy will not prevail, though it is the expectation that the synergistic situation will be the typical case. The composites of this invention possess a differential in performance (as exemplified by the composite's catalytic or absorbent activity, selectivity or efficiency, product yield, cost effectiveness, and the like considerations) between the phases which generates an advantage over conventional NZMSs. This performance differential relates to the composite's absorbancy or catalyst properties and one phase thereof provides greater performance as an absorbent or catalyst than the most active of the phases thereof when existing alone and not as a component of a composite. That means that the composite of this invention possesses such a performance latent in a phase thereof which is greater than the comparable performance of any of the compositions and structures comprising a phase in the composite as it would exist independent of the composite structure. The performance factor referred to above is typically directed to a prime function of the composite as an absorbent or catalyst. This can be illustrated by the following: The performance characteristics of a phase of a composite of SAPO-11 and AlPO₄-11, in which SAPO-11 is the outer layer and AlPO₄-11 is the deposition substrate is demonstrated when the activity of the composite is more active as an octane boosting catalyst in a FCC process as specifically described hereinafter. This would be determined by comparing the composite against SAPO-11 per se and AlPO₄-11 per se in comparable catalyst structures in a FCC test for differences in activity or selectivity. A superior performance need only exist in respect to any single use for the composites of this invention. When this superior performance is lacking in any respect, it generally means that there is too much of one of the phases in the composite structure such that that phase does not achieve the expected enhanced performance. This typically occurs when the outer layer of the composite comprises essentially all of the composite's composition, such as more than 80 weight percent thereof. In particular, composite molecular sieves of this invention provide: exceptionally active and selective oxidation catalysts which are superior in that regard to the individual molecular sieves making up the composite; selective adsorption of many chemicals in rapid adsorption and desorption processes; unique gasoline selective (FCC) catalysts; octane boosting catalyst additives, exceptionally active olefin oligomerization catalysts; improved bimetallic catalysts; improved Friedel-Crafts catalysts; highly selective free radical catalysts; active xylene isomerization catalysts; highly selective condensation reactions catalysts; oxidation catalysts with reduced hot spotting tendencies; long life fluid bed catalysts; low coking FCC catalysts; and the like. The invention includes the utilization of a multi-compositional, multiphase microporous molecular sieve structure wherein at least one of the phases comprises a molecular sieve embraced by an empirical chemical composition on an anhydrous basis expressed by the formula: (I) mR:(Q w Al x P y Si z )O₂ where "Q" represents at least one element present as a framework oxide unit "QO₂ n " with charge "n" where "n" may be -3, -2, -1, 0 or +1; "R" represents at least one organic templating agent present on the intracrystalline pore system; "m" represents the molar amount of "R" present per mole of (Q w Al x P y Si z )O₂ and has a value from zero to 0.3; and "w", "x", "y" and "z" represent the mole fractions of QO₂ n , AlO₂⁻, PO₂⁺, SiO₂, respectively, present as framework oxide units. "Q" is characterized as an element having a mean "T-O" distance in tetrahedral oxide structures between 0,151 nm (1.51 Å) and 0,206 nm (2.06 Å). "Q" has a cation electronegativity between 523 kJ/mol Atom (125 kcal/g-atom) to 298 kJ/mol Atom (310 kcal/gm-atom) and "Q" is capable of forming stable Q-O-P, Q-O-Al or Q-O-Q bonds in crystalline three dimensional oxide structures having a "Q-O" bond dissociation energy greater than about 247 kJ/mol Atom (59 kcal/g-atom) at 298·K ; and said mole fractions being within the limiting compositional values or points as follows: w is equal to 0 to 98 mole percent; y is equal to 1 to 99 mole percent; x is equal to 1 to 99 mole percent; and z is equal to 0 to 98 mole percent. The "Q" of the "QAPSO" molecular sieves of formula (I) may be defined as representing at least one element capable of forming a framework tetrahedral oxide and may be one of the elements arsenic, beryllium, boron, chromium, cobalt, gallium, germanium, iron, lithium, magnesium, manganese, titanium, vanadium and zinc. The invention contemplates combinations of the elements as representing Q, and to the extent such combinations are present in the structure of a QAPSO they may be present in molar fractions of the Q component in the range of 1 to 99 percent thereof. It should be noted that formula (I) contemplates the non-existance of Q and Si. In such case, the operative structure is that of AlPO₄ as discussed above. Where z has a positive value, then the operative structure is that of SAPO, discussed above. Thus, the term QAPSO does not perforce represent that the elements Q and S (actually Si) are present. When Q is a multiplicity of elements, then to the extent the elements present are as herein contemplated, the operative structure is that of the ELAPSO's or ELAPO's or MeAPO's or MeAPSO's, as herein discussed. However, in the contemplation that molecular sieves of the QAPSO variety will be invented in which Q will be another element or elements, then it is the intention to embrace the same as a suitable molecular sieve for the practice of this invention. Illustrations of QAPSO compositions and structures are the various compositions and structures described in the patents and patent applications set forth in Table A, which follows, and by Flanigen et al., in the paper entitled Aluminophosphate Molecular Sieves and the Periodic Table, supra: Of the multiple phases of the compositions of this invention, at least one of them contains aluminum and phosphorus in the framework structure. At least one of the phases, in a preferred embodiment of this invention, contains the QAPSO structure of formula (I) above. The remaining compositions of the other phase(s) may be a different QAPSO embraced by formula (I) or another crystalline molecular sieve structure of either the zeolitic or non-zeolitic variety. Typical of the molecular sieves of the zeolitic varieties are the chabazite, faujasite, levynite, Linde Type A, gismondine, erionite, sodalite, Linde Type X and Y, analcime, gmelinite, harmotome, levynite, mordenite, epistilbite, heulandite, stilbite, edingtonite, mesolite, natrolite, scolecite, thomsonite, brewsterite, laumontite, phillipsite, the ZSM's (e.g., ZSM-5 , ZSM-20 ZSM-12 , ZSM-34 , etc.) and Beta , and the like. Typical of suitable zeolitic molecular sieves employable in the practice of this invention are the following: Zeolites- A, AgX, AgY, AlHY, alkylammonium X and Y, BaX, BaY, BeY, Ca-A, Ca-germanic near-faujasite, Ca-HX, Ca-X, Ca-Y, calcium NH₄Y, CdX, CdY, CeY, CoA, CoX, CrY, CsL, CsX, CsY, Cu-X, Cu-y, diethylammonium Y, ethylammonium Y, Fe-X, Fe-Y, HY, KL, KX, KY, L, La-X, La-Y, LiA, LiX, LiY, LZ-10, LZ-210, MgNH₄Y, MgHY, MgNaY, MgNH₄Y, MgX, MgY, MnX, MnY, Na-A, Na-germanic near faujasite, Na-L, Na-X, Na-Y, NH₄-germanic, NH₄L, NH₄X, NH₄Y, activated NH₄Y, Ni-A, Ni-X, Ni-Y, omega, PdY, rare earth X, rare earth Y, rare earth ammonium Y, RbX, RhY, SrX, SrY, steam stabilized or ultra-stable Y, tetramethylammonium Y, triethylammonium Y, X, Y, Y-82, ZK-5, Zn-mordenite, Zn-X, Zn-Y, the ZSM's, supra , and the like. Other molecular sieves of the non-zeolitic variety include the silica molecular sieves, such as silicalite as depicted in U.S. Patent No. 4,061,724. In characterizing the various phases of the composites of this invention, reference is being made to specific chemical compositions which are already known in the art because the phases that are made start with either such a chemical composition already made or utilize a method of manufacture which according to the art would generate such a known chemical composition. This does not mean that the chemical composition of the phases is the full equivalent to such characterization. It is believed that whether one starts with an already formed known composition or produces a phase by a procedure which is intended to generate a known composition, that in significant ways the resulting phases in the composite of this invention are different in chemical composition from either the composition initially started with or the intended composition that the procedure was designed to generate. This difference in chemical composition is not reflected in a change in the crystal structure. The significant difference resides in the chemical composition of the interface(s) of the phases. The capacity exists for significant ionic mobility of extra framework cations during the manufacture of molecular sieves. This generates a significant amount of ion transfer by ion exchange to occur. Where one composition is deposited upon another of a different kind, there is a greater propensity for such ion exchange to occur. Moreover, during the deposition of one phase onto another, there is a propensity for redissolving a part of the deposition substrate by the components of the outer layer causing a chemical change to that portion of the interface which nominally belongs to the deposition substrate. Frequently, this change at the interface constitutes a chemicals redistribution between the components of the outer layer being deposited and the deposition substrate which is redissolved. Because one is dealing in atomic layers, the degree of compositional alteration is quite small and does not constitute a gross alteration of the composition of any particular phase. Consequently, there is not seen in the composition enough changes in the chemical composition of a phase such that by nuclear magnetic resonance ("NMR") one can detect a dramatic compositional change in the framework sites of any of the phases. Even though such a change occurs, the crystal structure is predictable and accords with the known crystal structure of the deposition substrate and that which is expected for the outer layer. However, one cannot state with certainty the exact chemical composition of each of the phases of the composites of the catalysts of this invention. For example, a SAPO-37 or a SAPO-11 phase in composites of this invention are not believed to be completely identical to the SAPO-37 made in accordance with examples 42-44 of U.S. Patent No. 4,440,871 or the SAPO-11 made in accordance with Examples 16-22 of U. S. Patent No. 4,440,871 where those compositions meet at an interface with another molecular sieve composition, in a composite embodied by this invention. The crystal structure of the composites of this invention, or any phase thereof, is determined in accordance with standard analytical procedures of the art. Though the art frequently relies upon X-ray powder diffraction analysis to define or differentiate a molecular sieve from the prior art, it should be appreciated that the characterization of the crystal structure is not solely dependent upon that type of analysis. There are instances where X-ray powder diffraction analysis will not generate a suitable pattern in order to properly characterize the presence of a crystal structure. Such does not mean that the structure is not crystalline. Other procedures can be employed to demonstrate the existence of a crystal structure. The characterization of a crystal structure is typically determined according to a number of analytical techniques, one of which is X-ray powder diffraction analysis. Such techniques include, by way of example, electron diffraction analysis, molecular adsorption data, and adsorption isotherm characterizations. Some phases used in the composites of this invention may not show a distinctive X-ray powder diffraction pattern adequate for crystal structure characterization. The other techniques in combination allow one to determine the nature of the crystal lattice in which the phase exists. There are cases where the crystal structure is even ill-defined by a combination of techniques, but according to the evidence arrayed, such is characterizable as crystalline by comparison with a particular structure. Such a pseudo-crystalline structure is deemed a crystal for the purpose and understanding of this invention. The phases of the composites of this invention relate to each other because they each possess essentially the same crystalline framework structure. In practical terms, this means that the X-ray powder diffraction patterns for the composite (or other evidence of crystallinity) of the multiple phases is the same in essential details other than those affected by changes in the size of different framework cations. Though it is possible for each of the phases to have different X-ray diffraction patterns, the differences should be slight enough that in essential crystallographic terms one would regard the different structures to be framework compatible. This is intended to mean that the various phases have crystalline structures which mimic each other in terms of framework topology. It is important to recognize that the significant advantage of the composites of this invention over the single compositions which correspond to the proposed composition of a phase of a composite or blends of such single compositions corresponding to the phases of the composite, resides in the superior performance one may achieve from the use of the composite as a catalyst or as an adsorbent relative to the single compositions or the blends of such compositions. Even so, a particularly desirable embodiment of this invention involves the use of a relatively inexpensive crystalline molecular sieve for one phase, and a high performance and more costly QAPSO molecular sieve for another phase. It has been determined that the composite exhibits the properties of the costlier component or properties which are superior to those of the costlier component, in each case at a much reduced cost. In some cases, the composite provides substantially better performance on a given QAPSO weight basis than such QAPSO alone. Indeed, such better performance is seen when comparing a given weight of the composite against the most superior performing of the molecular sieves used in making the composite, even over a cost reduced basis. Because the composite is superior to the individual QAPSO in most respects, and is superior to the less costly molecular sieve component in almost all respects, the composite yields a synergistic benefit totally unexpected and unique in the field of catalysis and adsorbancy. Another determination arising from this invention, is a recognition that NZMSs which are more active to a chemical or chemical reaction than another NZMS or a zeolitic molecular sieve, will operate in respect to that chemical or chemical reaction almost as if the other NZMS or the zeolitic molecular sieve were inactive relative to such chemical or chemical reaction, provided they are composited in accordance with this invention. As a result, an active synthetic zeolitic molecular sieve can be composited about a more active NZMS without adversely affecting the activity of the NZMS in respect to the adsorbate or the chemical reaction. In such case, care has to be taken to avoid caustic attack of the NZMS. Viewing such composites as cores surrounded by layers, characterized as one or more mantle layers surrounding the core, then such active zeolitic molecular sieve should occupy a relatively thin mantle layer surrounding the NZMS. If the zeolite mantle layer were too thick, then the porous labyrinth of the zeolite could become so extensive that the adsorbate or the chemical reaction has minimum access to the NZMS layer or core, as the case may be. Such would diminish the ability of the more active NZMS from fully affecting the chemical or the chemical reaction. As a result, it is possible to add a mantle of a relatively inexpensive molecular sieve about another mantle made from a more expensive and more active and/or selective NZMS for the purpose of protecting the NZMS from decomposition or fracturing without adversely affecting the overall benefits derived from the activity and/or selectivity of the NZMS. If one practices the invention with a view to cost reduction in the production of extremely effective non-zeolitic molecular sieves, then it is desired to produce composites in which the phases thereof containing the NZMS are present in the minimum acceptable amounts. It has been determined, quite surprisingly, that the performance characteristics at least equivalent to a wholly NZMS can be achieved in the composite structures of this invention by utilizing substantially less of the NZMS and substituting in the composition for the NZMS materials the topographically functional equivalent zeolitic molecular sieve (ZMS) material. It has been determined that if the composite contains at least a phase made of a NZMS and at least a phase made of a ZMS, that the ZMS constitute the predominant amount by weight of the phases making up the composite because the advantages in adsorbent and catalyst properties of the NZMSs can be essentially achieved with a material reduction in cost. The benefits of this invention are achieved when the outer layer constitutes less than 80 weight percent of the composite. In most instances, it will be desirable to have the outer layer constitute less than about 60 weight percent, more preferably less than about 50 weight percent, of the weight of the composite. It has been found in most, if not essentially all cases, less secondary reactions occur when the outer layer comprises a smaller weight or volume of the composite molecular sieve. When the outer layer constitutes more than 80 weight percent of the composite, the composite tends to behave as if it were 100 weight percent the composition and structure of the outer layer, and secondary reaction generation is more pronounced when such are used as catalysts as herein characterized. This trend in secondary reactions tends to drop as the weight of the outer layer diminishes. In the another aspect of this invention, one may make composites in which the amount of the deposition substrate therein range from at least about 20 weight percent of the total weight of the composite up to about 98 weight percent of the total weight of the composite and the amount of the outer layer phase or phases ranges from about 80 weight percent of the total weight of the composite down to about 2 weight percent of the total weight of the composite. In a preferred aspect of this invention, one may make composites in which the amount of the deposition substrate therein range from at least about 40 weight percent of the total weight of the composite up to about 98 weight percent of the total weight of the composite and the amount of the outer layer phase or phases ranges from about 60 weight percent of the total weight of the composite down to about 2 weight percent of the total weight of the composite. In a more preferred case, the composite will be made of two phases and the amount of the deposition substrate in the composite will range from about 50 to about 95 weight percent of the total weight of the composite and the outer layer will constitute from about 5 to 50 weight of the composite. In the typical case, the outer layer (mantle) has a thickness which is less than that of the deposition substrate layer. In the typical case, the outer layer will weigh less than the deposition substrate. The reason for this, in the typical case, is the fact that one will generally choose to employ an aluminum and phosphorus containing phase as the outer layer. In a practical application of this invention, it will be desirable to combine a relatively inexpensive zeolitic molecular sieve with the more costly aluminum and phosphorus containing molecular sieve. Such zeolitic molecular sieves are produced in large volumes, therefore it will be desirable to employ a commercial presynthesized zeolite in making the composite. It follows that such will be a logical choice for the deposition substrate. Those facts coupled with the desire to use the minimum amount of the more costly and better performing aluminum and phosphorus containing phase typically results in employing a smaller weight amount of the outer layer relative to the weight of the deposition substrate. In such a case, it will be desirable that the outer layer contain from 2 to 50, preferably 2 to 40, weight percent of the total weight of the composite, and the remaining weight be that of the less costly molecular sieve, such as zeolitic molecular sieve, or a less active NZMS such as an AlPO₄. In a preferred embodiment of this invention, the composite is a small particle in the range of from about 0.2 to about 10 microns in average cross-section. The preferred embodiment of the particle comprises an internal core area circumscribed by one or more mantles. If there are more than one mantle, one is an outer layer relative to the other and to the core. For the purpose of describing this invention, as set forth in this specification and the claims, an inner mantle which circumscribes a core, and optionally another and more internal mantle, is termed a core relative to a mantle external of it. Each mantle in contact with each other is made of a different chemical composition and each mantle and core in contact are made of different chemical compositions. The particle need not be spherical for the purposes of the invention in order to have the aforementioned core/mantle relationship. The core may be an aggregate of particles about which resides a mantle layer. The particles are typically polyhedral in shape. They may contain dendrites and/or spherulites. The ultimate particle may be part of an agglomerate of the particles. These benefits of the invention can be appreciated by recognizing that microporous molecular sieves have pores which extend throughout the crystal structure. Most of the catalyst's surface area is found in these pores. It is the pore surface area which provides essentially all of the catalyst's active sites. As the feedstock enters the interior of the catalyst, it progresses a labyrinthian or tortuous course, as such or as reaction products generated in the catalyst. Tortuous diffusion dictates that given enough contact time, some of the primary reaction products will react with active sites on the catalyst's pore surface and such generally results in the formation of lower molecular weight products and combustion products. By reducing the size of the labyrinthian course provided by the most active catalyst specie the problems associated with tortuous diffusion are reduced. As a result, the selectivity to primary product is enhanced because the level of contact time within the most active portion of the catalyst is controlled sufficiently to minimize the generation of secondary reaction(s). A special advantage of the composite structures of this invention resides in the fact that the depth of the layer of a given phase of the composite provides a mechanism for controlling the performance characteristics of that phase as a catalyst. If the phase is extremely active owing to a too high level of acidity, one may retain a high level of catalytic activity while minimizing the destructive features (e.g. secondary reactions) of the high acidity. It is known that the destructive aspects of an acidic and hence active catalyst is dependent upon the residence time a reactant spends in the catalyst. By depositing a small layer of the active phase onto a deposition surface which is relatively inert to the reactant (vis-a-vis the outer layer), the contact time of the reactant with the catalyst, in particular the outer layer, is minimized to the extent that the destructive feature of the catalyst is minimized. It is axiomatic that a useful catalyst which as a propensity to destroy primary reaction products and generate unwanted by-products, does so at a rate lower than the desired catalyzed reaction, otherwise the catalyst would yield little in benefits. By reducing the thickness of the active catalyst layer, the tortuous diffusion contact time will also be reduced in the active catalyst. This should improve the selectivity of the catalyst to produce the desired reaction products and minimize secondary reaction products. The layered composite catalysts of this invention provide such a benefit by controlling the depth of the outer layer, and hence the tortuous diffusion, to accomodate the activity of the outer layer to the desired reaction and reaction products. Thus, a factor in the design of a composite catalyst made according to this invention is the consideration of the various reactions which may be affected by the catalyst. If the reaction simply involves a conversion of then little criticality with respect to selectivity over the amount and size of the outer layer is seen. However, if the reaction generates irreversible by-products ("C") as in the case of where the secondary reactions k₂ and k₃ generate undesired by-products C, then it is preferred that the contact within the catalyst be sufficiently limited to the depth of the outer, more active layer such that the predominant reaction is k₁ and reactions k₂ and/or k₃ are minimized, if not avoided. In this way, the catalytic impact is more selective in the case of these layered catalysts than in the full catalyst particle where the outer layer composition is the whole of the particle composition. This is illustrated in the data on FCC performance of a non-composited SAPO-37 FCC catalyst. Though both the non-composited SAPO-37 FCC catalyst and composited SAPO-37 FCC catalyst can exhibit essentially the same exterior to the oil feed and possess the same kind of porosity, the non-composited SAPO-37 generates more unwanted by-products than the composited SAPO-37. Compositing, as characterized herein, provides a basis for minimizing unwanted by-product formation. The composites of this invention can be made by the hydrothermal crystallization of reactive gel precursors to the crystal structure in the presence of a support surface for crystal growth thereon. The gel precursors depend upon the structure being made. In the case of an aluminosilicate based crystal framework, the precursors are the typical aluminate and silicate compositions employed for making such aluminosilicates. Indeed, a characteristic of this invention is that each phase may be made by conventional procedures in the art for making the composition of the particular phase. It is generally not necessary to employ a new process for generating a phase in the presence of another phase in order to enjoy the fruits of this invention. In the case of composites to be made using a zeolitic molecular sieve recipe calling for the use of extremely high pHs, e.g., operating at pH's of 12 or higher, typically more in a pH range of 13-14, such as caused by the use of caustic reagents as sodium hydroxide, it may be necessary that such recipes be used for the manufacture of the deposition substrate and not an outer substrate. Such recipes may cause the decomposition of the deposition substrate and thus the fundamental integrity of the composite when they are used in forming the outer layer. It is desirable to operate at a lower pH using ammonium salts to at least substitute for some of the caustic in the recipe when making outer layers of zeolitic molecular sieve. The class of non-zeolitic aluminum and phosphorus based molecular sieves are typically synthesized by hydrothermal crystallization of reactive aluminum and phosphorus containing gels containing optionally the additional framework elements and an organic template, at temperatures from 50°C. (122°F.) to 250°C. (482°F.), preferably from 100°C. (212°F.) to 225°C. (437°F.). The optimum crystallization temperature depends on composition and structure. The AlPO₄ and SAPO materials tend not to crystallize at temperatures below about 125°C. (257°F.), whereas several of the MeAPO species crystallize readily at about 100°C. (212°F.). QAPSO compositions are generally synthesized by hydrothermal crystallization from a reaction mixture containing active sources of element(s) "Q" (optional), silicon (optional), aluminum and phosphorus, preferably an organic templating, i.e., structure-directing, agent which is preferably a compound of an element of Group VA of the Periodic Table, and optionally, an alkali or other metal. The reaction mixture is generally placed in a sealed pressure vessel, preferably lined with an inert plastic material such as polytetrafluoroethylene and heated, preferably under autogenous pressure at an effective temperature which is preferably between 100°C. (212°F.) and 225°C. (437°F.), more preferably between 100°C. (212°C.) and 200°C. (424°F.), until crystals of the specific variety of QAPSO product are obtained, usually an effective crystallization time of from several hours to several weeks. Generally, effective crystallization times of from 2 hours to 30 days are employed with typically from 4 hours to 20 days being employed to obtain the QAPSO product version. The product is recovered by any convenient method such as centrifugation or filtration. In synthesizing the QAPSO compositions used in the instant invention, it is preferred to employ a reaction mixture composition expressed in terms of molar ratios as follows: aR:(Q w Al x P y Si z )O₂:bH₂O wherein "R" is an organic templating agent: "a" is the amount of organic templating agent "R" and has a value of from zero to 6 and is preferably an effective amount within the range of greater than zero (0) to 6; "b" has a value of from zero (0) to 500, preferably between 2 and 300; "Q" represents at least one element, as hereinbefore described, capable of forming a framework oxide unit, QO₂ n , with SiO₂, AlO₂⁻ and PO₂⁺ tetrahedral oxide units; "n" has a value of -3, -2, -1, 0 or +1; and "w", "x", "y", "z" are as defined above. In the foregoing expression of the reaction composition, the reactants are normalized with respect to the total of "w", "x", "y", and "z" such that w + x + y +z = 1.00 mole, whereas in the examples in the reaction mixtures may be expressed in terms of molar oxide ratios normalized to the moles of P₂O₅. This latter form is readily converted to the former form by routine calculations by dividing the number of moles of each component (including the template and water) by the total number of moles of elements "Q", aluminum, phosphorus and silicon which results in normalized mole fractions based on total moles of the aforementioned components. In forming reaction mixtures from which the QAPSO molecular sieves are formed, an organic templating agent is preferably employed and may be any of those heretofore proposed for use in the synthesis of conventional zeolite aluminosilicates but, in any case, the template chosen is that template taught in the art for making the particular QAPSO being made. In general, these compounds contain elements of Group VA of the Periodic Table of Elements, particularly nitrogen, phosphorus, arsenic and antimony, preferably nitrogen or phosphorous and most preferably nitrogen, which compounds also contain at least one alkyl or aryl group having from 1 to 8 carbon atoms. Particularly preferred compounds for use as templating agents are the amines, quaternary phosphonium and quaternary ammonium compounds, the latter two being represented generally by the formula R₄X⁺ wherein "X" is nitrogen or phosphorous and each R is an alkyl or aryl group containing from 1 to 8 carbon atoms. Polymeric quaternary ammonium salts such as [(C₁₄H₃₂N₂) (OH)₂] x wherein "x" has a value of at least 2 are also suitably employed. The mono-, di- and tri-amines are advantageously utilized, either alone or in combination with a quaternary ammonium compound or other templating compound. Mixtures of two or more templating agents may be necessary or useful in producing a particular QAPSO. The initial gel pH in most cases is weakly acidic facilitating the successful incorporation of the hydrolyzable metal cation form of the elements into the frameworks, and inhibiting their precipitation as spurious hydroxides or oxides. Representative templating agents include: ammonium ions such as tetramethylammonium, tetraethylammonium, tetrapropylammonium, tetrabutylammonium, and tetrapentylammonium and amines such as di-n-propylamine, tripropylamine, triethylamine, triethanolamine, piperidine, cyclohexylamine, 2-methylpyridine, N,N-dimethylbenzylamine, N,N-dimethylethanolamine, choline, N,N′-dimethypiperazine, 1,4-diazabicyclo(2,2,2,)octane, N-methyldiethanolamine, N-methylethanolamine, N-methylpiperidine, 3-methylpiperidine, N-methylcyclohexylamine, 3-methylpyridine, 4-methylpyridine, quinuclidine, N,N′-dimethyl-1,4-diazabicyclo(2,2,2)octane, di-n-butylamine, neopentylamine, di-n-pentylamine, isopropylamine, t-butylamine, ethylenediamine, diethylenetriamine, triethylenetetraamine, pyrrolidine, 2-imidazolidone, and the like. Not every templating agent will direct the formation of every species of QAPSO, i.e., a single templating agent may, with proper manipulation of the reaction conditions, direct the formation of several QAPSO compositions, and a given QAPSO composition can be produced using several different templating agents. As Flanigen et al., in the paper entitled Aluminophosphate Molecular Sieves and the Periodic Table, supra , point out: "The organic template appears to play a critical structure-directing role. The template is trapped or clathrated in the structural voids as the crystals grow. Over eighty-five amines and quaternary ammoniumspecies have been used successfully as crystallization templates, including primary, secondary, tertiary and cyclic amines, and alkanolamines. The degree of template-structure specificity varies from the crystallization of AlPO₄-5 with twenty-three templates to the formation of AlPO₄-20 with only one template.¹⁷) Table 6, a summary of typical templates forming the major structures, amply illustrates one template forming many structures (11, 31, 41 and 46 with di-n-propylamine). Here, structure control is exercised by other synthesis variables such as temperature, template concentration, gel oxide composition, and pH. The influence of the template is both steric and electronic, and typically exhibits the neat stoichiometry and space-filling characteristics illustrated for AlPO₄-5 and 11." The foregoing description of the role of the templating agent is characteristic of the general role of templating agents in respect to the manufacture of the QAPSO family. The source of silicon may be silica, either as a silica sol or as fumed silica, a reactive solid amorphous precipitated silica, silica gel, alkoxides of silicon, silica containing clays, silicic acid or alkali metal silicate and mixtures thereof. The most suitable phosphorus source yet found for the aluminophosphates is phosphoric acid, but organic phosphates such as triethyl phosphate have been found satisfactory, and so also have crystalline or amorphous aluminophosphates such as the AlPO₄ compositions of U.S.P. 4,310,440. Organo-phosphorus compounds, such as tetrabutylphosphonium bromide do not appear to serve as reactive sources of phosphorus, but these compounds do function as templating agents. Conventional phosphorus salts such as sodium metaphosphate, may be used, at least in part, as the phosphorus source, but are not preferred. The preferred aluminum is either an aluminum alkoxide, such as aluminum isoproproxide, or pseudoboehmite. The crystalline or amorphous aluminophosphates which are a suitable source of phosphorus are, of course, also suitable sources of aluminum. Other sources of aluminum used in zeolite synthesis, such as gibbsite, aluminum-containing clays, sodium aluminate and aluminum trichloride, can be employed but are not preferred. The element(s) "Q" can be introduced into the reaction system in any form which permits the formation in situ of a reactive form of the element, i.e., reactive to form a framework oxide unit of element "Q". Compounds of element(s) "Q" which may be employed include (but are not limited to) oxides, hydroxides, alkoxides, nitrates, sulfates, halides, carboxylates and mixtures thereof. Representative compounds which may be employed include inter alia : carboxylates of arsenic and beryllium; cobalt chloride hexahydrate, alpha cobaltous iodide; cobaltous sulfate; cobalt acetate; cobaltous bromide; cobaltous chloride; boron alkoxides; chromium acetate; gallium alkoxides; zinc acetate; zinc bromide; zinc formate; zinc iodide; zinc sulfate heptahydrate; germanium dioxide; iron (II) acetate; lithium acetate; magnesium acetate; magnesium bromide; magnesium chloride; magnesium iodide; magnesium nitrate; magnesium sulfate; manganese acetate; manganese bromide; manganese sulfate; titanium tetrachloride; titanium carboxylates; titanium acetate; zinc acetate; and the like. After crystallization, the QAPSO product may be isolated and advantageously washed with water and dried in air. The as-synthesized QAPSO generally contains within its internal pore system at least one form of any templating agent employed in its formation. More commonly, this organic moiety, derived from any organic template, is at least in part present as a charge-balancing cation, as generally is the case with as-synthesized aluminosilicate zeolites prepared from organic-containing reaction systems. It is possible, however, that some or all of the organic moiety may be an occluded molecular species in a particular QAPSO species. As a general rule the templating agent, and hence the occluded organic species, is too large to move freely through the pore system of the QAPSO product and must be removed by calcining the QAPSO at temperatures of 200°C. to 700°C. to thermally degrade the organic species. In some instances the pores of the QAPSO compositions are sufficiently large to permit transport of the templating agent, particularly if the latter is a small molecule, and accordingly complete or partial removal thereof may be accomplished by conventional desorption procedures such as carried out in the case of zeolites. It will be understood that the term "as-synthesized" as used herein does not include the condition of QAPSO species wherein any organic moiety occupying the intracrystalline pore system as a result of the hydrothermal crystallization process has been reduced by post-synthesis treatment such that the value of "m" in the composition formula: mR:(Q w Al x P y Si z )O₂ has a value of less than 0.02. The other symbols of the formula are as defined hereinabove. In those preparations in which an alkoxide is employed as the source of element(s) "Q", aluminum, phosphorous and/or silicon, the corresponding alcohol is necessarily present in the reaction mixture since it is a hydrolysis product of the alkoxide. As has been reported repeatedly in the NZMS patent literature, it has not been determined whether this alcohol participates in the syntheses process as a templating agent. For the purposes of this application, however, this alcohol is arbitrarily omitted from the class of templating agents, even if it is present in the as-synthesized QAPSO material. Since the present QAPSO compositions are formed from AlO₂⁻, PO₂⁺, SiO₂ and QO₂ n framework oxide units which, respectively, has a net charge of -1, +1, 0 and "n", where "n" is -3, -2, -1, 0 or +1, the matter of cation exchangeability is considerably more complicated than in the case of zeolitic molecular sieves in which, ideally, there is a stoichiometric relationship between AlO₂⁻ tetrahedra and charge-balancing cations. In the instant compositions, an AlO₂⁻ tetrahedron can be balanced electrically either by association with a PO₂⁺ tetrahedron or a simple cation such as an alkali metal cation or proton, a cation of the element "Q" present in the reaction mixture, or an organic cation derived from the templating agent. Similarly, an QO₂ n oxide can be balanced electrically by association with PO₂⁺ tetrahedra, a simple cation such as an alkali metal cation, a cation of the metal "Q", organic cations derived from the templating agent, or other divalent or polyvalent metal cations introduced from an extraneous source. The QAPSO compositions may exhibit cation-exchange capacity when analyzed using ion-exchange techniques heretofore employed with zeolite aluminosilicates and have pore diameters which are inherent in the lattice structure of each species and which are at least about 30 nm in diameter. Dehydration to remove water present in the as-synthesized QAPSO compositions can usually be accomplished, to some degree at least, in the usual manner without removal of the organic moiety, but the absence of the organic species greatly facilitates adsorption and desorption procedures. The QAPSO materials will have various degrees of hydrothermal and thermal stability, some being quite remarkable in this regard, and will function as molecular sieve adsorbents and hydrocarbon conversion catalysts or catalyst bases. Zeolite structures, used to make the composites of this invention, may be made free of contact with the QAPSO containing phase or in the presence of the QAPSO containing phase subject to the caveat about pH of the zeolite gel. They may be generated by the hydrothermal crystallization of an aluminate and silicate under basic conditions. Aqueous gels of the reactants are heated at temperatures ranging from 50°C. (122°F.) to 200°C. (392°F.), preferably from 100°C. (212°F.) to 175°C. (347°F.). The optimum crystallization temperature depends on composition and structure. A good characterization of processes for the manufacture of zeolites can be found at Chapter Four of Breck, Zeolite Molecular Sieves , Publ. by John Wiley & Sons, New York, N.Y., 1974 and at Chapter 11 by Magee and Blazek of Rabo, supra. The composites of this invention are conveniently formed by the hydrothermal crystallization of one phase in the presence of the other or another. Broadly speaking, each phase of the composite is derived by the hydrothermal crystallization of the components thereof from an aqueous gel. The composite derives from the hydrothermal crystallization of the precursor to the formation of an intended phase in the presence of a deposition substrate which constitutes another phase of the composite. The deposition substrate need not be, in the practice of this invention, a fully formed (e.g., not fully crystallized) composition. Thus, one might initiate the production of a molecular sieve structure by the hydrothermal crystallization procedure, and prior to the fully formed crystal structure, such is utilized as a deposition substrate by the addition thereto of the precursors to be used for the manufacture of an outer layer. In such a case, the deposition substrate is termed to be in the "green" state. There will be instances where one will remove a cation or cations from the deposition substrate after depositing an outer layer thereon. Such cation removal can be effected after the deposition has been completed and a composite structure is formed. A differential crystallization of one phase prior to another using a single gel that generates both phases is another method of forming a deposition substrate. Such procedure works effectively when both phases are NZMSs and primarily differ by the presence or absence of Me or EL elements which generate MeAPO, MeAPSO, ELAPO or ELAPSO compositions. The composites used in the invention do not depend upon the existence of a clear demarcation between the framework composition of one phase and another either during the manufacture of the composite or in the finished composite. As pointed out above, there is often a transformation occurring at the interface of the phases such that the interface could be viewed as constituting a nominal third framework phase of an intended two-phase system or fourth or fifth framework phase of an intended three-phase system. Indeed, one may look at the transition from the framework composition of one phase to another as a gradient compositional change existing between the phases though it is believed that the gradient is primarily differentiable at about the interface with the remainder of the phases being each more homogeneous compositionally. The compositional heterogeneity of the composites of this invention extends in a gross sense by virtue of a difference in the composition of the phases and in the relationship of a phase to the other in respect to the framework composition at the interface. The hydrocrystallization conditions for synthesizing the composite is that cited above with respect to the specific molecular sieve composition intended for the phase undergoing hydrothermal crystallization. When a preformed zeolitic molecular sieve is used as a deposition substrate for the intended deposition of a non-zeolitic aluminum and phosphorus based molecular sieve then, of course, the hydrothermal crystallization of reactive aluminum and phosphorus gels in the presence of the zeolitic molecular sieve should be employed. This does not mean that the synthesis will yield a phase which mimics entirely the composition of molecular sieve which is intended by that hydrothermal crystallization synthesis. The compositions that are formed are believed to be different in subtle ways by what transpires at the interface, as indicated above, but similar enough so as to be embraced by the prior characterization of the composition of such a molecular sieve. Preferably, one of the phases, acting as a deposition substrate, is a fully formed crystalline structure. The template may or may not be essentially removed before the composition is subjected to contact with the components which are used to generate the other phase. The deposition substrate is a support for the next produced phase (outer layer) and provides the basis for epitaxial growth. Once one phase is crystallized in the presence of another crystal phase, the composite may be used as the support for the creation of still another solid phase. This procedure may be repeated as many times as desired or as there exists enough molecular sieves of different compositions but having the same crystalline framework to provide a composite of an essentially single crystal structure. By this technique, one may produce a composite having repeated layers of different molecular sieves in an onion skin pattern, except that in the case of the composites of this invention, the skins are chemically bonded to one another. There are occasions where one might wish to blend the ingredients of distinct molecular sieve compositions and effect the hydrothermal differential crystallization to form a mixed phase composition encompassed by this invention. In the typical case, the composites will be formed by the hydrothermal crystallization of a molecular sieve brew in contact with another but already formed or partially formed crystalline molecular sieve of appropriate crystalline structure. It is believed that the composite is formed by the epitaxial growth of a crystal onto the surface of the deposition substrate. [It may be the case in some instances that this growth is facilitated by the deposition substrate. Such may be termed a "seeding" effect. However, that would be an insignificant consideration in comparison to the role of the deposition substrate in forming composites having unique and unexpected properties.] The growth in that manner yields a substrate support surface onto which a layer of crystalline molecular sieve is deposited and epitaxially grafts in the process of the hydrothermal crystallization to the crystal framework of the support surface. In this fashion, one may obtain a core surrounded or enveloped by a layer or a film or a mantle of the other molecular sieve(s). Membranes having a differential of exchange properties across the depth of the composite can be made from multi-layers of these films deposited over the core and onto each previously deposited layer. Composites which are multi-faceted in their performance can be made up of layers each of which has a different adsorption and catalytic characteristic. There is the possibility that during hydrothermal crystallization of a phase in the presence of another already formed phase that some of the crystallization will result in particles free of composite formation, that is, the crystallization does not occur on the surface of the formed phase. Experience to date shows that little if any independent crystallization of that type occurs. In the usual case, not more than about 50 weight percent of the generated product of the hydrothermal crystallization will comprise such particles free of composite formation. More preferably, not more than about 25 weight percent, most preferably not more than about 5 weight percent, and most desirably (and usually) about 0 weight percent, of the generated product of the hydrothermal crystallization will comprise such particles free of composite formation. As pointed out below, the shape of the composite is particulate but when used as a catalyst or an absorbent, the use to which the composite will be put will determine its overall configuration. The shape of the composite is particulate but when used as a FCC catalyst, such use will determine its overall configuration. In the context of FCC catalysis, the composite may be used as formed or they may be combined either by a binderless process or by use of other ingredients and formed into a structure more desirable for the use. The particles can be formed into another shape by a variety of techniques well known in the art, such as by spray drying, combining the particles via a matrix binder, and the like. Catalysts will be made to properly configure to the shape of the reactor or the reaction mode. However, certain special effects can be obtained with the composite structures of this invention. For example, rather than deposit the outer layer onto the deposition surface prior to associating the composite with a matric bonding media, the deposition substrate can first be shaped by spray drying or by combination with a matrix bonding media according to the use (viz., into pellets, extrudates, and the like) and then the shaped body containing the deposition substrate or surface is subjected to the hydrothermal crystallization in a brew of the precursors forming the outer layer. The outer layer is thus deposited on the deposition surface that remains exposed in the shaped body. This procedure minimizes the amount of outer layer required for a composite/matrix shaped product. In the preferred embodiment, the composite is formed prior to the formation of a shaped body containing the composite. As pointed out previously, the shape of the finished catalyst or absorbent particles formed from the composite is determined by the use to which it is put. If the composite is desired for catalyst us, it can be employed as such as the formed particles or the formed particles can be bonded to each other directly or indirectly through a binding medium to make a larger shaped catalyst in satisfaction of the intended catalyst use. In the most common case, composite particles will be bound together by a variety of techniques such as by spray drying, pelletizing, extrusion, and the like. A binder is typically used to shape the composite particles into predetermined pellets, spray-dried particles or extrudates, as one desires, using conventional techniques of the catalyst art. For example, composite particles may be blended with a matrix material, typically one that would be inert to the reactants of the catalytic process, and pelletized or extruded into the desired shape. The configuration of the composite of the invention is not critical to this invention, but can be important in respect to a particular use. Catalysts made form the composites of this invention are typically a physical blend of the composite with an inorganic oxide matrix component which may be any of the inorganic oxide matrix components which have been employed heretofore in the formulation of catalysts including: amorphous catalytic inorganic oxides, e.g., catalytically active silica-aluminas such as amorphous aluminosilicates and zeolites, clays, silicas, aluminas, silica-zirconias, silica-magnesias, alumina-borias, alumina-titanias and the like and mixtures thereof. The composite is usually mixed with the matrix component and then formed in the appropriate catalyst shape. The inorganic oxide matrix components, e.g. aluminas, silicas, clays, etc., may be present in the final catalyst in an amount ranging between 5 and 99 weight percent, preferably between 5 and 95 weight percent and more preferably between 10 and about 85 weight percent, based on the total catalyst weight. The inorganic oxide matrix component may be in the form of a sol, hydrogel or gel and is typically an alumina, silica, clay and/or silica-alumina component such as employed in a conventional silica-alumina catalyst, several types and compositions of which are commercially available. The matrix component may itself provide a catalytic effect or it may be essentially inert. The matrix may act as a "binder" in some instances, although in some instances the final catalyst may be spray dried or formed without the need of a binder. These materials may be prepared as a cogel of silica and alumina or as alumina precipitated on a preformed and preaged hydrogel. The silica may be present as a component in the solids present in such gels, e.g., present in an amount between 5 and 40 weight percent and preferably between 10 and 35 weight percent. Silica may also be employed in the form of a cogel comprising about 75 weight percent silica and about 25 weight percent alumina or comprising about 87 weight percent silica and about 13 weight percent alumina. The alumina component may comprise discrete particles of various aluminas, e.g., pseudobeohmite. The alumina component may be in the form of discrete particles having a total surface area, as measured by the method of Brunauer, Emmett and Teller (BET), greater than about 20 square meters per gram (m²/g), preferably greater than 145 m²/g, for example, from 145 to 300 m²/g. The pore volume of the alumina component is typically greater than 0.35 cc/g. The average particle size of the alumina particles is generally less than 10 microns and preferably less than 3 microns. The alumina may be employed alone as the matrix or composited with the other matrix components such as the silica, as mentioned previously. The alumina component may be any alumina and, preferably, has been preformed and placed in a physical form such that its surface area and pore structure are stabilized. This means that when the alumina is added to an impure, inorganic gel containing considerable amounts of residual soluble salts, the salts will not alter the surface and pore characteristics measurably nor will they promote chemical attack on the preformed porous alumina which could undergo change. For example, the alumina may be an alumina which has been formed by suitable chemical reaction, slurry aged, filtered, dried, washed free of residual salt and then heated to reduce its volatile content to less than about 15 weight percent. Further, an alumina hydrosol or hydrogel or hydrous alumina slurry may be used in the catalyst preparation. Mixtures of the composite particles and the inorganic matrix may be formed into the final form for the catalyst by standard catalyst forming techniques including spray-drying, pelleting, extrusion and other suitable conventional means. Such catalysts are typically prepared by spray drying, such procedures being well known to those skilled in the art of preparing catalysts. Illustrative of the procedures for making catalysts from the composites of this invention is the following: Sodium silicate is reacted with a solution of aluminum sulfate to form a silica/alumina hydrogel slurry which is then aged to give the desired pore properties, filtered to remove a considerable amount of the extraneous and undesired sodium and sulfate ions and then reslurried in water. The alumina may be prepared by reacting solutions of sodium aluminate and aluminum sulfate under suitable conditions, aging the slurry to give the desired pore properties of the alumina, filtering drying, reslurry in water to remove sodium and sulfate ions and drying to reduce volatile matter content to less than 15 weight percent. The alumina may then be slurried in water and blended in proper amounts, with a slurry of impure silica-alumina hydrogel. The composite molecular sieve may then be added to this blend. A sufficient amount of each component is utilized to give the desired final composition. The resulting mixture is then filtered to remove a portion of the remaining extraneous soluble salts therefrom. The filtered mixture is then dried to produce dried solids. The dried solids are subsequently reslurried in water and washed substantially free of the undesired soluble salts. The catalyst is then dried to a residual water content of less than about 15 weight percent. The catalyst is typically recovered after calcination. It is also within the scope of the instant invention to employ other materials in addition to the composite and inorganic oxide matrix components in the final catalysts, including various other types of zeolites, clays, carbon monoxide oxidation promoters, etc. Representative of matrix systems employable herein are disclosed in British Patent Specification No. 1,315,553, published May 2, 1973 and U. S. Patents Nos. 3,446,727 and 4,086,187. In order to more particularly illustrate this invention, specific reference will be made to embodiments thereof. It is not intended that such should act to limit the scope of the invention. In the examples, a stainless steel reaction vessel is utilized which is lined with an inert plastic material, polytetrafluorethylene, to avoid contamination of the reaction mixture. In general, the final reaction mixture, from which the composite is crystallized, is prepared by forming mixtures of all of the reagents before adding the deposition substrate, then adding the deposition substrate. Conversely, the deposition substrate may be first added to a reactor and then the reagents for forming the hydrogel which generates the outer layer may be added. Hydrothermal crystallization thereafter follows. There are conditions where the reagents of a phase result in hydrothermal crystallization kinetics which are different from those produce by the reagents of another phase. In that situation, the reagents can be combined at the same time and the difference in kinetics provides a deposition substrate for crystal growth. Such is termed "differential crystallization" herein. Example 102 below provides an illustration of that technique. In some instances the admixed reagents retain their identity in the intermediate mixture and in other cases some or all of the reagents are involved in chemical reactions to produce new reagents. The term "mixture" is applied in both cases. Further, unless otherwise specified, each intermediate mixture as well as the final reaction mixture was stirred until substantially uniform. Table B which follows provides a match of different phases that are combinable to make composites covered by this invention. As an illustration of the broad variety of composites embraced by this invention, the following Table C illustrates, by constructive reduction, two-phase composites utilizing the techniques described herein of depositing one molecular sieve as an outer layer onto a deposition substrate of another molecular sieve by the hydrothermal crystallization process. The composites in Table C use the designated molecular sieve deposition substrates and outer layers. Each deposition substrate is preformed using the procedures disclosed in the referenced prior art. The outer layers are made according to the following general procedure, to be modified in accordance with the referenced prior art. The general procedure is as follows: The gel is prepared by dissolving in a first container the indicated amount of the templating agent cited in the referenced prior art. This is followed by the addition of the indicated amount of the silica source, if used, and if not used, the aluminum and phosphorus sources, in accordance with the referenced prior art. If a silica is used, then in a second container, the indicated amount cited by the referenced prior art of a hydrated aluminum oxide ( such as a pseudo-boehmite phase, 74.2 wt. % Al₂O₃ 25.8 wt. % H₂O), the indicated amount of the phosphorus source, such as phosphoric acid (85%), the indicated amount of the metal salt, and a specified amount of water, are thoroughly mixed. In the next step, the mixture in the first container is added to the alumina, phosphoric acid and metal salt (if employed) slurry in the second container and the combination is mixed for an additional period of time to form a gel that would be used to treat the deposition substrate. If only one container is employed, then the contents are appropriately mixed until the gel consistency is achieved. In forming the composite, a thorough mixture of the gel and the deposition substrate are placed in a 250 cc polytetrafluoroethylene-lined, stainless steel reactor and digested quiescently (without operation of the stirrer) for 5 to 24 hours at 200°C. The composite product of the digestion is cooled, and the supernatant liquid present is decanted. The solid product is washed several times in water and finally air dried. The weight ratios cited in Table C is of the deposition substrate phase to the outer layer. Various utilities are cited for the composites characterized by their pore size on the basis of that possessed by an individual composite or by a class of composites (each class is marked by horizontal line separations). In addition to the foregoing detailed characterization of this invention, the following enumerated examples serve to further define this invention. EXAMPLE 1 The composite in this example uses a Y molecular sieve as the deposition substrate and SAPO-37 as the outer layer. The Y molecular sieve used as a deposition substrate was prepared from a commercial lot of Y-62 (sold by Union Carbide Corporation) molecular sieve which was treated as follows: (a) ammonium exchanged several times to lower its Na₂O content from 2.24% to 0.32%; (b) the resulting ammonium exchanged Y-62 was further exchanged with tetramethylammonium chloride (TMACl) as follows: 60.0 grams TMACl were dissolved in 600 cc of water to yield a solution with a pH of 4.9; to this solution was added sufficient tetramethylammonium hydroxide pentahydrate (TMAOH.5H₂O) to raise the pH to 7.2. The 60.0 grams of the ammonium exchanged Y-62 (anhydrous basis) were added to the above solution and the slurry was stirred at room temperature for 45 minutes. The treated zeolite was collected, washed and then subjected to two more TMAOH.5H₂O exchanges using fresh solution. The final TMAOH.5H₂O exchanged Y was designated TMAY. A SAPO-37 gel was prepared as follows: 5.5 grams of TMAOH.5H₂O was dissolved in 508.5 grams of tetra-n-propylammonium hydroxide (TPAOH) solution (40% in water) in container number 1. Next 19.05 grams of fumed silica (Cab-O-Sil EH5) (94.5 wt. % SiO₂, 5.5 wt. % H₂O) were slurried in the above solution and stirred for about 20 minutes. Sixty-eight (68) grams of hydrated aluminum oxide (a pseudo-boehmite phase, 74.2 wt. % Al₂O₃, 25.8 wt. % H₂O), 115.3 grams of phosphoric acid (85%) and 84 grams of water were thoroughly mixed in container number 2. Then, the solution in container number 1 was added to the alumina and phosphoric acid slurry in container number 2 and the combination was mixed for an additional 30 minutes to form the SAPO-37 gel that would be used to treat the modified Y-62 (TMAY). About 14 grams of TMAY were thoroughly mixed with 200 grams of the SAPO-37 gel described above and the mixture was placed in a 250 cc polytetrafluoroethylene-lined, stainless steel bomb and digested quiescently for about two hours at 200°C. The product of this digestion was cooled, and the supernatant liquid was decanted. The solid product was washed several times in water and finally air dried. EXAMPLES 2 and 3 These examples demonstrate that the SAPO-37 gel used in Example 1 could be used repeatedly to make two or more batches of composite of this invention. The fresh gel prepared as in Example 1 was slurried with fresh TMAY, digested and formed into a composite. Specifically, TMAY was reacted with the gel as described in Example 1, except that the reaction was allowed to proceed to 200°C. for 5 hours. The reaction mixture was cooled, the supernatant was decanted and the composite of the first treatment was collected and washed (composite of Example 2). Then 165 grams of this supernatant were mixed with 11.6 grams of fresh TMAY and the mixture was digested quiescently at 200°C. for 20 hours. The reaction mixture was cooled, the solids were collected and washed several times with water and the composite of the second treatment was collected and washed (composite of Example 3). Examples 2 and 3 are further characterized in Table D which follows in terms of certain process conditions, concentrations of products recovered and relative X-ray powder diffraction pattern: EXAMPLES 4-12 Examples 4-12 were carried out by following the procedure of Example 1 with the exception of the variation in the deposition substrate composition, reagent concentrations and process conditions noted in the Table E which follows: The following chemical analyses Table F sets forth the chemical analyses and some crystallographic data of the composites and deposition substrate compositions of Examples 1-12 above: Tables D, E and F summarize the details of the SAPO-37 containing composites synthesis of Examples 1-12, relevant deposition substrate compositions and part of their analyses. Information is provided on the deposition substrate and gel weights used in the synthesis as well as on the amount and x-ray crystallinity of the product obtained as a function of time. The relative amount of gel, 200 grams, in Examples 1-10, and deposition substrate, about 14 grams, see Examples 1 and 3-9, was chosen based on previous experience with SAPO-37 syntheses in which a deposition substrate was not employed. At the specified ratio the expected maximum yield of SAPO-37 phase is equal to the weight of deposition substrate employed. Therefore, if the anticipated SAPO-37 phase growth were to occur, the product would contain approximately 50 % deposition substrate and 50 % SAPO-37 phase. Examination of the data for these examples as provided in the tables reveals that after only two hours the weight of solid product (Example 1) was unchanged from the amount of deposition substrate initially used indicating that little growth had occurred. The product obtained is only 81.6 % as crystalline as the starting deposition substrate indicating either some deposition substrate decomposition or the deposition of an amorphous phase. The product obtained after 5 hour digestion (Example 3) did show some evidence of growth with a 2.9 gram weight gain over the initial deposition substrate weight and according to x-ray analysis was completely crystalline with a small amount of SAPO-5 impurity. Based on peak areas relative to pure SAPO-5, the 5 hour sample contained about 10 % of this impurity; the rest of the sample had the typical X-ray powder diffraction patterns of Y zeolite and SAPO-37. The yield of the 24 hour digestion product (Example 4) suggested considerable growth of a solid phase gaining over 11 grams relative to the deposition substrate. This product was also completely crystalline and also contained a small amount of SAPO-5 impurity. The presence of SAPO-5 in small quantities in the 5 hour product (Example 3) and in the 24 hour product (Example 4) is considered atypical of these SAPO-37 containing composites syntheses since all subsequent preparations (Examples 5-12) were free of this impurity. The above chemical analyses table shows, in the case of the two hour preparation (Example 1), the presence of about 6.42 % phosphorus and an increase in alumina content from 21.42 % for the deposition substrate to 28.9 % in the digested product. The silica content had decreased from 61.3 to 48.9 %. Upon longer digestion times the product phosphorus content increased still further to 14.4 % at five hours (Example 3) and to 19.1 % at 24 hours (Example 4). At the five and 24 hour digestion times the alumina content remained constant at about 28 % but the silica content dropped still further to 40.4 % and 35.5 % respectively. The results of analytical investigation of the SAPO-37 containing composite products of Examples 1,3 and 4 can be summarized as follows. After two hour digestion of the low soda TMA exchanged Y-62 deposition substrate in SAPO-37 gel, there is no apparent evidence of the growth of a SAPO-37 phase. X-ray suggests that some crystal degradation has occurred and infrared framework spectra show no evidence that the phosphorus present is incorporated into the crystal structure of the zeolite. After five hours of digestion, some growth is evidenced by a small weight gain relative to the starting deposition substrate weight. At this length of digestion, the deposition substrate had become completely crystalline again. Obviously, some SAPO-37 growth had occurred at the exterior of each Y deposition substrate crystal because the materials X-ray powder diffraction showed only the Y and SAPO-37 patterns exclusive of the small amount of SAPO-5 impurity. After 24 hours of digestion, significant growth of crystalline material has occurred with the product nearly doubling its weight relative to the starting deposition substrate. This clearly demonstrates that the thickness of the outer layer or mantle can be varied by digestion time with the 24 hour digestion time product being thicker than, e.g., the 5 hour digestion time product. Fluid catalytic cracking is a primary source for the production of gasoline in the United States. It is generally practiced by circulating a catalyst in contact with the feedstock, typically vacuum gas oil, in the riser reactor portion of the cracker. The temperature of the riser reactor is about 500°C. (932°F.). The reaction is achieved within seconds. The reaction is completed by the time the feed and catalyst reaches the reactor temperature. The catalyst is separated from the product stream in a stripper and then fed to a regenerator where the catalyst is heated with air and steam at a temperature of about 760°C. (1400°F.). The regenerated catalyst is reintroduced to the reaction feed stream. The cracking reaction generates the following products: gasoline, light cycle oil, heavy cycle oil, coke and gas. Approximately 60 volume % of the product is gasoline, about 20 volume % is light cycle oil, about 10 volume % is heavy cycle oil, about 4-6 weight % is coke and the remainder is gas. The selectivity of the process is measured by the gasoline or gasoline and light cycle oil produced from the feed (vacuum gas oil) introduced as a reactant. Essentially all of the FCC catalysts employed today contain a zeolite as the cracking catalyst. Approximately 98% of these zeolites are zeolite-Y types. Zeolite-Y has a faujasite crystallographic framework. It is aluminosilicate produced by the hydrocrystallization of aluminate and silicate raw materials. A specific illustration for their manufacture and their performance can be found at Chapter 11, Pages 615-664 of Rabo, supra. Some of the commercial FCC Y-type zeolites contain significant amounts, as much as 18-weight percent or more, of calcined rare earth oxides. They are known by the acronym "CREY". Another particularly desirable cracking catalyst is stabilized Y, known as USY or Y-82. In the process of using the catalyst, the catalyst is subjected to a significant amount of steam treatment at temperatures up to 760°C. and above in the regenerator typically in the presence of air. The regenerator temperature is much higher than the temperature in the reactor. The purpose of the steam and air treatment is to aid in the regeneration of the catalyst by the combustion of coke which is deposited in the cracking reaction step. The necessity of removing coke efficiently from the catalyst requires the catalyst to have outstanding thermal and hydrothermal stability. The severe conditions of the process requires an extremely sturdy composition. These catalysts typically have a life span of about three to six months. Extremely important to the FCC process are the issues of residence time in the reactor and tortuous diffusion existing within the zeolite crystallites of 1-5 micron size with about 0,8 nm (8 Å) pores. The cracking process is carried out at high temperatures in the presence of acidic crystallites of the catalyst (zeolite Y). If the reactant spends too much time with and within the catalyst, there occur the undesirable secondary reactions discussed above, generating such unwanted by-products as coke and gas. In addition, the octane value of the gasoline suffers. Tortuous diffusion of the feed and reaction product in the catalyst crystals increases the contact time for a large fraction of the molecules present, and such reduces the ability to rely upon space velocity, an engineer's tool to establish residence time, as a clearly defined process parameter. The sensitive nature of the activity of the catalyst to the overall ability of the catalyst to selectively produce the gasoline product can only in part be determined by correlating the acidity of the catalyst with the process conditions, including the residence time, catalyst/oil ratio, and the like. Some catalyst, by their nature, will generate more coke while others will generate more gas. The role of tortuous diffusion to the results obtained requires consideration in correlating process conditions. Octane ratings have emerged in recent years to be important technical issues in the manufacture of gasoline. With the evolution of unleaded gas as a national criteria in the United States, it has become desirable to achieve gasoline in the FCC process with the highest possible octane rating. Much FCC produced gasoline is employed in the United States for blending to enhance octane. Recent studies indicate that FCC accounts for nearly 35% of the gasoline produced in the United States. FCC gasoline has an octane rating of 86.5-87.5 whereas the United States gasoline octane pool has an octane rating of about 85.9. This difference in octane is viewed as significant. It follows that the FCC gasoline is very useful in enhancing the octance rating of other lower octane gasoline sources. To achieve the lead phase out mandated by the EPA, and increase the United States gasoline octane pool rating to greater than 88 to meet the automotive requirements, it will be necessary to rely extensively on components which would enhance a gasoline's octane rating that are produced by such refinery processes as reforming, isomerization, alkylation and FCC. Current octane enhancing FCC catalysts typically rely on steam stabilized Y zeolite (frequency called "USY." USY or US-Y are acronyms for ultra stable Y. Their properties and manufacture are described at pages 102, 164, 249 and 318-329 of Rabo, supra .) containing catalysts. When USY is compared in performance to calcined rare earth Y (CREY) zeolites, the more extensively used gasoline catalyst, USY provides an improvement in octane plus a reduction in coke make. It appears that USY is not as effective as CREY in providing gasoline selectivity. A loss in gasoline selectivity (yield) is typically accompanied by increased gas (as contrasted to liquid) make. In addition, USY based catalysts rapidly deactivate in steam, an unavoidable enviromental condition that a FCC catalyst is subjected to in gasoline manufacture. Consequently, USY becomes less active than CREY catalysts in a short time. Activity of USY can be improved by using higher USY concentration in the catalyst, but this is costly and results in catalysts with reduced attrition resistance. The alternative is to apply small amounts of rare earth by cation exchange; however, such catalysts produce lower octane gasoline. USY catalysts are superior to CREY catalysts because they generate gasoline which is significantly richer in olefins and somewhat lower in aromatics. The higher olefins content causes higher octane ratings. Improved olefinicity is associated with reduced acid site concentration and lower polarity for USY zeolites in FCC use resulting in lower hydrogen transfer activity relative to CREY based catalysts. Hydrogen transfer consumes olefins and produces paraffins and aromatics according to the following equation: 3 olefins + 1 naphthenes → 3 paraffins + 1 aromatic Both the olefins and aromatics are high octane gasoline components but since three olefins are destroyed to produce one aromatic molecule, a net octance loss results by this hydrogen transfer reaction. The CREY containing catalysts have the highest acid site concentration in the FCC environment as well as reactant concentration, each of which leads to higher H⁻ shift rates. USY, presteamed to reflect the extended exposure to FCC conditions, transforms to zeolitic molecule sieve products which are extremely "low" in both acid site concentration and in reactant concentration. Thus USY FCC catalysts, by lacking this secondary hydride shift activity, produce a more olefinic and higher octance gasoline than is produced using the CREY containing catalysts. See Rabo, Unifying Principles in Zeolite Chemistry and Catalysts, Catal. Rev.-Sci. Eng. , 23 (1 & 2), pp, 293-313 (1981). USY containing catalysts produce higher octane gasoline in lower yields due to increased secondary cracking activity whereas CREY containing catalysts produce higher gasoline yields but with lower octane due to enhanced hydrogen transfer, another secondary reaction. It would be desirable to achieve the desirable features of each of these catalysts and none of their deficiencies by reducing both types of secondary reactions. The catalysts of this invention are exceptional fluid catalytic cracking (FCC) catalysts. More particularly, the composite catalysts of this invention can be used as octane booster. Certain of the composites of this invention constitute the most advanced FCC catalyst for octane boosting. There is described herein a molecular sieve catalyst that generates the individual benefits of the USY and CREY catalysts and typically superior results to those which are deemed the most beneficial from the use of the USY and CREY FCC catalysts, without a carryover of their faults. This is achieved by the use of one of the composite multiphase catalysts of this invention which minimizes such secondary reactions as indicated above. A particularly preferred composite combination is the matching of SAPO-37 with zeolite Y molecular sieve such as Y-82 and Y-62. SAPO-37 and Y zeolites possess the faujasite structure. This combination forms a composite which possesses exceptional catalytic properties in fluid catalytic cracking (FCC), as will be demonstrated below. This particularly desirable composite structure of this invention comprises phases of zeolite Y contiguously bonded to SAPO-37. The details on the preparation of SAPO-37 can be found in Examples 42, 43 and 44 of U. S. Patent No 4,440,871, supra . It is there shown on an anhydrous basis to be inclusive of the following formulas: 0.066(TPA):(Si 0.12 Al 0.51 P 0.37 )O₂ 0.10(TPA+TMA):(Si 0.125 Al 0.51 P 0.365 )O₂ The X-ray powder diffraction data for the "as-synthesized" SAPO-37 is set forth in Table XVI at col. 52 of U. S. 4,440,871. SAPO-37 molecular sieves are termed to be large pore silicoaluminophosphates. The pores have a nominal diameter of greater than about 0,62 nm (6.2 Angstroms), see col. 51, lines 37-39 of U.S. 4,440,871, and the pore size is nominally 0.8nm. The framework topology of SAPO-37 conforms to the faujasite structure. The "essentially empirical composition" is mR:(Si x Al y P z )O₂, where R represents at least one organic templating agent as, for example, indicated in the Examples 42-44 of U.S. 4,440,871 , present in the intracrystalline pore system; m has a typical value of from 0 to 0.3 and represents the moles of R present per mole of (Si x Al y P z )O₂; x , y and z represent the mole fractions of silicon, aluminum and phosphorus, respectively, present as tetrahedral oxides. The fractions are such that they are within a pentagonal compositional area defined by points A, B, C, D and E of the ternary diagram of Figure 1, and preferably within the pentagonal compositional area defined by points a, b, c, d and e of Figure 2, of the drawings of the patent. The SAPO-37 molecular sieves have a characteristic x-ray powder diffraction pattern which contains at least the d-spacings set forth in Tables XV of U.S. Patent No. 4,440,871. Further, the as-synthesized crystalline SAPO-37 may be calcined at a temperature sufficiently high to remove at least some of any organic templating agent present in the intracrystalline pore system as a result of such synthesis. Because SAPO-37 is of the faujasite structural family, it can be combined with any of the other members of this family to make a multiphase composite of this invention. Illustrative members of the faujasite structural family are relatively inexpensive zeolites of the natural or synthetic varieties such as faujasite and the many versions of zeolites X and Y. Illustrative of zeolites having the faujasite structure are the following: AgX, AgY, AlHY, BaX, BaY, Be-Y, Ca-germanic near-faujasite, Ca-HX, Ca-X, Ca-Y, CdX, CdY, CeY, CoX, CoY, CrY, CsX, CsY, Cu-X, Cu-Y, diethylammonium Y, ethylammonium Y, Fe-X, Fe-Y, group IAX, group IAY, group IIAY, HY, KX, KY, La-X, La-Y, LiX, LiY, LZ-10, LZ-210, MgHY, MgNaX, MgNaY, MgNH₄Y, MgX, MgY, MnX, MnY, Na-germanic near faujasite, Na-X, Na-Y, NH₄-germanic near faujasite, NH₄X, NH₄Y, Ni-X, Ni-Y, rare earth X, rare earth Y, RbX, RhY, SrX, SrY, steam stabilized or ultra-stable Y, tetramethylammonium Y, triethylammonium Y, X, Y, Y-62, Y-82, Zn-X, and Zn-Y. Any of these may serve as the deposition substrate or the outer layer deposited under controlled conditions. Since many of the fujasite types are produced in large volumes, such as the zeolites of the X and Y families, and they are the least costly of the components used in the manufacture of the composites of this invention, as pointed out above, they represent a preferred deposition substrate. CATALYST PREPARATIONS The composite molecular sieves described above in Example 1-12, and in Table D-E associated with those examples, were formulated into FCC catalysts in order to evaluate their catalytic properties in the micro activity test (MAT). In general all catalysts were prepared in very similar fashion, which involved binding a mixture of molecular sieve and inert matrix, kaolin clay, with silica binder. The bound mixture was extruded, typically to form 1/16" extrudates, then dried, ground and sieved to obtain meshed particles of catalyst in the range of 60 to 100 mesh size. Unless otherwise noted hereinafter, all catalysts were prepared to contain 18 % molecular sieve, 62 % kaolin matrix and 20 % silica binder on an anhydrous basis. In the case of SAPO-37 and SAPO-37/Y zeolite composites (of the present invention) containing catalysts it was found extremely important to prepare all catalysts using the uncalcined forms of these molecule sieves. In their uncalcined form SAPO-37 and SAPO-37/Y composites are stable in water and can survive the catalyst formulation procedure which involves the use of water to form the extrudate. However, in their calcined form the presence of water at ambient temperatures may result in molecular sieve decomposition. Having formed the extruded, dried and meshed SAPO containing catalyst, the template is removed in subsequent steaming steps described below with little or no damage to the SAPO framework. The procedures involved in FCC catalyst preparation are illustrated in the following example: EXAMPLE 13 The catalyst base was prepared to contain 62 wt. % kaolin matrix, 20 wt. % silica binder and 18 wt. % of the SAPO-37 containing composite of Example 1 above. To achieve this, 9.0 grams (anhydrous basis) of the SAPO-37/TMAY Composite were blended in uncalcined form with 31.0 grams of kaolin clay. Ten grams of silica as Ludox™ LS (a 40.0 % SiO₂ sol sold by DuPont) were gelled by addition of a small amount of 10 % aqueous ammonium acetate solution, and the gelled silica sol was then blended into the clay/SAPO mixture. To this was added about 25 cm³ (cc) of water to form an extrudable paste which was extruded to form 3,2 mm (1/8") extrudates. The extrudates were dried at 100°C. and then crushed and sized to obtain catalyst particles ranging in size from 0,25 to 0,149 mm (60 to 100 mesh) (U.S.). This sized portion of catalyst was then divided into four equal portions, which were then destructively steamed at varying temperatures prior to MAT testing to simulate the hydrothermal environment experienced in commercial FCC regenerators and in the case of SAPO containing catalysts to remove the template which to this point has been left intact. Further details about this catalyst preparation are set forth in the footnotes to Table G which follows. Other catalysts as noted in Table G were prepared according to the above procedure but modified by the procedures referred to in the table. Catalyst Pre-Steaming Procedure FCC catalysts spend over 90 % of their lifetime in the regenerator section of an FCC unit in which they are subjected to high temperature hydrothermal conditions. Thus, the regenerator which removes coke deposits from the catalyst also causes aging and, specifically, degradation in a zeolite's crystallinity. This degradation is accompanied by a loss in framework aluminum content as evidenced by a significant drop in the unit cell size of commercially aged catalysts. Both the loss in crystallinity and the loss of framework aluminum cause a significant cracking activity loss. Since real catalysts go through a plurality of cycles of cracking and regeneration before they are ultimately replaced by fresh catalyst the actual activity of the catalyst in inventory in this cyclic system is significantly reduced from that of the fresh catalyst. It is the performance of this deactivated, equilibrium catalyst mixture that is of most interest to the refiner since it determines the quality of products that the refiner can make. In order to simulate the FCC regenerator environment and to better estimate the performance of experimental catalysts in FCC use, all catalysts described were subjected to destructive steaming prior to MAT evaluation. In general, this steam treatment involved treating the meshed catalysts in a fixed horizontal bed at the desired temperatures in 100 % steam for about two hours followed by cooling in dry air; however, three minor variations on steam treatment procedure were employed. The variations were related to the pretreatment given each catalyst just prior to destructive steaming. The three variations employed were: 1. Pre-calcination in air at 500°C. for one hour followed by ramping to the desired destructive steam temperature. 2. Ramping from 400°C. in steam to the desired destructive steaming temperature. 3. Plunge firing the catalyst into the furnace at the desired destructive steaming temperature with no pretreatment These variations in steaming procedure appeared to have little effect on the SAPO-37 composite catalyst's performance in MAT evaluation. It seems that no special care is needed in the use of these template containing catalysts as long as the catalysts are not exposed to moisture at ambient temperatures once the template has been removed. In commercial FCC use, the templates are expected to be removed as the SAPO containing catalyst is added to the regenerator section of the FCC unit. Catalysts compositions, pretreatment and steaming conditions for all of the catalysts described are summarized in preceeding Table G. In order to further illustrate typical methods employed in catalyst steaming, the specific procedure used for steaming catalyst examples 1A-D, 2A-D and 3A-D is given in the next paragraph. Sized catalysts particles prepared as described above, were placed in porcelain boats. About 12 to 15 grams of catalyst were steamed at a time. These boats were then plunged into a horizontal tube furnace which was equilibrated with flowing steam at 400°C. Next the furnace was ramped to the desired destructive steam temperature which ranged from 760 to 840°C. Catalysts were held at temperature for 2 hours at which time the steam atmosphere was replaced with flowing air and the furnace and catalysts were cooled to 300°C. While at 300°C. catalysts were removed form the furnace, bottled hot and submitted for MAT evaluation. The catalysts were cooled in dry air to avoid degradation caused by water at ambient conditions. Mat Evaluation All catalysts were evaluated for performance in FCC applications by the micro-activity test procedure defined by the ASTM method D-3907. All catalysts were evaluated at 482°C (900°F), at a catalyst to oil ratio of 3.0 and at a weight hourly space velocity (WHSV) of about 16. The feed used in this evaluation was a vacuum gas oil with the following properties: API gravity (60/60) 24 Total N, ppm 700 Basic N, ppm 300 UOP K Factor 11.8 Simulated Distillation (ASTM D-2887) IBP, °C (F) 179 (354) 50 %, °C (F) 396 (745) FBP, °C (F) 581 (1077) All runs were carried out in reactors whose configurations were equivalent to that described in ASTM D-3907. All products were collected and analyzed. Product analysis was used to calculate conversion and product selectivities and yields as defined below: Liquid products were analyzed by capillary gas chromatographic method to determine the paraffinic, olefinic, naphthenic and aromatic content of the gasoline range products. The results of MAT evaluation of all catalysts, including the prior art catalysts of Tables G and H, are summarized in Tables I to M, where % conversions and selectivities and yields to all products of interest are tabulated. In order to compare the performance of the composite FCC catalysts of this invention, a series of catalysts were made from either SAPO-37 or from the various Y zeolites that were employed in Examples 1-12 to make up the composites. Their preparations including steam treatments are depicted in Table H with their analyses set forth in Table I. Tables J through M set forth the MAT performances for the SAPO-37 composite catalysts of this invention and provide comparative data with respect to the MAT performances of the catalysts made from Y and SAPO-37 molecular sieves. BRIEF DESCRIPTION OF THE DRAWINGS The figures graphically depict the unpredictable and desirable MAT performance capabilities of FCC catalysts made from multi-compositional, multiphase composites of this invention to the MAT performance of FCC catalysts made from molecular sieves having the composition and structure of the phases used in the composite, in respect to gasoline selectivity vs conversion (Figure 1), gas yield vs conversion (Figure 2), coke yield vs conversion (Figure 3), aromatic yield vs conversion (Figure 4) and naphthenes and olefins vs conversion (Figure 5). The drawing serve to simplify the analysis of the data in the foregoing tables J through M. The curves presented in the drawings, Figures 1-5, are based on an interpretive analysis of the data points for catalysts other than the 20 and 24 hour digestion period samples and the trends thereby shown. Figure 1 demonstrates higher gasoline selectivity across a broad range of conversion demonstrating superior gasoline selectivity for the catalysts of the invention over a conventional ultrastable Y zeolitic molecular sieve, both Y-62 and Y-82, and over non-composited SAPO-37. Figure 2 demonstrates lower gas yield over the ranges occupied by the aforementioned ultrastable Y zeolitic molecular sieves and the non-composited SAPO-37. Figure 3 shows that the SAPO-37 composites of the invention generate a constant lower coke yield over the full range of conversion. In respect to the formation of aromatics, Figure 4 shows that the SAPO-37 composite generated less aromatics than Y-82 and the non-composited SAPO-37. However, Figure 5 demonstrates the capacity of the SAPO-37 composite to significantly enhance the octane rating by producing a significantly higher naphthenes and olefins content over the commercial ranges of conversion as compared to Y-82 and the non-composited SAPO-37. The foregoing relates to the superiority of the SAPO-37 composites of the invention as cracking and octance selective catalysts. EXAMPLE 91 This example demonstrates the manufacture of a composite in which AlPO₄-11 was deposited on SAPO-11. A reaction mixture was prepared by combining 6.87 grams of a hydrated aluminum oxide (a psuedo-boehmite phase,74.4 wt % Al₂O₃, 25 wt % H₂O) with a diluted solution of 11.53 grams of 85 wt. % ortho-phosphoric acid (H₃PO₄) and 3.0 grams of distilled water. To this was added 5.06 grams of di-isopropylamine and the solution was mixed thoroughly. Approximately 22 grams of already synthesized SAPO-11 (see Examples 32-36 of U.S. Patent No. 4,310,440) slurried in 40 cc. of distilled water was added to the AlPO₄-11 gel and the combination was mixed for 15 minutes using a high speed stirrer. The AlPO₄-11 gel containing the SAPO-11 was put into a polytetrafluoroethylene-lined 250 cc. pipe bomb. The reaction mixture was digested at 200°C. for 24 hours by placing the bomb in an oven maintained at 200°C. The yield of AlPO₄-11 from the gel employed was expected to be about 4.4 grams based on previous preparations of AlPO₄-11 made without the use of SAPO-11. After digestion, the bomb was removed from the oven and allowed to cool to room temperature. The reacted mixture was centrifuged at high speed and the solids collected. The solids were re-dispersed in distilled water and centrifuged once more to remove unreacted materials. This washing procedure was repeated one more time, and the solids recovered and dried at 100°C. The SAPO-11 deposition substrate used in this preparation was analyzed to contain 38.8 % Al₂O₃, 8.1 % SiO₂ and 51.5 % P₂O₅ based on the inorganic oxide solids base. The AlPO₄-11/SAPO-11 composite product obtained was analyzed to contain 41.9 % Al₂O₃, 3.7 % SiO₂ and 53.3 % P₂O₅ base on the same solids basis. The product had an X-ray powder diffraction pattern typical of SAPO-11 and AlPO₄-11 and indicated that the product was 129 % crystalline relative to the starting SAPO-11 deposition substrate. EXAMPLE 92 The example shows the manufacture of a composite of an outer layer of SAPO-5 deposited on and enveloping particles of AlPO₄-5 as the deposition substrate. A reaction mixture was prepared by mixing 38.9 grams of a fumed silica (Cab-O-Sil™ EH5) in 513 grams of a solution of 40.0 wt % tetra-n-propyl-ammonium hydroxide (TPAOH) using a high speed stirrer. Another gel was prepared by adding 135.8 grams of a hydrated aluminum oxide (a psuedo-boehmite phase, 74.4 wt % Al₂O₃, 25.6 wt % H₂O) to a diluted solution of 229 grams ortho-phosphoric acid (H₃PO₄) in 280 grams of distilled water. This gel was mixed thoroughly using high speed stirrer and added to the previously prepared silica/TPAOH slurry. After homogenization of the gel, a slurry 143.3 grams of tri-n-propylamine was added and mixed for 15 minutes. The pH of this reaction mixture was 7.6 and the total gel weight was 1340 grams. The yield from a gel batch this size would be approximately 120 grams of SAPO-5. An aliquot of 1100 grams of this gel was mixed thoroughly with 110 grams wet wt. of AlPO₄-5 causing the pH to decrease to 6.8. The gel/deposition substrate ratio of this mixture was capable of making a product composition of about 50 wt. % SAPO-5 /50 wt. % AlPO₄-5 after 24 hrs. of digestion at 200°C. (assuming the reaction went to completion). The deposition substrate gel was separated into 5 aliquot portions and each was put into a polytetrafluoroethylene lined 250 cc. pipe bomb. The bombs were put in an oven already equilibrated at 200°C for 2,4,6,8 and 24 hours respectively. A sixth bomb containing a non-deposition substrate containing reaction mixture (200 grams of gel) was put into the oven and digested for 24 hours at 200°C. After the required digestion time for each bomb was completed, the bombs were removed and allowed to cool to room temperature. The reacted mixtures from each of the bombs were separately centrifuged at high speed to separate solids from the liquid components therein. The collected solids were redispersed in distilled water and centrifuged once more. After collecting the solids from second centrifuging, this washing procedure was repeated to ensure removal of unreacted materials. The recovered solids were dried at 100°C. The products of the above described preparations as well as the starting AlPO₄-5 deposition substrate were analyzed and found to contain the following constituents on an anhydrous and volatiles free basis: All products were submitted for X-ray powder diffraction analysis and found to have the diffraction pattern typical of AlPO₄-5 and SAPO-5. Chemical analysis showed the increased presence of SAPO-5 as the digestion time increased indicating increasing thickness of the SAPO-5 outer layer with increased digestion time. EXAMPLE 93 a) To a solution of 40.4 grams 85 weight % orthophosphoric acid (H₃PO₄) in 133.2 grams H₂O was slowly added 17.7 grams of di-n-propylamine (DPA) and 18.4 grams of diethanolamine (DEA). The liquids were stirred until miscible and allowed to cool to ambient temperature. Into this solution was mixed 4.8 grams HiSil (precipitated silica, 88 wt. % SiO₂, 12 wt % H₂O) followed by the admixture of 25.9 grams of hydrated alumina (pseudo-boehmite phase, 70 wt. % Al₂O₃, 30 wt. % H₂O). The resulting mixture was blended until homogeneous. The elemental composition of this mixture expressed in molar oxide ratios was: 1.0 DPA : 1.0 DEA : 0.4 SiO₂ : Al₂O₃ : P₂O₅ : 50 H₂O b) 48.4 grams of an as synthesized AlPO₄-11 with an elemental composition of: 0.18 DPA : Al₂O₃ : P₂O₅ : 0.8 H₂O was ground up gently in a mortar and pestle, then slurried in 100 grams H₂O. This AlPO₄-11 slurry was added quickly to the mixture of a). An additional 23 grams of H₂O was reserved to use in completely transferring all of the AlPO₄-11 into the final mixture. The elemental composition of the final mixture expressed in molar oxide ratios was: 0.6 DPA : 0.5 DEA : 0.2 SiO₂ : Al₂O₃ : P₂O₅ : 45 H₂O The final mixture was loaded into a stainless steel pressure vessel equipped for stirring and it was heated to 175°C. over a 2 hour period. The reaction mixture was maintained at 175°C. for 24 hours then cooled. The product was allowed to settle for 72 hours and the supernatant mother liquor was decanted. The solids were resuspended in fresh water and allowed to settle for 1 hour. The cloudy supernatant was decanted and recovered by centrifugation. The settled solids were recovered by filtration. c) The weights of the recovered products were: Solids from supernatant liquid 57.4 grams Settled solids 20.3 grams There was recovered 29.9 grams of additional material over the 48.4 grams of the starting AlPO₄-11. This indicated that the SAPO-11 outer layer wan about 38 weight % of the composite structure. X-ray analysis of the two product fractions showed that the settled solids were pure 11-type (SAPO-11 composited on AlPO₄-11) and the solids recovered from the supernatant liquid were primarily 11-type (SAPO-11 composited on AlPO₄-11) with a trace of the -41 structure-type. d.) A sample of the settled solids was calcined in air at 500°C. for 16 hours and then tested for n-butane cracking activity as described above. It exhibited a k A of 0.2. e) A sample of settled solids exhibited the following elemental analysis, expressed in weight percents: Al₂O₃ 37.2 P₂O₅ 46.5 SiO₂ 1.9 Carbon 5.3 Nitrogen 1.0 Loss on Ignition 13.8 f) A sample of the settled solids was calcined in air at 600°C. for 3 hours. Adsorption capacities were measured on a standard McBain-Bakr gravimetric adsorption apparatus following vacuum activation at 350°C., and the following results were obtained: Adsorbate Pressure, mbar(Torr) Temp. Weight % Oxygen 133,3 (100) -183°C. 9.5 " 933,1 (700) -183°C. 12.4 Cyclohexane 66,7 (50) 23°C. 6.5 g) Particle size analyses were carried out on the as synthesized AlPO₄-11 added to the initial reaction mixture and the settled solids of the SAPO-11/AlPO₄-11 composite. The median particle size of the AlPO₄-11 was 3.5 microns and the median particle size of the SAPO-11/AlPO₄-11 composite was 4.8 microns. EXAMPLE 94 This example shows the manufacture of a composite of an outer layer of SAPO-11 deposited on and enveloping particles of AlPO₄-11 as the deposition substrate. An aluminophosphate precursor reaction mixture was prepared by combining 101.2 grams of 85 wt % ortho-phosphoric acid and 79.5 grams of distilled water, to which was added 69.8 grams of a hydrated aluminum oxide (a psuedo-boehmite phase, 74.4 wt. % Al₂O₃, 25.6 wt. % H₂O) with high speed stirring to form a homogenous gel. To this gel was added a mixture containing 19.4 grams of fumed silica (92.8 wt. % SiO₂, 7.2 wt. % H₂O) in 500 grams of a solution of 25.0 wt. % tetra-n-butylammonium hydroxide (TBAOH) in methanol. The resulting silicoaluminophosphate gel combination was stirred thoroughly and while stirring 101.2 grams of di-n-propylamine was added. The composition of this reaction mixture in oxide molar ratio was: 2.0 Pr₂NH:0.5 (TBA)₂O:Al₂O₃:P₂O₅:0.6 SiO₂:16.75 H₂O:24.3 CH₃OH The total gel weight was approximately 690 grams and at a pH of 9.4. The gel was divided into 5 batches of approximately 137 grams each. Five equal portions of 15 grams each of an uncalcined AlPO₄-11 molecular sieve (85 % solids, 15 % H₂O) was added to each 137 grams batch of the SAPO-11 gel. Each batch was then homogenized by stirring and transferred to a 250 cc. polytetrafluoroethylene-lined pipe bomb. The pH (9.5) of each batch of this new deposition substrate containing gel reaction mixture did not change much. The bombs were placed in an oven already equilibrated at 200°C. and digested for 2, 4, 6 and 24 hours, respectively, with the 6 hour preparation being duplicated. The five bombs were in this manner subjected to a digestion period. After the desired digestion time, each bomb was removed from the oven and allowed to cool to room temperature. The reaction mixture in each bomb was centrifuged to remove the solids and the solids were dispersed in distilled water and centrifuged to remove unreacted materials. This washing procedure was repeated, the washed solids were recovered and dried at 100°C. The AlPO₄-11 which had been added and the composite product produced were analyzed to contain the following components on a solids basis: Note the increase in SiO₂ content relative to deposition substrate as the time of digestion increased from 2 to 24 hours. This corresponds to the amount of deposition of the SAPO-11 outer layer on the silica free AlPO₄-11 deposition phase. All products had been subjected to X-ray powder diffraction analysis and found to have the diffraction patterns typical of AlPO₄-11 and SAPO-11. from 2 to 24 hours. This corresponds to the amount of deposition of the SAPO-11 outer layer on the silica free AlPO₄-11 deposition phase. All products had been subjected to X-ray powder diffraction analysis and found to have the diffraction patterns typical of AlPO₄-11 and SAPO-11. EXAMPLE 95 This example demonstrates the catalytic efficacy of a SAPO-11/AlPO₄-11 composite made according to the procedure of example 94, supra , digested for 4 hours, in oligomerizing ethylene. The oligomerization of ethylene to heavier olefins was effected in a microreactor according to the following procedure: A portion of a "4 hours" SAPO-11/AlPO₄-11 composite made according to the procedure of example 94 was calcined in air for over 2 hours at a temperature over 500°C., at a temperature sufficient to remove essentially all of the templates incorporated during synthesis. One gram of this activated composite, in the form of a powder, was blended with 3 grams of quartz chips and loaded into a tubular reactor which in turn was placed in a sand bath heat source. The reactor inlet was connected to a feed delivery system capable of delivering feed streams at controlled pressure and flow rate. The reactor outlet was connected to product collection system which contained a dry test meter to measure the volume of gas exiting the reactor and a on-line gas chromatograph capable of analyzing all products of interest (all C₁ to C₆ paraffins and olefins). The reactor was purged with nitrogen, pressurized to the reaction pressure of 350 psig. and heated to near the reaction temperature of 427°C. (800°F). When the reaction temperature was reached, the nitrogen purge was stopped and a feed consisting of 14 weight % ethylene in nitrogen was passed over the catalyst at a flow rate of 198 cc./min. while maintaining the reaction pressure and reaction temperature. The reactor effluent was analyzed and used to calculate the % of ethylene converted to oligomerized products. For comparison purposes, a sample of SAPO-11 prepared according to U.S. Patent 4,440,871, was tested under identical conditions. The results of both tests are summarized in the following: These results show that this composite is a significantly more active oligomerization catalyst than the SAPO-11. There has developed in recent years a technology for enhancing the octane rating of gasoline. Illustrations of this technology can be found in U.S. Patents Nos. 4,309,279, 4,309,280 and U.S. Patent No. 4,289,606. It is herein characterized as "octane boosting." Octane boosting is effected by providing a small amount of a special cracking catalyst (hereinafter called an "octane booster" or "octane boosting catalyst") in combination with a standard FCC catalyst or a novel FCC catalyst comprising a composite of this invention. In other words, another additive catalyst (the "octane booster" or "octane boosting catalyst") which generates greater concentration of gasoline components that provide better octane ratings for the gasoline is combined with a FCC catalyst during fluid catalytic cracking such that the gasoline made attains a higher octane rating. U.S. Patent No. 4,309,279 illustrates how one may employ an octane boosting catalyst in a FCC operation, and describes FCC processing and the application of octane boosting with an octane boosting catalyst. It has been determined that certain of the composites of this invention lend themselves to octane boosting by acting as the active component of an octane boosting catalyst. In particular, it has been found that intermediate pore size NZMSs deposited on another intermediate pore size NZMS of the same structure, such as SAPO-11 deposited on an equivalent pore molecular sieve, such as on AlPO₄-11 (as depicted in Examples 93 and 94 above), are active components for an octane boosting catalyst. The following example demonstrates the capacity of such a composite in boosting the octane of FCC generated gasoline. EXAMPLE 96 This example compares a blend of Y-82 molecular sieve "reference" FCC cracking catalyst containing 1 weight % of a SAPO-11/AlPO₄-11 composite made according to the procedure of Example 94 above, 6 hour digestion, physically mixed therewith, with a blend of Y-82 molecular sieve "reference" FCC cracking catalyst containing 4 weight % of the SAPO-11, physically mixed therewith. Both blends produced a higher quality gasoline product compared to the Y-82 reference, however, only 1 weight % of the SAPO-11/AlPO₄-11 composite was needed to equal the beneficial effects of the 4 weight % of SAPO-11 in the blend. The reference catalyst contained 18% weight percent Y-82, 62% weight percent kaolin clay and 20% weight percent silica binder and had been extruded to 1/16 inch O.D. pellets and dried at 110°C. overnight. The catalyst was then ground to 0,25/0,149 mm (60/100 mesh) and calcined at 500°C. for one (1) hour. The octane boosting catalysts were prepared by physically mixing, on an anhydrous weight percent basis, the SAPO-11/AlPO₄-11 composite and SAPO-11 with the Y-82 reference catalyst. Both the composite and SAPO-11 were calcined at 550°C. for two (2) hours before mixing with the Y-82. Each catalyst mixture was then steam treated at 760°C. for two (2) hours in 100% steam and submitted for microactivity testing (MAT). Conditions of the test are described in the ASTM procedure. The Table immediately below shows the MAT and gasoline analysis results for the three catalysts. The SAPO-11/AlPO₄-11 composite containing catalyst produced a comparable calculated octane boost to that of the SAPO-11 containing catalyst, yet using only one quarter the quantity of octance booster. The calculated boost was about 2 calculated RON units resulting from an apparent increase in the aromatic concentration. In both SAPO cases a small gasoline selectivity loss was observed. EXAMPLE 97 This example illustrates the superiority of the SAPO-11/AlPO₄-11 composite octane boosting catalyst over SAPO-11 when physically mixed with a Y-82 cracking catalyst at the 1 weight % additive level. The Y-82 catalyst contained 18% Y-82, 62% kaolin clay and 20% silica binder and was prepared by the same method described in Example 96. The catalysts containing the octane boosters were prepared by physically mixing SAPO-11 and SAPO-11/AlPO₄-11 composite in their respective as-synthesized form with 0,25/0,149 mm (60/100 mesh) Y-82 catalyst on a anhydrous basis. The samples were calcined in air for one (1) hour at 500°C. followed by steam treatment for two (2) hours at 760°C. or 790°C. in 100% steam. The results of the MAT evaluation are listed in the Table below for the 1% SAPO-11 and 1% SAPO-11/AlPO₄-11 composite octane boosted FCC catalysts. The SAPO-11/AlPO₄-11 composite containing catalysts demonstrate a substantially higher octane product, about 1-3 calculated RON units over that of the SAPO-11 containing catalysts at a comparable conversion. Comparison of the gasoline selectivity at comparable MAT conversion shows that the increased RON was obtained with no gasoline selectivity loss. In addition, the catalyst containing the composite in contrast to SAPO-11 per se gave a much superior octane boost after subjection to FCC steaming conditions. SAPO-11 SAPO-11/AlPO₄-11 COMPOSITE MAT Conversion 60.8 59.9 54.8 63.2 64.6 Octane 86.9 85.6 89.8 88.0 90.5 Gasoline selectivity 76.0 76.0 77.2 75.0 75.4 Temperature of steam treatment 760°C. 760°C. 790°C. 760°C. 760°C. EXAMPLE 98 This example compares the performance of the SAPO-11/AlPO₄-11 composite as an octane boosting catalyst at a 1 weight % level in a Y-82 reference catalyst with a zeolitic molecular sieve equivalent to ZSM-5 as an octane boosting catalyst at a 3 weight % level in a Y-82 reference catalyst. Both additives were combined with a Y-82 reference catalyst containing 18% Y-82, 62% kaolin clay and 20% silica binder and prepared as described in Example 96 above. The octane boosting catalysts, i.e., the SAPO-11/AlPO₄-11 composite and the zeolitic molecular sieve equivalent to ZSM-5, were calcined at 550°C. for 2 hours prior to being physically blended with the Y-82 reference catalyst, measures on an anhydrous weight basis. All of the blended catalyst samples were steam treated at 790°C. for two (2) hours in 100% steam and submitted for MAT testing. Listed in the Table immediately below are the results of the MAT evaluation and analysis of the gasoline product. Both the 1 % SAPO-11/AlPO₄-11 composite and 3 % ZSM-5 type molecular sieve containing catalysts demonstrated substantial boosts in calculated RON over the reference catalyst alone at near comparable MAT conversions. The ZSM-5 type molecular sieve containing catalyst showed a sizable gasoline selectivity loss not observed for the SAPO-11/AlPO₄-11 containing catalyst. This loss resulted in an undesirable increase in gas production. With both additive containing catalysts there was an increase in aromatics content in the gasoline along with some reduction in the paraffins concentration. The ZSM-5 type molecular sieve containing catalyst showed, however, an undesirable decrease in the iso/normal ratio in the paraffin fraction compared to the reference catalyst. This was not observed for the SAPO-11/AlPO₄-11 composite containing catalyst. These results demonstrate that the SAPO-11/AlPO₄-11 composite octane booster containing catalyst was able to achieve a similar boost in RON to that found for the ZSM-5 type molecular sieve containing catalyst without the undesirable gasoline selectivity loss. EXAMPLE 99 This example demonstrates the manufacture of a SAPO-31/AlPO₄-31 composite. (a) An initial mixture was prepared by adding 34.8 grams of 85% orthophosphoric acid in 75.7 grams H₂O to 21.7 grams of hydrated aluminum oxide (a pseudo-boehmite phase, 70.6 wt. % Al₂O₃, 29.4 wt. % H₂O). To this initial mixture, 18.1 grams of an aqueous silica sol (30.1 wt. % SiO₂) was added, followed by 22.8 grams of n-ethylbutylamine (ETBUTN). This reaction mixture had the following composition in terms of molar oxide ratios: 1.5 ETBUTN : 1.0 Al₂O₃ : 1. P₂O₅: 0.6 SiO₂: 40 H₂O. This reaction mixture was divided into three equal parts. One of these portions was combined with 4.0 grams of pre-formed AlPO₄-31, which is equivalent to a 14:1 weight ratio by weight of reaction mixture to AlPO₄-31. The reaction mixture was placed in a sealed stainless steel pressure vessel lined with polytetrafluoroethylene and heated in an oven at 200°C. for six (6) hours. The solids were recovered by centrifugation, washed with distilled water, and dried at 100°C. The reaction yielded 14.0 grams of product, indicating an AlPO₄-31:total product weight ratio of 4.0:14.0. The solids were subjected to chemical analysis and the chemical composition was found to be 36.6 wt. % Al₂O₃, 45.2 wt. % P₂O₅, 6.8 wt. % SiO₂, 4.5 wt. % C, 0.9 wt. % N, and 11.5 wt. % LOI. The following is the x-ray powder diffraction pattern data for the analyzed sample: (b) A portion of the solids in part (a) above was calcined at 600°C. for one (1) hour, and utilized in adsorption capacity studies using a standard McBain-Bakr gravimetric adsorption apparatus. After overnight activation at 360°C., the following data were obtained: Adsorbate Kinetic Diameter, nm Pressure mbar (Torr) Temp., °C. wt. % Adsorbed O₂ 0,346 133,3 (100.0) -183 7.4 O₂ 0,346 939,8 (705.0) -183 14.2 neopentane 0,62 134,6 (101.0) 22.7 4.1 neopentane 0,62 997,1 (748.0) 22.7 7.0 n-hexane 0,43 59,5 (44.6) 22.9 6.2 H₂O 0,265 6,1 (4.6) 23.0 4.3 H₂O 0,265 30,7 (23.0) 22.7 24.9 The pore size of the calcined product is greater than 0,62nm (6.2Å) as shown by adsorption of the neopentane, kinetic diameter of 0,62nm (6.2Å). X-ray analysis of the SAPO-31 sample used in the adsorption studies established that the x-ray diffraction pattern was essentially unchanged as a result of contact with the adsorbate species. (c) A portion of the calcined material from part (b) above was used in a test designed to show utility as a catalyst for hydrocarbon cracking. A 1.64 gram portion was reacted with a 2 mole % n-butane in helium stream at 500°C. and about 50 cm³/min. (STP) flow rate for 50 minutes. The pseudo-first-order rate constant (k A ) for butane consumption was 0.8. EXAMPLE 100 This example demonstrates the manufacture of a SAPO-31/AlPO₄-31 composite. (a) An initial mixture was prepared by adding 46.8 grams of 85 % orthophosphoric acid in 100.8 grams H₂O to 28.9 grams of hydrated aluminum oxide (a pseudo-boehmite phase, 70.6 wt. % Al₂O₃, 29.4 wt. % H₂O). To this initial mixture 24.0 grams of an aqueous silica sol (Ludox™-LS, 30.1 wt. % SiO₂) was added, followed by 30.5 grams of n-ethylbutylamine (ETBUTN). The reaction mixture had the following composition in terms of molar oxide ratios: 1.5 ETBUTN : 1.0 Al₂O₃ : 1.0 P₂O₅ : 0.6 SiO₂ : 40 H₂O. A 40.0 gram portion of this reaction mixture was mixed with 6.2 grams of AlPO₄-31, which is equivalent to a 6.45:1 ratio by weight of reaction mixture to AlPO₄-31. The reaction mixture was placed in a sealed stainless steel pressure vessel lined with polytetrafluoroethylene and heated in an oven at 200°C. for three (3) hours. The solids were recovered by centrifugation, washed with water, and dried at 100°C. The reaction yielded 12.9 grams of product, indicating a deposition substrate:total product ratio of 6.2:12.9. The solids were subjected to chemical analysis and the chemical composition was found to be 37.2 wt. % Al₂O₃, 47.0 wt. % P₂O₅ 4.5 wt. % SiO₂, 4.0 wt. % C, 0.8 wt. % N and 10.7 wt. % LOI. The x-ray powder diffraction pattern data of the analyzed sample is as follows: (b) A portion of the solids in part (a) above was calcined at 600°C. for one (1) hour, and utilized in adsorption capacity studies using a standard McBain-Bakr gravimetric adsorption apparatus. After overnight activation at 350°C., the following data were obtained: Adsorbate Kinetic Diameter, nm Pressure mbar (Torr) Temp., °C. wt. % Adsorbed O₂ 0,346 133,3 (100.0) -183 7.6 O₂ 0,346 939,8 (705.0) -183 13.9 neopentane 0,62 134,6 (101.0) 22.7 4.2 neopentane 0,62 997,1 (748.0) 22.7 7.0 n-hexane 0,43 59,5 (44.6) 22.9 6.2 H₂O 0,265 6,1 (4.6) 23.0 3.8 H₂O 0,265 30,7 (23.0) 22.7 24.6 The pore size of the calcined product is greater than 0,62nm (6.2Å) as shown by adsorption of neopentane, kinetic diameter of 0,62nm (6.2Å). X=ray analysis of the SAPO-31 sample used in the adsorption studies established that the x-ray diffraction pattern was essentially unchanged as a result of contact with the adsorbate species. (c) A portion of the calcined material from part (b) above was used in a test designed to show utility as a catalyst for hydrocarbon cracking. A 2.89 gram portion was reacted with a 2 mole % n-butane in helium stream at 500° C. and about 50cm³/min (STP) flow rate for 50 minutes. The pseudo-first order rate constant k A for butane consumption was 0.3. EXAMPLE 101 The following table compares the 1-hexene conversion (at 650°F.(343°C.) and 900°F.(482°C.), as indicated, 3,8 bar (40 psig) and 8 cm³/minute flow) of the SAPO-11/AlPO₄-11 composite catalysts (designated "COMP.") of Example 94 against physical mixtures of SAPO-11 and AlPO₄-11, SAPO-11 as such, and the aforementioned equivalent of ZSM-5 as to the mole percentage of total 1-hexene conversion, double bond (D.B.) isomerization, skeletal isomerization, cracking, oligomerization and other conversions: Cat. Type COMP 2Hrs. COMP 4Hrs. COMP 6Hrs. COMP 24Hrs. PHYS MIX (30/70) PHYS MIX (10/90) SAPO-11 SAPO-11 482°C (@900°F) COMP 4HRS. 482°C (@900°F) ZSM-5 type TotalConv. 88.50 92.35 87.95 91.67 88.56 87.00 89.10 95.96 94.64 96.57 D.B.Isom. 15.2 11.9 13.29 11.24 63.6 61.91 45.01 7.85 4.55 2.5 Skel.Isom. 66.94 60.68 64.08 61.52 30.78 34.85 44.51 24.86 17.55 13.22 Cracking 7.32 12.24 11.18 12.8 0.96 0.76 3.08 40.18 33.06 28.79 Oligomer 6.58 15.74 7.61 11.37 3.21 0.87 3.55 19.82 41.02 50.58 Others 3.96 0.00 3.83 3.03 1.46 1.61 3.85 7.36 3.83 4.91 The above-table demonstrates that this composite catalyst provides a superiority over SAPO-11 per se and a blend of NZMS-11 corresponding to the phases in higher total conversion, skeletal isomerization, cracking, and oligomerization. The table shows the composites to be superior in this test over the ZSM-5 type catalyst with respect to double bond and skeletal isomerization, which are believed to be primary factors in the superior octane boosting performance of this composite, as demonstrated above. EXAMPLE 102 This example demonstrates the formation of a SAPO-47 outer layer on a CoAPSO-47 deposition substrate by differential crystallization. (a) An initial reaction mixture was prepared by dissolving 12.5 grams of cobalt acetate tetrahydrate (Co(CH₃CO₂)₂·4H₂O) in 128.5 grams of water, to which was added 112.8 grams of aluminum isopropoxide (Al(OC₃H₇)₃). To the resulting mixture, 36.1 grams of an aqueous silica sol (Ludox™ LS, 30.1 wt. % SiO₂) was added, followed by the addition of a pre-mixed solution of 69.3 grams of 85% orthophosphoric acid (H₃PO₄), 128.7 grams of water and 71.2 grams of diethylethanolamine [(CH₃CH₂)₂NCH₂CH₂OH]. The resultant mixture had a composition in terms of molar oxide ratios of: 2.0 Et₂NEtOH : 0.167 CoO : 0.917 Al₂O₃ : 1.0 P₂O₅ : 0.6 SiO₂ : 0.33 CH₃COOH : 5.5 iPrOH : 55 H₂O The reaction mixture was placed in a 0.6 liter stainless steel pressure reaction vessel and heated from room temperature to 150°C over one hour with stirring. The reaction mixture was digested at 150°C under autogeneous pressure for 121.5 hours with stirring. The solids were recovered by centrifugation, washed with water, filtered, and dried in air at room temperature. A portion of the solids was subjected to x-ray and chemical analysis. The x-ray powder diffraction pattern follows: (b) The chemical composition by bulk analysis was found to be 26.4 wt. % Al₂O₃, 38.6 wt. % P₂O₅, 5.0 wt. % CoO, 5.5 wt. % SiO₂, 10.6 wt. % C, 2.1 wt. % N, and 23.2 wt. % LOI. A portion of the sample was examined by conventional SEM (scanning electron microscope) survey with EDAX (energy dispersive analysis by x-ray) as well as a mounted and microtomed section. EDAX studies on clean crystals with a crystal morphology characteristic of the 47 structure-type gave the following analyses based on relative peak heights: All but the smallest of the crystals analyzed show Co-rich centers and Si-rich peripheries. (c) A portion of the sample was analyzed for particle size by sedigraph. Two samples were prepared using the same gel composition and differed only in reaction time. Sedigraph results revealed a noticeable increase in the average particle size when the crystallization time was increased, consistent with the observation of epitaxial growth and Co concentration gradients under the optical microscope and other related data. (d) A portion of the solids in part (a) above was calcined at 500°C., and utilized in adsorption capacity studies using a standard McBain-Bakr gravimetric adsorption apparatus. After overnight activation at 350°C., the following data were obtained: Adsorbate Kinetic Diameter,nm Pressure mbar(Torr) Temp.,°C. wt. % Adsorbed O₂ 0,346 133,3 (100.0) -183 25.7 O₂ 0,346 933,1 (700.0) -183 31.3 n-butane 0,43 133,3 (100.0) (22-24°C) 8.1 n-butane 0,43 933,1 (700.0) (22-24°C) 8.6 n-hexane 0,43 70,7 (53.0) (22-24°C) 4.3 H₂O 0,265 6,1 (4.6) (22-24°C) 29.4 (e) A portion of the calcined material from (d) above was used in a test designed to show utility as a catalyst for hydrocarbon cracking. A 2.17 gram portion was reacted with a 2 mole% n-butane in helium stream at 500°C and about 50 cm³/min. (STP) flow rate for 50 minutes. The pseudo-first-order rate constant k A for butane consumption was 17.2. A 2.55 gram portion of the as synthesized sample from part (a) above was activated in situ in helium at 500°C for 2 hours then reacted with a 2 mole % n-butane in helium stream at 500°C and about 50 cm³/min. (STP) flow rate for 50 minutes. The pseudo-first-order rate constant k A for butane consumption was 2.4. EXAMPLE 103 This example demonstrates the manufacture of a CoAPSO-47/SAPO-47 composite in which SAPO-47 is the deposition substrate. (a) An initial reaction mixture was prepared by combining 80.8 grams of 85% orthophosphoric acid (H₃PO₄), 267.2 grams of water, and 61.5 grams of methylbutylamine (MeBuNH). To the resulting mixture, 14.4 grams of SiO₂ (Hi-Sil) was added followed by 51.7 grams of a hydrated pseudo-boehmite alumina (70.6 wt% Al₂O₃). The resultant final mixture had a composition in terms of molar oxide ratios of: 2.0 MeBuNH : 0.6 SiO₂ : 1.0 Al₂O₃ : 1.0 P₂O₅ : 50 H₂O The reaction mixture was placed in a 0.6 liter stainless steel pressure vessel and heated from room temperature to 200C over one hour with stirring. The reaction mixture was digested at 200°C. with stirring for 20 hours. At this point the reaction mixture was cooled to 50°C. and a small amount of sample was removed. The solids were collected by centrifugation, washed by vacuum filtration and dried in air at room temperature. (b) To the remaining reaction mixture a premixed solution of 13.9 grams of cobalt acetate tetrahydrate (Co(CH₃CO₂)₂ : 4 H₂O) dissolved in 46.5 grams of water was added. The resultant mixture had a composition in terms of molar oxide ratios of: 2.0 MeBuNH : 0.6 SiO₂ : 0.20 CoO : 1.0 Al₂O₃ : 1.0 P₂O₅ : 0.4 CH₃COOH : 60 H₂O. The reaction mixture was reheated to 150°C. over one hour with stirring and digested for 45 hours at 150°C. with stirring. The small particle solids were recovered and washed by centrifugation, while the coarser fraction was recovered by settling, washed by vacuum filtration and dried in air at room temperature. (c) A portion of the products recovered in (a) and (b) were subjected to x-ray and chemical analysis. The x-ray powder diffraction patterns are set forth in the following tables: (d) The SAPO-47 portion of the sample had a chemical composition by bulk analysis of 36.6 wt. % Al₂O₃, 27.5 wt. % P₂O₅, 14.1 wt. % SiO₂, 8.7 wt. % C, 2.0 wt. % N, 20.6 wt. % LOI. The CoAPSO-47 on SAPO-47 portion had a chemical composition by bulk analysis of 28.3 wt. % Al₂O₃, 35.3 wt. % P₂O₅, 9.0 2 wt. % SiO₂, 4.9 wt. % CoO, 11.0 wt. % C and 21.0 wt. % LOI. (e) Sedigraph particle size measurements were obtained on the SAPO-47 before and CoAPSO-47 after crystallization of the CoAPSO-47 layer. The results indicate an increase in the average particle size consistent with epitaxial growth. (f) A portion of the solid in part (a) above was calcined at 500°C. and utilized in a test designed to show utility as a catalyst for hydrocarbon cracking. A 1.64 gram portion was reacted with a 2 mole % n-butane in helium stream at 500°C. and about 50 cm³/min. (STP) flow rate for 50 minutes. The pseudo-first-order rate constant k A for butane consumption was 1.6. A portion of the solids in part (b) above was calcined at 500°C. and utilized in a test designed to show utility as a catalyst for hydrocarbon cracking. A 2.30 gram portion was reacted with a 2 mole % n-butane in helium stream at 500°C. and about 50 cm³/min. (STP) flow rate for 50 minutes. The pseudo-first-order rate constant k A for butane consumption was 42.9. EXAMPLE 104 The following is a preparation of CoAPO-31. (a) An initial mixture was prepared by combining 230.6 grams of 85 % orthophosphoric acid (H₃PO₄) and 593.0 grams of distilled water, to which was added 146.7 grams of a hydrated aluminum oxide (70.6 wt. % Al₂O₃, 29.6 wt. % LOI, pseudo-boehmite). To the resulting mixture 152.0 grams of di-n-propylamine (C₆H₁₅N) was added, followed by the addition of 5 wt. % (dry oxide basis) of AlPO₄-31 seed. The resulting mixture was then divided into several portions. A solution, prepared by dissolving 10.0 grams of cobalt acetate tetrahydrate (Co(CH₃CO₂)₂)4·4H₂O in 66.9 grams of distilled water, was added to 152.4 grams of the above described mixture to form the final reaction mixture having a composition in terms of molar oxide ratios of: 1.5 (C₆H₁₅N) : 0.2 CoO : 1.0 Al₂O₃ : 1.0 P₂O₅ : 0.4 CH₃COOH : 58.5 H₂O. The reaction mixture was placed in a sealed Teflon™-lined stainless steel pressure vessel and heated in a oven at 150 °C. under autogenous pressure for 168 hours. The solids were recovered by centrifugation, washed with water, filtered, and dried in air at room temperature. A portion of the solids was subjected to X-ray and chemical analysis. The product was a mixture but the major phase exhibited an x-ray powder diffraction pattern characterized by the following data: The chemical composition was found to be 28.4 wt. & Al₂O₃, 32.9 wt. % P₂O₅, 6.1 wt. % CoO, 4.4 wt. % C, 0.74 wt. % N, and 31.8 wt. % LOI. Expressed in terms of molar oxide ratios (anhydrous basis), the composition was: 0.26 C₆H₁₅N : 0.37 CoO : 1.20 Al₂O₃ : 1.00 P₂O₅ which corresponds to an empirical chemical composition of: 0.36 C₆H₁₅N : (Co 0.08 Al 0.50 P 0.42 )O₂ EXAMPLE 105 The following is a preparation of CoAPSO-41: To 18.0 grams of aluminum isopropoxide in a Waring blender was added a solution of 10.5 grams of 85 wt. % orthophosphoric acid (H₃PO₄) in 29.1 grams H₂O. This mixture was blended until it thickened and became homogeneous. To this mixture was added, in order, 1) 6.2 grams of Ludox™ LS (a colloidal silica, 30 wt.% in H₂O, sold by Du Pont), 2) 2.5 grams cobalt acetate (Co(OAc)₂·4H₂O) dissolved in 10.1 grams H₂O, and 3) 10.1 grams of di-n-propylamine (n-Pr₂NH), each addition followed by blending the mixture until homogeneous. Finally 1.8 grams of a crystalline AlPO₄-41 seed was added and mixed in. The reaction mixture had a composition (without seed), expressed in molar oxide ratios of: 2.0 nPr₂NH : 0.2 CoO : 0.6 SiO₂ : 0.9 Al₂O₃ : 0.9 P₂O₅ : 50 H₂O : 0.4 HOAc : 5.4 iPrOH The final mixture was placed in a stainless steel pressure vessel lined with polytetrafluoroethylene and heated at autogeneous pressure for 24 hours at 200 °C. The crystallized product was recovered by filtration and washed, and then dried at 100 °C. The product was a mixture but the major product exhibited an X-ray powder diffraction pattern characterised by the following data: 2 theta d nm Rel.Int. 6.80 1,299 27 9.69 0,913 29 13.69 0,647 25 18.26 0,486 16 20.62 0,431 7 21.12 0,421 100 22.20 0,400 84 22.88 0,389 40 23.16 0,384 34 25.28 0,352 14 25.79 0,345 23 29.50 0,303 20 31.39 0,2850 8 37.75 0,2383 13 43.07 0,2100 5 EXAMPLE 106 This example illustrates the preparation of CoAPSO-37 referred to in Table D, supra . (a) An initial mixture was prepared by adding 6.8 grams of a hydrated aluminum oxide (70.6 wt. % Al₂O₃, 29.6 wt. % LOI, pseudo-boehmite) gradually to 11.6 grams of 85% orthophosphoric acid in 5.1 grams of H₂O. To this mixture a suspension was added comprised of 2.0 grams of fumed silica (94.5 wt. % SiO₂, 5.5 wt. % H₂O) Cab-O-Sil EH-5 in a 0.6 grams tetramethylammonium hydroxide (TMAOH), 50.9 grams 40% aqueous tetrapropylammonium hydroxide (TPAOH) solution. A solution prepared by dissolving 2.5 grams of cobalt acetate (CO(CH₃COO)₂·4H₂O) in 5.0 grams of H₂O was then added. (The cobalt salt was rinsed in with an additional 1.0 gram of H₂O.) One and one-half grams of SAPO-37 seed was added. The composition of the final reaction mixture, in terms of molar oxide ratios, was: 1.0 TPA₂O : 0.03 TMA₂O : 1.0 Al₂O₃ : 1.0 P₂O₅ : 0.6 SiO₂ : 0.2 CoO : 53 H₂O The reaction mixture was placed in a sealed stainless steel pressure vessel lined with polytetrafluoroethylene and heated in an oven at 200°C. for 24 hours. The solids were recovered by centrifugation, washed with water, and dried in air at room temperature. The solids were subjected to chemical analysis and the chemical composition was found to be 27.1 wt. % Al₂O₃, 35.7 wt. % P₂O₅, 7.5 wt. % CoO, 4.7 wt. % SiO₂, 8.2 wt. % C, 1.4 wt. % N, and 24.3 wt. % LOI. Expressed in terms of molar oxide ratios, the composition was: 0.06 TPA₂O 0.12 TMA₂O 0.38 CoO : 1.00 Al₂O₃ : 0.95 P₂O₅ : 0.29 SiO₂ : 1.13H₂O which corresponds to an empirical chemical composition (anhydrous basis) of: .05TMAOH .03TPAOH :(CO 0.082 Al 0.438 P 0.415 Si 0.064 )O₂ The solids were subjected to x-ray analysis, and found to be a mixture of 2 crystalline components. The major component, CoAPSO-37, had an x-ray powder diffraction pattern characterized by the following data: 2-Theta d nm 100 x I/I o 6.1 1,436 100 10.1 0,877 29 11.8 0,747 5 15.6 0,568 45 18.6 0,478 33 20.3 0,438 15 21.2 0,419 4 22.7 0,392 11 23.6 0,378 35 25.7 0,347 6 26.9 0,331 26 27.6 0,323 11 29.5 0,302 6 30.6 0,2920 8 31.3 0,2859 17 32.3 0,2769 4 34.0 0,2639 7 34.5 0,2597 4 37.8 0,2382 4 47.6 0,1909 3 49.2 0,1850 4 53.8 0,1703 3 SEM examination of the product showed the dominant morphology to be octahedral crystal formations believed to be CoAPSO-37 particles. Small nearly spherical impurity particles are also visible. EDAX microprobe analysis of the octahedral particles gave the following relative peak heights: Element Average of Spot Probes Co 0.03 Al 0.40 P 0.46 Si 0.11 (b) A portion of the solids from part (a) above was calcined in air at 600°C. for 1-1/4 hours, placed directly into a desiccator and subjected to x-ray analysis under N₂. The x-ray powder diffraction pattern obtained was essentially the same as in the above Table. (c) A portion of the calcined material of part (b) above was utilized in adsorption capacity studies using a standard McBain-Bakr gravimetric adsorption apparatus. After overnight activation at about 350°C. the following data were obtained: Adsorbate Kinetic Diameter,nm Pressure mbar(Torr) Temp.,°C. Wt. % Adsorbed O₂ 0,346 136,6(102.5) -183 20.0 O₂ 0,346 1004 (753.0) -183 27.0 neopentane 0,62 136,0(102.0) 22.1 8.0 neopentane 0,62 937,1(703.0) 22.8 10.0 n-hexane 0,43 60 (45) 22.4 12.3 H₂O 0,265 6,1 (4.6) 20.8 23.3 H₂O 0,265 24,7 (18.5) 22.3 32.0 The results show that the CoAPSO-37 product is a microporous molecular sieve with a pore size of the calcined product of at least 0.62 nm (6.2Å). A portion of the material form part (a) above was used in a test designed to show utility as a catalyst for hydrocarbon cracking. A 1.96 gram portion was calcined in situ (600°C. in air, 1 hour) and reacted with a 2 mole % n-butane in helium stream at 500°C. and about 50 cm³/min (STP) flow rate for 10 minutes. The pseudo-first-order rate constant k A for butane consumption was 1.4. EXAMPLE 107 This example shows the preparation of MnAPSO-37 referred to in Table D, supra . (a) An initial mixture was prepared by adding 28.0 grams of a hydrated aluminum oxide (70.6 wt. % Al₂O₃, 29.6 wt. % LOI, pseudo-boehmite) gradually to 46.1 grams of 85 % orthophosphoric acid in 32.0 grams of H₂O. To this mixture a suspension was added comprised of 7.6 grams of Cab-O-Sil EH-5 in a 2.2 grams tetramethylammonium hydroxide (TMAOH)/ 203.3 grams 40 % aqueous tetrapropylammonium hydroxide (TPAOH) solution. A solution prepared by dissolving 9.8 grams of manganese acetate (Mn(CH₃COO)₂.4H₂O) in 15.5 grams of H₂O was then added. The total reaction mixture was divided into four parts, one of which was seeded with 1.5 grams of SAPO-37. The composition of the final reaction mixture, in terms of molar oxide ratios, was: 1.0 TPA₂O : 0.03 TMA₂O : 1.0 Al₂O₃ : 1.0 P₂O₅ :0.6 SiO₂ : 0.2 MnO : 55 H₂O The seeded portion of the reaction mixture was placed in a sealed stainless steel pressure vessel lined with polytetrafluoroethylene and heated in an oven at 150°C. for 8 days. The solids were recovered by centrifugation, washed with water, and dried in air at room temperature. The solids were subject to chemical analysis and the chemical composition was found to be 34.0 wt. % Al₂O₃, 27.8 wt. % P₂O₅, 5.4 wt. % MnO, 6.9 wt. % SiO₂, 9.1 wt. % C., 1.1 wt. % N, and 24.4 wt. % LOI. Expressed in terms of molar oxide ratios, the composition was: 0.08 TPA₂O : 0.03 TMA₂O : 0.23 MnO : 1.00 Al₂O₃ : 0.59 P₂O₅ : 0.34 SiO₂: 1.50 H₂O which corresponds to an empirical chemical composition (anhydrous basis) of: .02TMAOH .04TPAOH :(Mn 0.061 Al 0.534 P 0.314 Si 0.092 )O₂ The solids were subjected to x-ray analysis, and found to be a mixture of 2 crystalline components. The major phase, MnAPSO-37, had an x-ray powder diffraction pattern characterized by the following data: 2-Theta d nm 100 x I/I o 6.0 1,460 100 10.0 0,887 23 11.7 0,755 3 15.4 0,574 40 18.5 0,480 33 20.1 0,441 14 21.0 0,422 3 22.6 0,394 11 23.4 0,380 31 25.6 0,349 5 26.8 0,333 20 27.5 0,324 3 29.4 0,304 5 30.5 0,293 6 31.2 0,287 10 32.1 0,2785 3 33.8 0,265 6 34.3 0,261 4 37.6 0,239 4 40.3 0,224 2 43.7 0,207 2 47.4 0,192 2 48.8 0,1865 3 49.2 0,185 4 51.6 0,177 4 52.1 0,175 2 53.6 0,170 3 SEM examination of the product showed the dominant morphology to be octahedral crystal formations believed to be MnAPSO-37 particles. Small nearly spherical impurity particles are also visible. EDAX microprobe analysis of the octahedral particles gave the following relative peak heights: Element Average of Spot Probes Mn 0.02 Al 0.44 P 0.39 Si 0.15 (b) A portion of the solids from part (a) above was calcined in air at 600°C. for 1-1/4 hours, placed directly into a desiccator and subjected to x-ray analysis under N₂. The x-ray powder diffraction pattern obtained was essentially the same as in Table B above. (c) A portion of the calcined material of part (b) above was utilized in adsorption capacity studies using a standard McBain Bakr gravimetric adsorption apparatus. After overnight activation at about 350°C. the following data were obtained: Adsorbate Kinetic Diameter,nm Pressure mbar (Torr) Temp.,°C. Wt. % Adsorbed O₂ 0,346 136,6 (102.5) -183 15.7 O₂ 0,346 1004 (753.0) -183 25.7 neopentane 0,62 136,0 (102.0) 22.1 6.5 neopentane 0,62 937,1 (703.0) 22.8 9.7 n-hexane 0,43 60 (45) 22.4 10.5 H₂O 0,265 6,1 (4.6) 20.8 19.2 H₂O 0,265 24,7 (18.5) 22.3 35.5 The results show that the MnAPSO-37 product is a microporous molecular sieve with a pore size of the calcined product of at least 0,62 nm (6.2Å) as shown by adsorption of neopentane, kinetic diameter of 0,62 nm (6.2Å). MnAPSO-37 is a crystalline manganese silicoaluminophosphate having a characteristic x-ray diffraction pattern which contains at least the d-spacings set forth as follows: 2-Theta d nm Relative Intensity 6.0-6.2 1,422-1,460 vs 10.0-10.1 0,872-0,887 m 15.4-15.6 0,566-0,574 m 18.5-18.7 0,475-0,480 m 23.4-23.6 0,377-0,380 m 26.8-27.0 0,330-0,333 m EXAMPLE 108 This example shows the preparation of ZAPSO-37 referred to in Table D, supra . (a) An initial mixture was prepared by adding 27.8 grams of a hydrated aluminum oxide (70.6 wt. % Al₂O₃, 29.6 wt. % LOI, pseudo-boehmite) gradually to 46.3 grams of 85 % orthophosphoric acid in 28.5 grams of H₂O. To this mixture a suspension was added comprised of 7.6 grams of Cab-O-Sil EH-5 in a 2.3 grams tetramethylammonium hydroxide (TMAOH)/ 203.8 grams 40 % aqueous tetrapropylammonium hydroxide (TPAOH) solution. A solution prepared by dissolving 8.8 grams of zinc acetate (Zn(CH₃COO)₂.2H₂O) in 20.0 grams of H₂O was then added. The total reaction mixture was divided into four parts. The composition of the final reaction mixture, in terms of molar oxide ratios was: 1.0 TPA₂O : 0.03 TMA₂O : 1.0 Al₂O₃ : 1.0 P₂O₅ :0.6 SiO₂ : 0.2 ZnO : 55 H₂O. One portion of the reaction mixture was placed in a sealed stainless steel pressure vessel lined with polytetrafluoroethylene and heated in an oven at 200°C. for 7 days. The solids were recovered by centrifugation, washed with water and dried in air at room temperature. The solids were subjected to chemical analysis and the chemical composition was found to be 25.0 wt. % Al₂O₃, 36.0 wt. % P₂O₅, 4.5 wt. % ZnO, 9.9 wt. % SiO₂, 11.8 wt. % C, 1.4 wt. % N, and 24.1 wt. % LOI. Expressed in terms of molar oxide ratios, the composition was: 0.15 TPA₂O : 0.06 TMA₂O : 0.22 ZnO : 1.00 Al₂O₃:1.04 P₂O₅ : 0.67 SiO₂ : 1.00 H₂O. which corresponds to an empirical chemical composition (anhydrous basis) of: .02TMAOH : .04TPAOH :(Zn 0.045 Al 0.403 P 0.416 Si 0.136 )O₂ The solids were subjected to x-ray analysis and found to have an x-ray powder diffraction pattern characterized by the following data: (b) Another portion of the reaction mixture prepared in (a), above, was digested at 150°C. for 7 days. After similar workup of the product the x-ray diffraction powder pattern of the solids was essentially the same as set forth in the preceding Table. SEM examination of the product showed the morphology to be very small particles (<1 micron) whose shape was difficult to determine. EDAX area scan analysis of the particles gave the following relative peak heights: Element Average of Spot Probes Zn 0.08 Al 0.38 P 0.32 Si 0.22 (c) A portion of the solids from part (a) above was calcined in air at 600°C. for 1-1/4 hours, placed directly into a desiccator and subjected to x-ray analysis under N₂. The x-ray powder diffraction pattern obtained was essentially the same as in the preceding Table. (d) A portion of the calcined material of part (c) above was utilized in adsorption capacity studies using a standard McBain-Bakr gravimetric adsorption apparatus. After overnight activation at about 350°C the following data were obtained: Adsorbate Kinetic Diameter,nm Pressure mbar(Torr) Temp.,°C. Wt. % Adsorbed O₂ 0,346 136,6 (102.5) -183 30.8 O₂ 0,346 1004 (753.0) -183 41.3 neopentane 0,62 136,0 (102.0) 22.1 12.3 neopentane 0,62 937,1 (703.0) 22.8 15.4 n-hexane 0,43 60 (45) 22.4 18.6 H₂O 0,265 6,1 (4.6) 20.8 31.4 H₂O 0,265 24,7 (18.5) 22.3 44.2 The results show that the ZAPSO-37 product is a microporous molecular sieve with a pore size of the calcined product of at least 0,62 nm (6.2Å) as shown by adsorption of neopentane, kinetic diameter of 0,62 nm (6.2Å). ZAPSO-37 is a crystalline zinc silicoaluminophosphate having a characteristic x-ray diffraction pattern which contains at least the d-spacing set forth as follows: 2-Theta d nm Relative Intensity 6.1-6.2 1,434-1,442 vs 10.1 0,875-0,879 m 15.6 0,567-0,570 m 18.6 0,476-0,477 m 23.5-23.6 0,377-0,378 m 26.9-27.0 0,330-0,331 m EXAMPLE 109 This example shows the preparation of AlPO₄-34. a) A reaction mixture was prepared by combining 51.8 grams of 85 wt. % orthophosphoric acid (H₃PO₄) and 130.8 grams of aqueous monoaluminum phosphate (Al(H₂PO₄)₃, 7.8 wt. % Al₂O₃, 32.8 wt. % P₂O₅), to which was added 368 grams of 39.3 wt. % aqueous tetraethylammonium hydroxide (TEAOH) and stirred until homogeneous. The composition of the final reaction mixture, in terms of molar oxide ratios was: 10.0 TEAOH · Al₂O₃ · 5.3 P₂O₅ · 177 H₂O. A portion of the reaction mixture (274.6 grams) was sealed in a teflon jor and was heated in an oven 100°C. for 144 hours. The liquid was decanted and the remaining solids were washed with H₂O and dried in ambient air. The 4.6 grams of solid obtained were analyzed by x-ray powder diffraction and found to be AlPO₄-18, as described in Example 46 of U. S. Patent No. 4,310,440. The decanted liquid was sealed in a Teflon™ jar and heated in an oven at 100°C. 269 hours. 5.0 grams of calcined AlPO₄-5 was added to the hot reaction mixture, mixed until homogeneous, and heated at 100°C. for 71 hours. The AlPO₄-34 product was recovered by centrifugation, washed with H₂O, and dried in air at ambient temperature. The calcined AlPO₄-5 employed above was prepared in a manner similar to that disclosed in Examples 1-26 of U.S. Patent No. 4,310,440 using 85% orthophosphoric acid, hydrated alumina (pseudo-boehmite phase), and tetraethylammonium hydroxide and tripropylamine as templates. Crystallization was effected in a stirred stainless steel autoclave at 150°C. and autogeneous pressure. X-ray powder diffraction of the dried product revealed AlPO₄-5 as the sole product. The as-synthesized AlPO₄-5 was calcined in air at 600°C. for 2.5 hours then was rehydrated at ambient conditions. A portion of the 4.6 grams of dried AlPO₄-34 product was analyzed and the following chemical analysis obtained: The above chemical analysis corresponds to a product composition in molar oxide ratios of: 0.40 TEAOH : Al₂O₃ : 1.18 P₂O₅ : 177 H₂O which corresponds to an empirical chemical composition (anhydrous basis) of: 0.092 TEAOH : (Al 0.46 P 0.54 )O₂. The x-ray powder diffraction pattern of the AlPO₄-34 product was characterized by the data in the following table: 2-Theta d nm 100 (I/I o 9.6 0,924 100 13.0 0,680 12 14.1 0,627 11 15.6 0,569 7 16.2 0,548 23 16.8 0,527 3 17.9 0,494 14 19.1 0,464 3 20.9 0,425 41 22.1 0,402 4 22.6 0,394 3 23.3 0,381 3 25.1 0,354 15 26.3 0,339 9 28.3 0,316 3 30.2 0,2959 4 30.9 0,2896 22 32.5 0,2753 3 33.9 0,2647 3 34.9 0,2570 3 36.5 0,2465 2 39.9 0,2258 2 43.3 0,2090 2 49.5 0,1842 2 51.3 0,1782 3 b) A portion of the AlPO₄-34 product obtained in part a) was calcined in air by heating to 600°C at 31°C./hour and holding at 600°C. for 4.5 hours. After cooling to room temperature and rehydrating in ambient air, the calcined solid had an x-ray powder diffraction pattern characterized by the data in the following table: 2-Theta d nm 100 (I/I o ) 9.7 0,910 100 10.2 0,865 34 12.1 0,730 3 12.9 0,688 19 15.5 0,573 4 17.2 0,515 4 19.5 0,455 29 19.8 0,448 26 20.7 0,430 23 21.5 0,413 5 22.8 0,391 7 24.4 0,365 14 24.9 0,358 7 25.9 0,344 5 27.0 0,330 5 27.4 0,325 3 28.2 0,317 8 29.3 0,305 17 31.0 0,2883 15 32.0 0,279 10 33.0 0,2714 7 38.4 0,2347 3 40.1 0,2250 3 43.1 0,2097 2 49.6 0,1838 3 53.0 0,1726 3 A portion of the calcined AlPO₄-34 was placed in a standard McBain-Bakr gravimetric adsorption apparatus and activated under vacuum at 350°C. overnight. Subsequent adsorption data were measured as listed below. Vacuum activations at 350°C. were performed between all adsorbate changes. Adsorbate Molecule Kinetic Diameter,nm Pressure mbar(Torr) Temp. (°C) Wt. % Adsorbed O₂ 0,346 141 (106) -183 21.8 O₂ 0,346 940 (705) -183 31.7 isobutane 0,50 938 (704) 23 0.9 n-hexane 0,43 59 (44) 22 9.7 H₂O 0,265 6,1 (4.6) 22 24.9 H₂O 0,265 25,3 (19) 23 37.0 These results show that the AlPO₄-34 product is a microporous molecular sieve with a pore size at least 0,43 nm (4.3 Å) but less than 0,50 nm (5.0 Å). EXAMPLE 110 (a) An initial mixture was prepared by adding 43.5 grams of a hydrated aluminum oxide (70.6 wt. % Al₂O₃, 29.6 wt. % LOI, pseudo-boehmite) gradually to 57.5 grams of 85% orthophosphoric acid in 119.3 grams of H2O and stirring until uniform. To this mixture a suspension was added comprised of 12.2 grams of Cab-O-Sil EH5 in a 5.7 grams tetramethylammonium hydroxide (TMAOH)/197.4 grams 40% aqueous tetrapropylammoniumhydroxide (TPAOH) solution and stirred till homogeneous. The composition of this reaction mixture, in terms of molar oxide ratios, was: 0.6 TPA₂O : 0.05 TMA₂O : 1.0 Al₂O₃ : 0.8 P₂O₅ : 0.6 SiO₂ : 50 H₂O Finally, 36.6 grams of NH₄Y zeolite was added and thoroughly mixed. The reaction mixture was placed in a 0.6 liter stirred stainless steel pressure reactor and was heated with stirring to 200°C. in 1 hour and maintained at 200°C. for 5 hours. The solids were recovered by centrifugation, washed with water, dried at 100°C. and rehydrated at room temperature at 50% humidity. The product recovered weighed 77.2 grams. The chemical composition was found to be 26.4 wt % Al₂O₃, 20.5 wt % P₂O₅, 24.7 wt % SiO₂, 9.3 wt % C, 2.7 wt % N, and 27.4 wt % LOI which corresponds to an empirical chemical composition (calcined, anhydrous basis) of: (Al 0.425 P 0.237 Si 0.338 )O₂ The solids were subjected to x-ray analysis; the x-ray powder diffraction pattern corresponded to well crystallized SAPO-37/Y zeolite composite.

Claims: A multiphase, multi-compositional composite comprising different inorganic crystalline compositions as phases thereof wherein at least one phase is grown by crystal growth in the presence of another phase, in which: (a) the different phases are contiguous and have a common crystal framework structure; (b) one phase contains phosphorus and aluminium atoms as part of the crystal's framework structure. A multiphase, multi-compositional composite according to claim 1 wherein the composite exhibits a distinct compositional heterogeneity of one phase to another therein. A multiphase, multi-compositional composite according to claim 2 comprising different inorganic crystalline molecular sieve compositions as phases thereof wherein at least one phase comprises a deposition substrate upon which another phase is grown by crystal growth in the presence of another phase. A multiphase, multi-compositional composite according to claims 1, 2 or '3 wherein at least one phase comprises a deposition substrate upon which another phase is deposited or there are multiple phases jointly formed, in which the phase comprising the deposition substrate and one of the phases jointly formed constituting the deposition substrate contains at least 20 weight percent of the total weight of the phases making up the composite. The composite of claim 4 wherein each such phase contains phosphorus and aluminum as part of the phase's crystal framework structure, and one of the phases comprises at least about 20 weight percent of the total weight of the phases. A multiphase, multi-compositional composite according to one of claims 1 to 5 comprising different inorganic crystalline molecular sieve compositions as phases thereof wherein at least one phase comprises a deposition substrate upon which another phase is deposited or there are multiple phases jointly formed, in which the different phases have a common crystal framework and are cristallographically indistinct from one another. A multiphase, multi-compositional composite according to claim 6 wherein the phase comprising the deposition substrate and one of the phases jointly formed constituting the deposition substrate contains at least about 20 weight percent of the total weight of the phases making up the composite. A multiphase, multi-compositional composite according to claim 7 wherein the different molecular sieve phases are framework structurally compatible to each other and cristallographically indistinct from one another. A multiphase, multi-compositional composite according to one of the foregoing claims wherein the different molecular sieve phases are in integral lattice association with each other and structurally indistinct from one another. The composite of one of the foregoing claims wherein there are two of such phases and one comprises the structure and composition of a non-zeolitic molecular sieve and the other of such phases comprises the structure and composition of an aluminosilicate molecular sieve. The composite of one of the foregoing claims wherein there are two of such phases and one comprises the structure and composition of an aluminophosphate containing molecular sieve and the other of such phases comprises the structure and composition of an aluminosilicate molecular sieve. The composite of one of the foregoing claims wherein the aluminosilicate molecular sieve is a Y-type zeolitic molecular sieve. The composite of one of the foregoing claims wherein one phase is a SAPO composition. The composite of one of the foregoing claims wherein one phase is a CoAPSO composition. The composite of claim 3 wherein a phase which contains phosphorus and aluminum atoms as part of the crystal's framework structure is a molecular sieve having an empirical chemical composition on an anhydrous basis expressed by the formula I: (I) mR : (Q w Al x P y Si z )O ₂ where "Q" represents (a) at least one element present as a framework oxide unit "QO₂ n " with charge "n" where "n" may be -3, -2, -1, 0 or +1; (b) an element having (i) a mean "T-O" distance in tetrahedral oxide structures between 0,151 nm (1.51 Å) and 0,206 nm (2.06 Å), (ii) a cation electronegativity between 523 kJ/mol Atom (125 kcal/g-atom) to 1298 kJ/mol Atom (310 kcal/gm- atom) and (iii) the capability of forming stable Q-O-P, Q-O-Al or Q-O-Q bonds in crystalline three dimensional oxide structures having a "Q-O" bond dissociation energy greater than 247 kJ/mol Atom (59 kcal/g-atom)at 298°K ; "R" represents at least one organic templating agent present on the intracrystalline pore system; "m" represents the molar amount of "R" present per mole of (Q w Al x P y Si z )O₂ and has a value from zero to 0.3; and "w", "x", "y" and "z" represent the mole fractions of QO₂ n , AlO₂⁻, PO₂⁺, SiO₂, respectively, present as framework oxide units; and the mole fractions of "Q", aluminum, phosphorus and silicon, respectively, present as framework oxides said mole fractions being within the following limiting compositional values: w is equal to 0 to 98 mole percent; y is equal to 1 to 99 mole percent; x is equal to 1 to 99 mole percent; and z is equal to 0 to 98 mole percent. The composite of claim 15 wherein another phase is a zeolitic aluminosilicate molecular sieve. The composite of one of claims 15 or 16 wherein all of the phases are of a different composition and each of which is encompassed by formula (I). The multiphase, multi-compositional composite of one of claims 1 to 17 wherein the phase comprising the deposition substrate contains at least 50 weight percent and preferably more than 50 weight percent of the total weight of the phases making up the composite. The composite of claim 18 wherein the phase comprising the deposition substrate contains 50 to 98 weight percent of the total weight of the phases making up the composite. The composite of one of claims 1 to 17 wherein the phase constituting the deposition substrate is termed the deposition substrate phase, and any remaining phase is termed an outer layer, in which the outer layer comprises a phase which contains phosphorus and aluminum atoms as part of the crystal's framework structure. The composite of claim 20 wherein the outer layer contains a NZMS, which is one of AlPO₄; SAPO, preferably one of SAPO-5, SAPO-11, SAPO-31, SAPO-40, SAPO-41 and SAPO-47; MeAPO, preferably one of CoAPO, ZAPO, MAPO and MnAPO; MeAPSO; ELAPO; ELAPSO; and mixtures thereof. The composite of claim 21 wherein the deposition substrate is an AlPO₄ which is structurally compatible with the SAPO contained in the outer layer. The composite of claim 21 or 22 wherein the outer layer contains an intermediate pore size SAPO. A catalyst composition or an adsorbent composition comprising a multiphase, multi-compositional composite according to one of claims 1 to 23. A heterogeneous mixture comprising: (A) a multiphase, multi-compositional composite according to one of claims 1 to 23, and (B) an inorganic crystalline composition which does not have a contiguous common crystal framework structure with the multiphase, multi-compositional composite of (A) or of a phase of the composite of (A), but is adhesively bonded to the multiphase, multi-compositional composite of (A). A heterogeneous mixture comprising: (A) a multiphase, multi-compositional composite according to one of claims 1 to 23, and (B) an amorphous composition which is bonded to the multiphase, multi-compositional composite of (A). The process for making a composite of multiple phases, at least two phases of which are different inorganic crystalline compositions epitaxially aligned with each other, and at least one of the two phases contains phosphorus and aluminum atoms as part of the crystalline framework structure which comprises (a) the growth of a crystalline structure constituting one such phase containing phosphorus and aluminum atoms as part of the crystalline structure in the presence of a deposition substrate comprising crystals of another of such a phase, (b) the growth of a crystalline structure constituting one such phase in the presence of a deposition substrate comprising crystals of another of such a phase containing phosphorus and aluminum atoms as part of the crystalline structure, or (c) the joint growth of crystals constituting one such phase containing phosphorus and aluminum atoms as part of the crystalline structure with another of such a phase, one of which constitutes the deposition substrate for another of the phases, in which the deposition substrate phase in either case is present therein in an amount of at least about 20 weight percent of the total of the phases. The process of claim 27 wherein the growth of a crystalline structure constituting such a phase in the presence of crystals of the other of such a phase involves a hydrothermal crystallization treatment of the precursors of such phase.

Inventors: COUGHLIN, PETER KEVIN, GAJEK, RICHARD TADEUSZ, PELLET, REGIS JOSEPH, SPRINGER, ALBERT RAYMOND
Applicants: UOP
Application year: 1988
Main classification: B01J29
IPC codes: B01J29, C01B25, C01B39, C10G29, C01B37