CA2355497C

CA2355497C - Catalytic matrix and process for polyolefin production

Info

Publication number: CA2355497C
Application number: CA002355497A
Authority: CA
Inventors: Eric Gustave Lundquist; Jennifer Annette Reichl; James Charles Bohling
Original assignee: Rohm and Haas Co
Current assignee: Rohm and Haas Co
Priority date: 2000-08-22
Filing date: 2001-08-21
Publication date: 2008-08-12
Anticipated expiration: 2021-08-21
Also published as: CN1302022C; CA2355497A1; CN1339508A; US6982307B2; EP1181979A3; US20020026013A1; JP2002097218A; NO20013880D0; NO20013880L; EP1181979A2; EP1181979B1

Abstract

A porous particulate composition comprising a matrix of one or more catalytic components and at least one polymer having a plurality of free olefin groups, wherein the catalytic component is an organometallic complex selected from the group consisting of Group 3-10 metals, non-metals, lanthanide metals, actinide metals and combinations thereof; and wherein the matrix is formed by reaction of the catalytic component and the free olefin groups of the at least one polymer, and an olefin polymerization process are disclosed, which are employed in the production of a variety of polyolefin products.

Description

CATA,I.,YnC mATRIX AND PROCESS FOR PULYOI.F,FIN PRODUCTION
The present Invention relates to catalytic olefin polymerization and processes for the preparatiop of a broad range of catalyst systems and a variety of polyolefin products.
BACKGROUND OF INVENTION
Commercial catalytic processes for the production of polyolefins, such as polyethylene and polypropylene, have traditionally relied on the use of heterogeneous, Ziegler-Natta catalyst systems. Typical catalyst systems for polyethylene are exemplified lo by Chromiutr; compositions supported on silica and Titanium compositions on MgC1,.
Althou.gh tlte catalyst systems are quite active and can produce high molecular weight polymers, they tend to produce a broad molecular weight distribution of a particular polyolefin and are poor at incorporating alpha-olefms such as 1-butene, 1-hexene and 1-octane. When rnaking copolymers of ethylene, these catalysts typically produce resins of moderately broad to very broad molecular weight distribution, as characterized by MWL) values greater than 6. Lack of a narrow molecular weight distribution in such catalysc systems is believed due to the presense of tnore than one type of catalytic site.
More recently,.olefin polymerization catalyst systems containing well defined reactive sites have been developed. So-called "Single-site catalysts" allow for the production of polymers with varied molecular weights, narrow molecular weight distributions and the ability to incoYporate large arrtounts of cotstonomers.
Metallocene catalysts based on Group 3-6 metals of the Periodic Table (IUPAC
nomenclature) containing cyclopentadienyl groups and transition metal catalysts based on Group 3-10 metals of the Periodic Table (IUPAC nomenclature) containing bi- or tridentate ligands 2S are exampies of these active single-site catalysts. Such catalysts have been disclosed in U. S. Patent Nos. 5,064,802; 5,198,401; 5,324,800; 5,856,663 and publications WO
96/23010; WO 98/30612.
The mechanism of Qlefxn polymerization using the above mentioned catalysrs has been the subject of much study and is believed to involve generation of an unsa.turated, electron deficient metal species, which coordinates olefins to form intermediate alkyl olefin complexes, then subsequently undergoes rapid alkyl migration to afford a growing polymer chain. Qlefin coordination followed by migration (insertion) continues until a termirtation step occurs or the reaction is stopped.

Several methods are currently employed to generate and stabilize the unsaturated electron deficient metal catalysts of such systems. The activation of transition metal complexes to afford stabilized, unsaturated transition metal catalysts for the polymerization of olefins is a key part of this mechanism. Several methods are currently employed to generate and stabilize the unsaturated, electron deficient metal catalysts of such systems and include halide abstraction, protonation followed by reductive elimination, or oxidation. A key element of the activation process is the stabilization of the resulting activated complex using non-coordinating or weakly coordinating anions.
For example, halide containing transition metal complexes can be activated using methylalumoxane (MAO). MAO serves as both a methylating agent and as a non-coordinating anion. Other activating components of utility containing boron include silver tetraphenyl borate, triphenylcarbenium tetrakis(pentafluorophenyl) borate, tri(pentafluorophenyl) boron, N, N-dimethylanilinium tetra(pentafluorophenyl) borate and sodium tetrakis[3, 5-bis(trifluoromethyl)-phenyl] borate. Catalyst systems using such activators have been disclosed in U. S. Patent Nos. 4,808,561; 4,897,455;
4,921,825;
5,191052; 5,198,401; 5,387,568; 5,455,214; 5,461,017; 5,362,824; 5,498,582;
5,561,092;
5,861,352 and publications WO 91/09882; EP0206794B 1; EP0507876131; WO
95/15815;
WO 95/23816; EP0563917131; EP0633272A 1; EP0633272B 1; EP0675907131; JP96-113779; EP0677907B1; WO 98/55518; WO 00/04059.
The greatest utility of single-site catalyst systems to the polyolefin industry is realized when they are used in gas phase and slurry phase reactors. Inorganic materials such as silica, alumina and magnesium chloride currently have the greatest utility as a support material in the formulation of supported Ziegler-Natta polyolefin catalyst systems. The inorganic supports have also been used with varying degrees of success in supporting metallocene and other types of single-site metal catalysts. A
significant limitation of such supports, however, is the presence of surface hydroxyl groups, which render the metallocene catalysts inactive. To overcome this effect large quantities of MAO are used with varying degrees of success and increased cost. Polymeric supports, such as cross-linked polystyrene (PS) have been investigated as supports, since they contain no catalyst deactivating or "poisoning" groups. Methods to chemically anchor metallocene and other single-site metal catalysts to supports have also been developed.
The most common methods involve tethering the single-site metal catlyst through a substituent on the cyclopentadienyl ring, through the boron atom of non-coordinating borate activators, through a substituent on the bridge of ansa-metallocene catalysts or through the heteroatom in monocyclopentadienyl complexes.
Given the problems associated with broad molecular weight distributions of polyolefins produced using Ziegler-Natta catalysts, it is desirable to develop a composition incorporating such catalysts that provides polyolefins having relatively narrow molecular weight distributions, comparable to production of the same polyolefins obtained using more expensive and less utilized single-site catalysts. A
composition for the production of a range of polyolefins comprising a material that reacts with a variety of olefin polymerization catalysts forming and stabilizes or activates the catalysts, in addition to merely supporting the catalyst, is desirable. There are no reports of a single material that can react with many of the catalyst systems, generally known in the art and used in the production of polyolefins. An olefin-based material has been discovered that reacts with a variety of olefin polymerization catalysts, forming a composition for the production of a range of polyolefins, that stabilizes or activates the catalysts in addition to merely supporting the catalyst. The olefin-based material has utility with commercial developed polyolefin catalyts, such as single-site catalysts and Ziegler-Natta type catalysts. A general process for the production of polyolefins using a matrix that comprises a broad range of polyolefin catalyst systems, that provides uniform dispersal of the catalyst, that stabilizes and activates the catalyst in the process would, therefore, be of great utility, global economic advantage and strategic value to the commercial manufacture of polyolefins.

SUMMARY OF INVENTION

Accordingly, the present invention provides a novel composition for olefin polymerization. An olefin-based, catalytic matrix is disclosed, which can be usefully employed for olefin polymerization. In addition, the matrix may comprise at least one type of activator component or may comprise a combination of catalytic components.
The matrix facilitates production of polyolefins and affords polymer products having improved morphology, as the final polymer product is manufactured in shapes that mimick the shapes of the initial heterogenized catalyst. A general process is disclosed for incorporating a range of Ziegler-Natta catalysts and single-site catalysts within the matrix, which have utility in the subsequent production of specific polyolefin products.

It has been discovered that materials containing a plurality of olefin groups react with a variety of olefin polymerization catalysts forming a catalytic matrix, which can be usefully employed for the subsequent production of polyolefins. The olefin-based materials comprise organic and inorganic materials having covalently bound olefin groups or inorganic/organic materials functionalized with olefin groups. The organic materials are in the form of solids or liquids and are based on polymeric materials. The olefin-based materials usefully employed for the polymerization of olefins are macroporous organic polymeric materials prepared by suspension, precipitive or emulsion polymerization. The number of olefin groups, the pore size and surface area in the polymeric materials can be synthetically and morphologically controlled by judicious selection of polymerization conditions. It has been further discovered that the polymeric materials and their resulting matrices can be prepared in shapes which are useful in the production of polyolefins. Alternatively, the olefin-based materials can be coated onto substrates allowing for the formation of matrices useful for coating objects with polyolefins. Another type of olefin-based materials usefully employed for the polymerization of olefins are inorganic solids and hybrid organic-inorganic polymers, such as siloxanes, that are chemically functionalized with olefin groups. The olefin groups may be disposed on surfaces of the materials or may be dispersed throughout the materials.
The catalytic component of the matrix usefully employed in the present invention are Ziegler-Natta catalysts and single-site catalysts.
The Ziegler-Natta based catalysts usefully employed in accordance with the present invention are exemplified by, but not limited to conventional Titanium (Ti/Mg) and Chromium (Cr/SiO,) based catalysts.
The catalytic matrices usefully employed in accordance with the present invention are exemplified by compositions represented by the following formulas:
[Cp'Cp'MR.,L]+ [NCA]- wherein M is a Group 4 metal, Cp' is a substituted or non-substituted cyclopentadienyl ring and Cp' is the same or different, substituted or non-substituted cyclopentadienyl ring and may be bridged symmetrically or asymmetrically to Cp'. R is hydride, alkyl, halide, silyl, germyl or an aryl group, wherein x is an integer equal to 0 or 1. L is an olefin-based material. NCA is a non-coordinating anion.

~

[Cp'R'- -NR. -MR'õI..j' ['NCAj' wherein M is a Group 4 or 6 metal, Cp is a substituted or non-substituted cyclopentadienyl ring bridging to nitrogen group (NR) via a carbon or silicon group (R'); RZ is a hydride, alkyl, balide, silyl, germyl or an aryl group attached to the metal, wherein x-is an integer equal to 0 or 1. L
is an olefut-bmed material. NCA is a non-coordinating anion.
[Cp'MR,L]' [NCAJ' wherein M is a Group 4 or 6 metal, Cp' is a substituted or non-substituted cyclopentadienyl ring; R is a hydride, alkyl, halide, silyl, getmyl or an aryl group, wherein x is an integer ranging from 0 to 6. L is an olefin-based material.
NCA is a non-coordinating anion.
f(Multideutate) MRxLl* [NCA]- wlurein M is a Group 4 or 6 or 8 or 9 or 10 or 11 metal, R is hydride, alkyl, halide, silyl, germyl, aryl, halide or alkoxide group; x is an integer equal to 0. 1 or 2; multidenate is a bidentate, tridentate or tetradentate ligand containing nitrogen, sulfur, phosphortts and / or oxygen as coordinating atoms to the metal. L is an olefm-based material. NCA is a non-coordinating anion.
(Multidentate) MRxL wherein M is a Group 4 or 6 or 8 or 9 or 10 or 11 metal, R is hydride, alkyl, silyl, germyl, aryl, halide or alkoxide group; x is an integer equal to 0, 1 or 2; multidena.te is a bidentate, tridentate or tetradentate ligand containing nitrogen, sulfur, phosphorus and / or oxygen as coordinating atoms to the metal. L is an olefin-based material.
Lanthanide or actinide catalysts are also usefully employed in accordance with the present invention and are exempsified, yet not limited to:
[(Cp')x(Cpx)yMRxL]"[NCA], wherein M is a lanthanide or an actinide metal, R is hydride, alkyl, siiyl, germyl, aryl, halide, alkoxide, amide or solvent ligand, R may also be a bidentate ligand containing nitrogen, sulfur, phosplxorus and / or oxygen, x= 0-2, y = 0-2, I. is an olefln based material. NCA is a non-coordinating anion.
The present invention also provides a general process for the production of specific polyolefins by judicious selection of the choice of catalyst and olefin-based material. The process comprises polymerizing olefins such as ethylene or propylene alone or in the presence of higher a-olefinS, diolefins or cycloolefins in the presence of the matrix decribed above. Combinations of the above catalysts within the matrix have utility in accordance with process of the present invention.
The advantages of the invention are obtained in the ability of the olefin-based materials to react with commercially important olefin polymerization catalysts, the resulting matrices having utility in the polymerization of a range of polyolefins. The reaction of the olefin-based materials with the olefin polymerization catalysts has additional advantages, namely, stabilizing, activating and supporting the catalysts.
The advantages of the matrix of the present invention and the scope of its utility in the above mentioned processes are presented in the detailed description of the invention.

DETAILED DESCRIPTION OF THE INVENTION
The present invention is directed to a matrix for the polymerization of olefins, the matix formed by reaction of an olefin-based material and a catalytic component. The matrix has utility in a general catalytic process for polymerization of olefins. In particular, the process of catalytically converting ethylene to higher molecular weight polyethylene homopolymers, such as high density polyethylene (HDPE) and linear low density polyethylene (LLDPE), and copolymers with alpha- olefins such as 1-butene, 1-hexene and 1-octene. The polymers are intended for processing into articles of manufacture by extrusion, injection molding, thermoforming, rotational molding, hot melt processing and related techniques. In addition, the polyolefins of the present invention are homopolymers of ethylene and propylene, copolymers of ethylene and propylene with higher alpha-olefins or diolefins, and stereoregular polymers of propylene.
In accordance with the present invention, polyolefins can be prepared from olefin monomers using a matrix in a catalytic process with olefin monomers such as unbranched alkyl olefins having from 2 to 12 carbon atoms, branched aliphatic olefins having from 4 to 12 carbon atoms, unbranched and branched aliphatic a-olefins having from 2 to 12 carbon atoms, conjugated olefins having 4 to 12 carbon atoms, aromatic olefins having from 8 to 20 carbons, unbranched and branched cycloolefins having 3 to 12 carbon atoms, unbranched and branched acetylenes having 2 to 12 carbon atoms, and combinations thereof. Also in accordance with the invention, olefin monomer further comprises polar olefin monomers having from 2 to 60 carbon atoms and at least one atom such as 0, N, B, Al, S, P, Si, F, Cl, Br and combinations thereof.

In particular, the olefin monomer is ethylene, propene, 1-butene, 1-hexene, butadiene, 1,6-hexadiene, styrene, alpha-methylstyrene, cyclopentene, cyclohexene, cyclohexadiene, norbornene, norbornadiene, cyclooctadiene, divinylbenzene, trivinylbenzene, acetylene, diacetylene, alkynylbenzene, dialkynylbenzene, ethylene/1-butene, ethylene/isopropene, ethylene/1-hexene, ethylene/l-octene, ethylene/propene, ethylene/cyclopentene, ethylene/cyclohexene, ethylene/butadiene, ethylene/1,6-hexadiene, ethylene/styrene, ethylene/acetylene, propene/l-butene, propene/styrene, propene/butadiene, propylene/1-hexene, propene/acetylene, ethylene/propene/1-butene, ethylene/propene/1-hexene, ethylene/propene/1-octene, and various combinations thereof.
In one embodiment, the matrix of the present invention can be usefully employed with many catalysts exhibiting high activities in ethylene homopolymerization and copolymerization of ethylene/higher a-olefins, allowing the synthesis of ethylene homopolymers and copolymers with narrow molecular weight distributions and/or homogeneous branching distributions. The HDPE and LLDPE resins prepared are intended for use in the production of films with relatively high impact strength and clarity, the fabrication into articles and useful objects by extrusion, injection molding, thermoforming, rotational molding, holt melt processing, the processing of polyethylenes having monodisperse, inorganic particulate additives or modifiers and the processing of coated surfaces, articles and useful objects using polymers comprising ethylene.
An embodiment illustrative of the general utility of the matrix is the production of polyethylene. All three classes of the polyethylene (PE), namely high density polyethylene (HDPE), low density polyethylene (LDPE) and linear low density polyethylene (LLDPE), all of which require a different catalyst systems currently, can be prepared using the matrix of the present invention. HDPE is a linear, semi-crystalline ethylene homopolymer prepared using Ziegler-Natta single site and Chromium based polymerization methods. LLDPE is a random copolymer of ethylene and a-olefins (such as 1-butene, 1-hexene or 1-octene) prepared commercially using Ziegler-Natta, Chromium based or single site based catalysts. LDPE is a branched ethylene homopolymer prepared commercially using a high temperature and high pressure process. HDPE, LDPE and LLDPE can all be prepared by reacting the matrix of the present invention with their respective metal based catalyst or catalyst system.
Another embodiment illustrative of the general utility of the matrix is the production of copolymers of ethylene and higher alpha-olefins. When making polymers, Ziegler-Natta catalysts typically produce polyethylene resins of moderately broad to very broad molecular weight distribution, as characterized by MWD values greater than 6.
--,~,~ ._,..._...~...r.~..~~...~:.~..,~, _,..w.a_..w.,. , .......:.w..~.~,._...._. _ Broad molecular weight distributions in such catalyst systems are believed due to inhomogeneous catalytic sites. By reacting an olefin based material with a Ziegler-Natta catalyst and forming such a matrix, the polymerization of ethylene can lead to narrower molecular weight distributions, as characterized by MWD values less than 6.

In the process of the present invention, olefins such as ethylene or propylene either alone or together with higher alpha-oletins, having 3 or more carbons atoms, are polymerized in the presence of a matrix comprising reacting an olefin-based material and at least one olefin polymerization catalyst.
In accordance with the invention, one can also produce olefin copolymers of ethylene and higher alpha-olefins having 3-20 carbon atoms. Comonomer content can be controlled through selection of the catalyst component and the olefin-based material.

OLEFIN-BASED MATERIALS
The olefin-based materials usefully employed in accordance with the invention comprise organic materials having covalently bound olefin groups and inorganic materials functionalized with olefin groups. The organic materials are in the form of solids or liquids and are preferably polymeric solids. The olefin-based materials most usefully employed for the polymerization of olefins are macroporous organic polymeric materials such as those prepared by suspension, precipitive or emulsion polymerization in the presence of porogens. The number of olefin groups, the pore size and surface area in the polymeric materials can be synthetically and morphologically controlled by judicious selection of polymerization conditions. It has been further discovered that the polymeric materials and their resulting matrices can be prepared in shapes which are useful in the production of polyolefins. Another type of olefin-based materials usefully employed for the polymerization of olefins are inorganic solids and hybrid organic-inorganic polymers, such as siloxanes, that are chemically functionalized with olefin groups. The olefin groups may be disposed on surfaces of the solids or may be dispersed throughout the solids. The olefinic groups can either be introduced synthetically or are residual olefinic groups remaining after polymerization.
An embodiment of an olefin-based material in accordance with the present invention involves introducing olefinic groups into silica or other inorganic oxides by reacting surface hydroxyl groups with olefin-containing chlorosilane compounds such as (CH3),C1Si(vinyl), (CH3),C1Si(allyl), C13Si(vinyl) or C13Si(allyl) or alkoxy silane compounds such as (OR)3Si(vinyl) or (OR)3Si(allyl), where R represents an alkyl group. Another embodiment of the invention involves the introduction of olefinic groups into organic polystyrene (PS) copolymers by using chloromethylation followed by conversion into phosphonium salts and finally into vinvl groups by Wittig vinylation. Other methods to introduce olefinic groups into organic polymers are disclosed in publications by Darling et al, such as React.. Funct.
Polym.1998, 36(1), 1-16.

A further embodiment directed to olefin-based materials of the present invention concems using olefinic moities in inorganic polymers that result from the condensation polymerization of organosilanes and siloxanes containing vinyl (olefinic) functional groups such as as (OR)3Si(vinyl) or (OR)3Si(allyl).
Condensation polymerizations of organosiloxane materials to produce porous, spherical beads are disclosed in publications of Unger et al, such as J. Chromatogr. 1976, 125, 115. Yet another embodiment within the scope of the present invention concerns using olefinic moities in organic polymers that result from the polymerization of diolefin monomers in which one olefin group selectively polymerizes. Polvdiene polymers, such as polybutadiene and polyisoprene, and copolymers of butadiene and styrene and/or divinylbenzene are examples of polymers containing residual unreacted, pendant vinyl (ol,-finic) groups that have utility as olefinic materials for the metallocene catalysts of the present invention. Other exan-lples of olefin containing materials are disclosed in publications by Darling et al, such as React.Funct.Polym., 1998, 36(1), 1-16.
Other suitable material include alumoxanes, alkylalumoxes, alumino silicates, clays, and zeolites.
The olefin-based material is selected from the polymer such as divinylbenzene polymers, divinylbenzene copolymers, styrene/divinylbenzene copolymers, divinylbenzene resins, cross-linked divinylbenzene polymers, cross-linked butadiene polymers, styrene/butadiene copolymers, styrene/isoprene copolymers, vinylsiloxane polymers and combinations thereof.
According to a preferred embodiment for the olefin-based material in the present invention, olefin containing polymers are prepared from precipitive.
suspension or emulsion polymerization of commercial grade divinylbenzene (DVB).
An unexpected advantage of the invention was discovered in observations made when = 10 varying the conditions of the polymerization, the amount of residual pendant vinyl groups can be synthetically and morphologically controlled. The olefin containing polymers produced by the precipitive, suspension or emulsion polymerization of DVB, are crosslinked and thus insoluble, have spherical structures and can be produced at particle sizes between 2 nm and 1000 microns. In addition, the olefin containing polymers can be made porous by addition of' a porogen during the polymerization, further enhancing their utility as a ligand system for the catalytic matrix of the present invention. The amount of porosity, pore diameter and surface area can be controlled by varying the amount and type of porogen used during the io polymerization as disclosed in publications of Meitzner et. al., such as those related to U.S. Patent No. 4,382,124, the contents of which are usefully employed in accordance with the invention. Preferred olefin-based materials are embodied in a polymer or copolymer polymerized from a monomer or mixture of monomers containing at least 4 weight percent (%), based on the total monomer weight, of polyvinyl unsaturated monomer. The olefin containing organic material useful in the preparation of the catalytic matrix of the present invention are preferably polymerized from monomer mixtures containing at least 2 % by weight polyvinyl aromatic monomers and more preferaby greater than 20% polyvinylaromatic monomers.

Olefin containing organic material useful in the preparation of the catalyst matrix of the present invention are preferably spherical copolymer beads having particle diameters from 5 nanometers to 1 millimeters (mm), such as are produced by precipitive, emulsion or suspension polymerization, and preferably possess a surface area greater than I m2/g, preferably greater than 10m2 /g and more preferably greater than 100 mz/g. Although any olefin containing material containing at least 0.01 mmol/g of residual vinyl groups and at least 2% polyvinylaromatic monomer units may be used as part of the catalytic matrix of the present invention, the preferred olefin containing organic materials are macroporous polymer beads of the type described in U.S. Patent No. 4,382,124, in which porosity is introduced into the copolymer beads by suspension-polymerization in the presence of a porogen (also known as "phase extender" or "precipitant"), that is, a solvent for the monomer but a non-solvent for the polymer.

A typical macroporous polymer bead preparation, for example, may include preparation of a continuous aqueous phase solution containing suspension aids (such as dispersants, protective colloids and buffers) followed by mixing with a monomer mixture containing 2 to 100% polvvinylaromatic monomer, free-radical initiator and 0.2 to 5 parts porogen (such as toluene, xylenes, (C4-C,o)-alkanols, (C6-Cl,)-saturated hydrocarbons or polvalkylene glycols) per one part monomer. The mixture of monomers and porogen is then polymerized at elevated temperature and the porogen is subsequently removed from the resulting polymer beads by various means; for example, toluene, xylene and (C4-Co) alcohols may be removed by distillation or solvent washing, and polyalkylene glycols by water washing. The resulting macroporous copolymer is then isolated by conventional means, such as dewatering followed by drying.
Suitable polyvinylaromatic monomers that may be used in the preparation of the macroporous copolymers useful in the process of the present invention include, for example, one or more monomer selected from the group consisting of divinylbenzene, 1,3,5-trivinylbenzene, divinyltoluene, divinylnaphthalene, and divinylxylene;
it is understood that any of the various positional isomers of each of the aforementioned crosslinkers is suitable; preferably the polyvinylaromatic monomer is divinylbenzene.
Preferably the macroporous copolymer comprises 2 to 100%, and more preferably to 80%, polyvinyl aromatic monomer units.
Optionally, non-aromatic crosslinking monomers, such as ethyleneglycol diacrylate, ethyleneglycol dimethacrylate, vinyl cyclohexene, butadiene, trimethylolpropane triacrylate, trimethylolpropane trimethacrylate, diethyleneglycol divinyl ether and trivinylcyclohexane, may also be used in addition to the polyvinylaromatic crosslinker.
Suitable monounsaturated vinylaromatic monomers that may be used in the preparation of the macroporous polymers useful in the process of the present invention include, for example, styrene, a-methylstyrene, (Ci-C4)alkyl-substituted styrenes and vinylnaphthalene; preferably one or more monounsaturated vinylaromatic monomer is selected from the group consisting of styrene, halogen substituted styrenes and (Ci-C4)alkyl-substituted styrenes. Included among suitable halogen substituted styrenes are, for example, bromostyrene and chlorostyrene.

L

Included among suitable (Ci-C4 )alkyl-substituted styrenes are, for example, ethylvinylbenzeaes, vinyltoluenes, diethylstyrenes, ethylrnethylstyrenes and dimethylstyrenes; it is understood that any of the variots positional isomers of each of the aforementioned vinylaromatic monomers is suitable. Preferably the macroporous polyrner comprises zero to 98%, and more preferably 20 =to 90%, monounsaturated vinylaromatic monomer units.
4ptionally, non-aromatic vinyl monomers, such as aliphatic unsatarated monomers, for example, vinyl chloride, acrylonitrile, (meth)acrylic acids and alkyl esters of (meth)acrylic acids may also be used in addition to the vinylaromatic to monomer. w'lzen u_Qed, the non-aromatic vinyl monomers typically comprise as polymerized units, frotn zero to 20%, preferably from zero to 10 /a, aztd more preferably from zero to 5% of the macroporous copolymer, based on the total monomer weight used to form the macroporous polymer.
Suitable macroporous polymers useful as materials for the preparatipn of the catalytic matrix of the present invention are an.y macroporous polymers containing some "free" vinyl (olefin) groups. These vinyl graups are residual vinyl groups that were left unreacted (representing less than 100% efficiency of the crosslinker) during the polyrnerization process used to prepare the rn.acroporous copolyrner substrate.
Suitable macroporous copolymer substrates comprise greater than 2 weight percent polyvinylaromatic monomer caits and have at least 0.01, preferably from 0.1 to 5, and more prefesably from 0,1 to 4 mmoUg residual vinyl groups.
Alternative polyrneri.zation technologies to produce vinyl (olefinic) containsng polymers and copolymers useful in this present invention include bui are not limited to emulsion polymerization, solution polymerization, precipitation polymerization, anionic polymerixation, seeded polymerization, and condensation polymerizations.
Essentially any olefinic, diolefinic or multiolefinic monomer can usefuily comprise the catalytic matrix of the present invention. Non limiting examples olefin containing functional groups include vinyl, allyl, alkenyl and alkynyl radicals.
Synthetic methods, physical propertties and processing of polymers having signifcantresi.dual 3fl double bonds are disclosed U.S. Patent No. 6,147,127 issued November 14, 2000, the contents of which is herein useful.ly employed in accordance with the present inveation.

Several methods were used to characterize and quantify the amount of olefinic groups contained in the organic and inorganic materials useful in the present invention. These include the use of solid state13C NMR (nuclear magnetic resonance) CP/MAS-TOSS (cross polarization magic angle spinning with total sideband suppression) and infrared spectroscopy. Chemical derivitization of olefin groups is yet another method used to quantify the amount of olefinic groups contained in a material.
The use of a variety of characterization techniques to quantify the amount of pendent vinyl groups contained in a polydivinylbenzene polymer is disclosed in publications of Law et al, such as Macromolecules 1997,30, 2868-275 and Hubbard et al., React.
Funct. Polym. Vol. 36 (1), pages 17-30 (1998).

CATALYTIC COMPONENT
The catalysts usefully employed in accordance with the invention are organometallic compositions of transition metals. The transition metal catalysts preferably are of the Ziegler-Natta type or Phillips type catalysts and more preferably is a single site catalyst, such as a Unipol type, Insite or Versipol type catalyst.
The most preferred catalysts are based on organometallic compounds of zirconium, titanium, chromium, vanadium, iron, cobalt, palladium, nickel and copper.

Illustrative, but not limiting examples of bis(cyclopentadienyl) group 4 metal compounds which may be used in the preparation of the catalyst matrix of the present invention are listed below:

dihydrocarbyl-substituted bis(cyclopentadienyl)zirconium compounds such as bis(cyclopentadienyl)zirconium dimethyl, bis(cyclopentadienyl)zirconium diethyl, bis(cyclopentadienyl)zirconium dipropyl, bis(cyclopentadienyl)zirconium dibutyl, bis(cyclopentadienyl)zirconium diphenyl, bis(cyclopentadienyl)zirconium dineopentyl, bis(cyclopentadienyl)zirconium di(m-tolyl), bis(cyclopentadienyl)zirconium di(p-tolyl) and chemically/structurally related compounds;
dihydrido-substituted bis(cyclopentadienyl) zirconium compounds such as - - -------- ------- --bis(cyclopentadienyl)zirconium dihydride and chemically/structurally related compounds;
hydrido halide-substituted bis(cyclopentadienyl) zirconium compounds such as bis(cyclopentadienyl)zirconium hydrido chloride and chemically/structurally related compounds;

hydrocarbyl hydride-substituted bis(cyclopentadienyl) zirconium compounds such as bis(cyclopentadienyl)zirconium methyl hydride bis(pentamethylcyclopentadienyl)zirconium (phenyl)(hydride), bis(pentamethylcyclopentadienyl)zirconium (methyl)(hydride) and and chemically/structurally related compounds;

(monohydrocarbyl-substituted cyclopentadienyl)zirconium compounds such as (methylcyclopentadienyl)(cyclopentadienyl) zirconium dimethyl bis(methylcyclopentadienyl)zirconium dimethyl bis(butylcyclopentadienyl)zirconium dimethyl and chemically/structurally related compounds;
(polyhydrocarbyl-substituted-cyclopentadienyl) zirconium compounds such as (dimethylcyclopentadienyl) (cyclopentadienyl) zirconium dirnethyl bis(dimethylcyclopentadienyl) zirconium dimethyl, bis(pentamethylcyclopentadienyl) zirconium dimethyl, and chemically/structurally related compounds;
(bridged-cyclopentadienyl)zirconium compounds such as methylene bis(cyclopentadienyl)zirconium dimethyl, methylene bis(cyclopentadienyl)zirconium dihydride, ethylene bis(cyclopentadienyl)zirconium dimethyl, dimethylsilylbis(cyclopentadienyl)zirconium dimethyl, ethylenebis(cyclopentadienyl)zirconium dihydride dimethylsilyl bis(cyclopentadienyl)zirconium dihydride and chemically/structurally related compounds;

chiral and C, -symmetry compounds; asymetrically bridged- dicylopentadienyl compounds such as methylene(cyclopentadienyl)(1- fluorenyl)zirconium dimethyl, dimethysilyl(cyclopentadienyl)(1- fluorenyl)zirconium dihydride, isopropyl(cyclopentadienyl)(1- fluorenyl)zirconium dimethyl, isopropyl(cyclopentadienyl)1- octahydrofluorenyl)zirconium dimethyl, dimethylsilyl(methylcyclopentadienyl)(1-fluorenyl)zirconium dihydride, methylene(cyclopentadienyl(tetramethylcyclopentadienyl)zirconium dimethyl 5 and chemically/structurally related compounds;

racemic and meso isomers of symmetrically bridged substituted dicyclopentadienyl compounds such as ethylenebis(indenyl)zirconium dimethyl, dimethylsilylbis(indenyl)zirconium dimethyl, 10 ethylenebis(tetrahydroindenyl)zirconium dimethyl, dimethylsilylbis(3-trimethylsilylcyclopentadientyl)zirconium dihydride and the like;

zirconacycles such as bis(pentamethylcyclopentadienyl) zirconacyclobutane, 15 bis(pentamethylcyclopentadienyl) zirconacyclopentane, bis(cyclopentadienyl)zirconaindane, 1-bis(cyclopentadienyl)zircona-3- dimethylsila-cyclobutane and the like;
olefin, diolefin and aryne ligand substituted bis(cyclopentadienyl)zirconium compounds such as bis(cyclopentadienyl) (1,3-butadiene)zirconium, bis(cyclopentadienyl) (2, 3-dimethyl-1,3butadiene)zirconium, bis(pentamethylcyclopentadienyl)(benzyne)zirconium and chemically/structurally related compounds;

bis(cyclopentadienyl) zirconium compounds in which a substituent on the cyclopentadienyl radical is bound to the metal such as (pentamethylcyclopentadienyl) (tetramethylcyclopentadienylmethylne) zirconium hydride, (pentamethylcyclopentadienyl) (tetramethylcyclopentadienylmethylne)zirconium phenyl and chemically/structurally related compounds.
Illustrative, but not limiting examples of bis(cyclopentadienyl)hafnium and bis(cyclopentadienyl)titanium compounds that usefully comprise the catalytic matrix of the present invention are disclosed in publications of Alt and Koeppl, such as Chem. Rev., 100, 1205-1222, 2000 and Hlatky, Chem. Rev., 100, 1-3 )47-1376.
2000, the contents of which are usefully employed in accordance with the invention.
Chemically and structurally related bis(cyclopentadienyl)zirconium compounds (e.g.

dihalides, Cp,MX,), bis(cyclopentadienyl)hafnium compounds and bis(cyclopentadienyl)titanium compounds as well as other catalysts of Group 4 metals that are useful in the catalytic matrix of the present invention would be apparent to those skilled in the art based on their respective chemical structures and reactivities in olefin polymerizations.
Illustrative, but not limiting examples of Group 4 and 6 compounds containing a single cyclopentadienyl ring or a cyclopentadienyl ring bridging to a nitrogen group via a carbon or silicon group which may be used in the preparation of the catalytic matrix of the present invention include:

pentamethylcyclopentadienyl titanium trimethyl cyclopentadienyl titanium trimethyl pentamethylcyclopentadienyl zirconium trimethyl cyclopentadienyl zirconium trimethyl dimethylsilycyclopentadienyl-tertbutylamido zirconium dimethyl dimethylsilycyclopentadienyl-tertbutylamido titanium dimethyl dimethylsilytetramethylcyclopentadienyl-tertbutylamido zirconium dimethyl dimethylsilytertbutylcyclopentadienyl-tertbutylamido zirconium dimethyl dimethylsilytetramethylcyclopentadienyl-tertbutylamido titanium dimethyl dimethylsilytertbutylcyclopentadienyl-tertbutylamido titanium dimethyl dimethylsilytetramethylcyclopentadienyl-tertbutylamido hafnium dimethyl dimethylsilytertbutylcyclopentadienyl-tertbutylamido hafnium dimethyl dimethylsilytetramethylcyclopentadienyl-tertbutylamido zirconium dimethyl ethylenetetramethylcyclopentadienyldimethylamino chromium dimethyl Illustrative but not limiting examples of Group 4 or 6 metal complexes containing bidentate, tridentate or other multidentate ligands that usefully comprise the catalytic matrix of the present invention include:

(NC(CH3)2CHzCH,C(CH3)2N)Cr(CH,C6H5)2 bis[N-(3-t-butylsalicylidene)phenylaminato] zirconium dichloride Illustrative but not limiting examples of Group 8-11 metal complexes containing bidentate, tridentate or other multidentate ligands that usefully comprise the catalytic matrix of the present invention are disclosed in publications of Ittel and Brookhart, such as Chem. Rev., 100, 1169-1203, 2000, Hlatky, Chem. Rev., 100, 1347-1376.
2000, and Gibson, Angew. Chem. Int. Ed. 38, 428-447 the contents of which are usefully employed in accordance with the present invention. A list of preferred of Group 8-10 catalysts that usefully comprise the catalytic matrix of the present invention are:

{(2,6-iPr,C6H3)-N=C(H)-C(H)=N-(2,6-iPr,C6H3)}NiBr2 {(2,6-iPr2C6H3)-N=C(Me)-C(Me)=N-(2,6-iPr,C6H3)} NiBr, {(2,6-iPr,C6H3)-N=C(Ph)-C(Ph)=N-(2,6-iPrzC6H3)} NiBr2 {(2,6-Me,C6H3)-N=C(H)-C(H)=N-(2,6-MezC6H3)}NiBr2 {(2,6-Me,C6H3)-N=C(Me)-C(Me)=N-(2,6-Me2C6H3)}NiBr, {(2,6-Me,C6H3)-N=C(Ph)-C(Ph)=N-(2,6-Me-,C6H3)} NiBrz {(2,6-iPr,C6H3)-N=C(H)-C(H)=N-(2,6-iPr2C6H3)} Pd(Cl)Me [{(2,6-iPr,C6H3)-N=C(Me)-C(Me)=N-(2,6-iPr,C6H3)} PdMe (NC-Me)]+
[{(2,6-iPrzC6H3)-N=C(Ph)-C(Ph)=N-(2,6-iPr2C6H3)} PdMe (NC-Me)]+
[{(2,6-iPrzC6H3)-N=C(H)-C(H)=N-(2,6-iPr2C6H3)} PdMe (NC-Me)]+

[{(2,6-iPr,C6H3)-N=C(Me)-C(Me)=N-(2,6-iPr,C,H3)} PdMe (NC-Me)]+
[{(2,6-iPr,C6H3)-N=C(Ph)-C(Ph)=N-(2,6-iPr2C6H3)}PdMe (NC-Me)]+
[{(2,6-iPr2C6H3)-N=C(Me)-C(Me)=N-(2,6-iPr2C6H3)} NiMe (OEtz)]+
[{(2,6-iPrzC6H3)-N=C(Ph)-C(Ph)=N-(2,6-iPr2C6H3)} NiMe (OEt,)]+
{[(2, 6 - PhN=C(CH3))zCsH3N] CoCI,}

{[(2, 6 - PhN=C(CH3))2C5H3N] FeCI,}
{[(2, 6 - PhN=C(CH3))2CsH3N] CoCl3}
{[(2, 6 - PhN=C(CH3))2CsH3N] FeCl3}
bis (2,2'-bipyridyl) iron diethyl Chemically and structurally related catalytically active Iron, Cobalt, Nickel and Palladium compounds as well as other catalysts of Group 8-10 metals that are useful in the catalytic matrix of the present invention would be apparent to those skilled in 1$

the art based on their respective chemical structures and reactivities in oleftn polymerizations.
Accordingly, suitable catalyst components may be organometallic complex selected from the group= consisting of Group 3-10 metals, non-metals, lantbanide metals, acdnide metals and 5cotnbinations thereof including tl1ose sellccted from the group consisting of olefin polymerization catalysts, Ziegler-Natta catalysts, metailocene complexes of Group 3-10 metals, raatallocene complexes of non-metals, metalloc,eaze complexes of lanthanide xnetals, metailocene complexes of actinide metals, single-site catalysts, single site metallocene catalyscs, and combinations thereof.

ACTIVATOR COMPONENTS
Illustrative, but not licniting examples of activators that usefully comprise the catalyst matrix of the present invention are disclosed in publications of Chen and Marks, such as Chem. R,ev., 100, 1391-1434, 2000, Coates, such as Chem. Rev., 100, 1223-1252, 2000, Resconi et al, such as Chem. Rev., 100, 1253-1346, 2000, Fink et ls al, such as Chem. Rev., 100, 1377-1390, 2000 Alt and Koeppl, such as Chem.
Rev., 100, 1205-1222, 2000 and Hlatky, Chem. Rev., 100, 1347-I376, 2000, the contents af whiclt are usefuliy employed in accordance with the invention. Activators usefully comprising the catalyst matrix of the present invention are:
Boron containing activators derived from organic or inorgauic borane cornpounds or borate anions, aluminum compounds derived from alutninum alkyls, " -=
organoaluminoxanes (e.g. MAO). Prefered examples of activators employed in the catalyst matrix of the present invention are trifluoroborane, rriphenylborane, Tris(4-fluorophenyl)borane, Tris(3,5-difluorophenyl)borane, Tris(4-fluorom,ethylphenyl)borane, Tris(pentafluorophenyl)borane, Tris(tolyl)borane, Tris(3.5- dimeiltylphenyl)borane, Tris(3,5-difluorophenyl)borane, Tris(3,4,5-trifluorophenyl)borane, ]aiinethylanilinium [(pentafluorophenyl) borate, sodium[B{3,5-(CF3) aCaF3}a], (H (OFtz), LB {3, 5-(CF3) C6F3}ql, alum.inuxn alkyls SUCh as A1(C2H3)3f Al (CH2CH (CH3) 2)3, Al (C3H7)3, Al ((CH03CH3)3=
Al((CHz)sCH3)31 Al(C6F5)3, A1(C2H,)2C1, Alz(CZH$)3C1z, A1C13 and aluminoxanes such as methylaluminoxane (MAO), modified methyl aluminoxane (MMAO), iobutylalum.i.noxane, burylaluminbxane, heprylaluminoxane and rnethylbutylalununoxane. Both stoiehiometric and non-stoichiometric quantities of 18a aciivators are usefully employed in the catalyst matrix of the present invention using triaryl carbenium tctraarylborates, N,N-dialkylanilituium salts such as N,N-d'unethylariilinium tetra(pentafluoropbenyl}bora.te, N,N-diethytanilinium r.etra(phenyl)borate, N,N-2,4,6-peatamethylanilinium tetrapbenylborate ax-d chemically related Group 13 compounds; dialkyl asxunon.ium salts such as di(i-propyl)alnmoh.i.usn tetra(pentafluoropheny))borate, dicyclohexylammonium tetra(phenyl)boron and chemically related Group 13 compounds; triaryl phosphonium salts such as triphenylphosphonium tetraphenylborate, tri(methylphenyl)phosphonium tetra(phenyl)borate, tri(dimethylphenyl)phosphonium tetra(phenyl)borate and chemically related Group 13 compounds. Any complex anions or compounds forming such anions that exhibit an ability to abstract and activate the metal compounds would be within the scope of the catalyst matrix of the present invention.
Chemically and structurally related boron compounds and aluminum compounds as well as other catalysts of Group 13 elements that are useful in the catalyst matrix of the present invention would be apparent to those skilled in the art based on their respective 1 o chemical structures and activities in olefin polymerizations.
CATALYTIC MATRIX
The catalytic matrix of the present invention is formed by reacting a polyolefin catalyst with the olefin containing material. The unsaturated transition metal complex can be generated using activators before reaction with the olefin material or can be formed in the presence of the olefin material. Evidence for the formation of a new catalyst matrix can be obtained using "C NMR or IR spectroscopy in which a substantial reduction in olefin resonance is observed. Elemental analysis and techniques to determine elemental composition such as TOF-SIMS and ESCA can also be used to analyzed the catalyst matrix of the present invention.

POLYOLEFIN PROCESSES
Reactor systems well known in the art, such gas phase reactors, slurry loop reactors and solution phase reactors or combinations of reactors can be usefully employed in accordance with the present invention for polyolefin production using the catalytic matrices described above. Gas phase or slurry loop polymerization reactors are preferred.
In one embodiment, a catalytic matrix is deposited on a subtrate which comprises an organic or inorganic material. The material may be in the form of an object or particulate or comprise the surface of a material. The material is subsequently exposed to olefin monomer to form a polyolefin coating on the material. A coating process comprising depositing the matrix of the present invention on a substrate and polymerizing olefin monomer to produce a polyolefin coated surface, object or particulate can be usefully employed in accordance with the invention. The substrate may comprise an organic polymer or may consist of an inorganic oxide, comprising 5 clays, micas, silicates, metals and non-metal oxides. In another embodiment, a process for preparing a composite of substrate and polyolefin in-situ using the matrix in combination with at least one substrate can be employed in accordance with the invention.
The modification of polyolefin properties in-situ is an important advantage of 10 the catalytic matrices of the present invention. Modification of the properties of polyolefins such as polyethylene and polypropylene are possible using matrices of the invention. The ability of the matrix to be used as a polymer modifier in-situ is a key advantage of the invention as compared to the manner of modifying polymer properties known currently in the art. Mechanical properties, such as resistance to 15 shear forces, rheological properties, such as glass transition temperature or viscosity and other physical properties such as fire retardancy of polyolefins can be modified in specific polyolefins in accordance with the invention. In one embodiment, a process for the production of hydrophobically modified particles as hydrophobically modified inorganic particles can be usefully employed in accordance with the invention.
The 20 particles can be in the form of spheres, surfaces and objects in which the catalyst matrix is deposited on the particles and polymerized in the presence of an olefin.
Other variations of preparing polyolefin coated objects or modified polyolefins are within the scope of the present invention.

EXPERIMENTAL EXAMPLES

In the following examples, all reagents used are of good commercial quality, unless otherwise indicated, and all percentages and ratios given herein are by weight unless otherwise indicated.

-=~

An example illustrating the preparation of an organic material contain,ing olefinic groups useful for the preparation of- the catalyst matrix of Ihe present invenpon.
A 2-liter, 4-necked tlask was equipped with a condenser, mechanical stirrer, thermocouple and nitrogen inlet, containing an aqueous soluUon prepared by mixing together 680 g deionized water, 3.4 g methylhydroxyethylcellulose, 0.04 g sodium lauryl sulfate, 2.5 g 50 1o aqueous sodium hydroxide solution and 2.7 g boric acid. A
monomer mixture containing 182 g divinylbenzene (80% purity) 149 g xylene, 179 g 1o methylisobutylcarbinol and 4.5 g benzyol peroxide was added to the mixture.
Under a nitrogen atuiosphere, the resulting mixture was stirred at 300 rpm to maintaiu the monomex in discrete dropleu and heated to 75 C over a 1-hour period. The monomers were allowed to polymerize at 75 C for 10 hours. Xylene and MIBC were removed from the mixture by washing with methanol and the resutting polymer beads were allawed to dry overnight in an oven at 40 C. The olefia containing polymer product had an average panicle diameter of 80 microns, a porosity of 1.9 cc/g, a 4V/A
pore diameter of 104 angstroms and a surface area of 730 &/g. The amount of pendant vinyl groups, as determined by solid state "C NMR spectroscopy was measured to be approximately 1.9 mi oUg.

An example illustrating the prepararion of an inorganic material funccionalized with olefinic -groups useful for the preparation of the catalytic matrix of the present invention.
In an argon 1'illed glove box, 0,58 g of GR.ACE DA'VISdNs 948 silica that had been activated at 200 C for 2 hours, was mixed with 2 grams of dimethylchiorovinyl silane.
This mixture was placed into a glass reactor and sealed and removed from the box.
After heating for 3 days the reactor was opermed inside of the glove box and the contents Iiltered and the product washed with 20 ml of toluene and then washed with 2 x 20 rnl of heptane and 0.50 g of product was recovered. Elemental analysis and infared spectroscopy indicated ibat the product contained 0.9 rnrnol/g of vinyl groups_ TrademaxiG

Catalytic Matrix A
An example illustrating preparation of a catalytic matrix comprising a specific Group 4 catalyst of the present invention useful for the polymerization and copolymerization of ethylene. All manipulations were performed in a glove box under a dry and inert, argon atmosphere.
To 0.500 g of the olefinic material from Example 1 was added 5 ml of toluene.
This material was allowed to swell in toluene for 30 minutes. Next, a dark orange oil produced from the reaction of 0.053 g of biscyclopentadienyl zirconium dimethyl in 2 ml of toluene with 0.145 g of N,N-dimethylanilinium tetra(pentafluorophenyl)borate was added to the toluene swollen olefin containing material. The oil quickly reacted with the material resulting in a light orange product and a colorless toluene solution.
After mixing for 45 minutes, the material was filtered and washed with 10 ml of toluene followed by 2 x 20 ml of dry oxygen free heptane. A beige product resulted from filtration and was dried under vacuum, yielding 0.580 g of catalyst. This product contained a calculated 0.27 mmol of Zr per gram of catalytic matrix.

Catalytic Matrix B
The example illustrates the preparation of a catalytic matrix comprising a specific Group 4 catalyst of the present invention, comprising the introduction of a single cyclopentadienyl group bridged to a nitrogen group attached to the metal center, useful for the polymerization and copolymerization of ethylene. All manipulations were performed in a glove box under a dry and inert, argon atmosphere using dry and oxygen free solvents.

To 0.190 of olefinic-based material from Example I was added 5 ml of toluene. This material was allowed to swell in toluene for 30 minutes. Next, a dark orange oil produced from the reaction of 0.021 g of [t-Butylamido)(tetramethylcyclopentadienyl)-dimethylsilane]titanium dimethyl in 2 ml of toluene with 0.052 g of N,N-dimethylanilinium tetra(pentafluorophenyl)borate was added to the toluene swollen olefin containing material. The oil quickly reacted with the material resulting in a light orange brown product and a colorless toluene solution.

After mixing for 45 minutes, the material was filtered and washed with 10 ml of toluene followed by 2 x 20 ml of dry oxygen free heptane. A beige product resulted from filtration and was dried under vacuum, yielding 0.211 g of catalyst. The product contained a calculated 0.25 mmol of Ti per gram of catalytic matrix.

Catalytic Matrix C
An example illustrating preparation of a catalytic matrix comprising a specific Group 4 catalyst of the present invention, comprising the introduction of two 1 o substituted cyclopentadieyl rings, useful for the polymerization and copolymerization of ethylene. All manipulations were performed in a glove box under a dry and inert, argon atmosphere.
To 0.200 g of the olefin-based material from Example I was added 5 ml of toluene. This material was allowed to swell in toluene for 30 minutes. Next, a dark brown orange oil produced from the reaction of 0.018 g of bismethylcyclopentadienyl zirconium dimethyl in 2 ml of toluene with 0.052 g of N,N-dimethylanilinium tetra(pentafluorophenyl)borate was added to the toluene swollen olefin containing material. The oil quickly reacted with the material resulting in a tan brown orange product and a colorless toluene solution. After mixing for 45 minutes, the material was filtered and washed with 10 ml of toluene followed by 2 x 20 ml of dry oxygen free heptane. A tan brown product resulted from filtration and was dried under vacuum, yielding 0.191 g of catalytic matrix. The product contained a calculated 0.27 mmol of Zr per gram of catalytic matrix.

Catalytic Matrix D

An example illustrating preparation of a catalytic matrix comprising a specific Group 4 catalyst of the present invention comprising the introduction of two substituted cyclopentadienyl rings bridged together useful for the isotactic polymerization of propylene. All manipulations were performed in a glove box under a dry and inert, argon atmosphere.

To 0.250 g of the olefinic material from Example 1 was added 10 ml of toluene. This material was allowed to swell in toluene for 30 minutes. Next, a dark orange oil produced from the reaction of 0.050 g of rac-dimethylsilyl-bis-(1-indenyl)dimethyl zirconium in 5 ml of toluene with 0.150 g of N,N-dimethylanilinium tetra(pentaflurophenyl)borate was added to the toluene swollen olefin containing material. The oil quickly reacted with the material resulting in a light orange product and a colorless toluene solution. After mixing for 45 minutes, the material was filtered and washed with 10 ml of toluene followed by 2 x 20 ml of dry oxygen free heptane.
A gray beige product resulted from filtration and was dried under vacuum yielding 0.200 g of catalytic matric. Based on elemental analysis, the product contained a calculated 0.16 mmol of Zr per gram of catalytic matrix.

Catalytic Matrix E
An example illustrating preparation of a catalytic matrix comprising a specific Group 10 catalyst of the present invention useful for the polymerization and copolymerization of ethylene. All manipulations were performed in a glove box under a dry and inert, argon atmosphere.

To 0.100 g of the olefinic material from Example I was added 2 ml of methylene chloride. The material was allowed to swell in methylene chloride for 30 minutes. Next, a filltered orange solution containing 0.019g of [(2,6-(i-C3H7)2C6H3N=C(CH3)-C(CH3)=N(2,6-(i-C3H7)2C6H3)PdCH3Cl and 0.029 Na B[3,5-C6H3-(CF3)2]4 in 2 ml of diethylether was added to the methylene chloride swollen olefin containing material. The orange solution quickly reacted with the material resulting in a pale orange brown product. After 45 minutes, the material was filtered and washed with 10 ml of toluene followed by 2 x 20 ml of dry oxygen free heptane.
The tan product was dried under vacuum yielding 0.089 g of catalytic matrix.
This product contained a calculated 0.22 mmol of Pd per gram of catalytic matrix.

Catalytic Matrix F
An example illustrating preparation of a catalytic matrix comprising a mixed single-site Group 4 catalyst of the present invention, a catalytic matrix containing a 5 mixture of transition metal catalysts useful for the polymerization and copolymerization of ethylene. All manipulations were performed in a glove box under a water free and inert, argon atmosphere.
To 0.15 g of the olefin-based polymeric material from Example I was added 3 ml of toluene. This material was allowed to swell in toluene for 60 minutes.
Next, a 10 dark orange oil produced from the reaction of 0.006 g of biscyclopentadienyl zirconium dimethyl in I ml of toluene with 0.02 g of' N,N-dimethylanilinium tetra(pentaflurophenyl) borate and a dark orange oil produced from the reaction of 0.008 g of [t-Butylamido)(tetramethylcyclopentadienyl)-dimethylsilane]titanium dimethyl in 1 ml of toluene with 0.02 g of N,N-dimethylanilinium 15 tetra(pentafluorophenyl) borate were mixed together and added to the toluene swollen olefin containing material. The orange oil quickly reacted with the material resulting in a light orange product and a colorless toluene solution. After mixing for 45 minutes, the material was filtered and washed with 10 ml of toluene followed by 2 x 20 ml of dry oxygen free heptane. The beige product was dried under vacuum 20 yielding 0.166 g of catalytic matrix. This product contained a calculated 0.13 mmol of Zr per gram and 0.13 mmol of Ti per gram of catalytic matrix.

Catalytic Matrix G
25 An example illustrating preparation of a multi-site catalytic matrix of the Ziegler-Natta type of the present invention useful for the polymerization and copolymerization of ethylene. All manipulations were performed in a glove box under a water free and inert, argon atmosphere.
To 0.350 g of the olefinic material from Example 1 was added 5 ml of tetrahydrofuran. The material was allowed to swell in tetrahydrofuran for 30 minutes.
Next, 0.22 mL of a 2.OM solution of EtMgC1 in diethyl ether was added to the swollen olefinic material and the mixture allowed to mix for 3 days. Then 0.07 mL of a neat TiCI4 solution was added and a color change from tan to gray) along with an exothermic reaction were noted. After mixing for 24 hours, the material was filtered and washed with 2 x 20 ml of dry oxygen free heptane to yield 0.300 g of a gray catalytic matrix.

Catalytic Matrix H
An example illustrating preparation of a catalytic matrix of the present invention comprising a specific single-site catalyst, further comprising a single cyclopentadienyl ligand system useful for the polymerization and copolymerization of styrene. All manipulations were performed in a glove box under a water free and inert, argon atmosphere.
To 0.201 g of the olefinic material from Example 1 was added 5 ml of toluene.
The material was allowed to swell in toluene for 90 minutes. Next, a dark orange brown oil produced from the reaction of 0.015 g of pentamethylcyclopentadienyl titanium trimethyl in 2 ml of toluene with 0.060 g of trityl tetra(pentafluorophenyl) borate was added to the toluene swollen olefin containing material. The oil quickly reacted with the material resulting in a brown product and a light yellow toluene solution. After mixing for 45 minutes, the material was filtered and washed with 10 ml of toluene followed by 2 x 20 ml of dry oxygen free heptane to yield 0.225 g of a brown catalytic matrix with a calculated 0.25 mmol Ti per gram of catalytic matrix.

Catalytic Matrix I
An example illustrating preparation of a catalytic matrix comprising a specific Group 4 catalyst of the present invention useful for the polymerization and copolymerization of ethylene. All manipulations were performed in a glove box under a dry and inert, argon atmosphere.
To 0.100 g of the olefinic material from Example 2 was added 2 ml of toluene.
Next, a dark orange oil produced from the reaction of 0.008 g of biscyclopentadienyl zirconium dimethyl in 1 ml of toluene with 0.024 g of N,N-dimethylanilinium tetra(pentafluorophenyl)borate was added to the toluene swollen olefin containing material. The oil quickly reacted with the material resulting in a light orange product and a colorless toluene solution. After mixing for 45 minutes, the material was filtered and washed with 10 ml of toluene followed by 2 x 20 ml of dry oxygen free heptane.
A beige product resulted from filtration and was dried under vacuum, yielding 0.072 g of catalytic matrix. This product contained a calculated 0.24 mmol of Zr per gram of catalvtic matrix.

Ethylene Homopolymerization An example illustrating an ethylene polymerization process using a specific catalytic matrix of the present invention.
Polymerization was performed in the slurry-phase in a 600 mL autoclave reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified ethylene. An external water bath was used for attaining reaction temperature.
In a glove box, 300 mL of dry heptane, 1.0 mL of I M triisobutyl aluminum in hexane as a scavenger and 0.050 of catalytic matrix A were added to the reactor. The reactor was sealed and removed from the glove box and placed in the 60 C water bath until 60 C was attained. The reactor was then charged with 80 psig of ethylene at and the polymerization started. The polymerization was continued for 30 minutes while maintaining the reaction vessel within 3 C of 60 C and 80 psig ethylene pressure by a constant ethylene feed. The reaction was stopped by rapid cooling and venting. Twenty nine grams of spherical, free flowing polyethylene with a particle size of between 200 and 500 microns was recovered. The polyethylene had a weight average molecular weight of 188,500, a molecular weight distribution of 3.4 and a melting point (DSC-IOC/min.) of 137 C. The polymerization activity was calculated by dividing the yield of polymer by the total number of millimoles of transition metal catalyst contained in the catalyst charge by the time in hours and by the absolute monomer pressure in atmospheres yielding an activity value of 790 g PE/mmol catalyst-hr-atm.

Ethylene Homopolymerization An example illustrating an ethylene polymerization process using a specific catalytic matrix of the present invention.
Polymerization was performed in the slurry-phase in a 600 mL autoclave reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified ethylene. An external water bath was used for attaining reaction temperature.
In a glove box, 300 mL of dry heptane, 1.0 mL of I M triisobutyl aluminum in hexane io as a scavenger and 0.040 of catalytic matrix B were added to the reactor.
The reactor was sealed and removed from the glove box and placed in the 60 C water bath until 60 C was attained. The reactor was then charged with 80 psig of ethylene at and the polymerization started. The polymerization was continued for 30 minutes while maintaining the reaction vessel within 3 C of 60 C and 80 psig ethylene pressure by constant ethylene feed. The reaction was stopped by rapid cooling and venting. The spherical, free flowing polyethylene had a weight average molecular weight of 924,200 a molecular weight distribution of 4.7 and a melting point (DSC-I OC/min.) of 141 C.

2o EXAMPLE 14 Ethylene Copolymerization An example illustrating copolymerization of ethylene with 1-hexene using a specific catalytic matrix of the present invention.
Polymerization was performed in the slurry-phase in a 600 mL autoclave reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified ethylene. An external water bath was used for attaining reaction temperature.
In a glove box, 300 mL of dry heptane, 1.0 mL of 1 M triisobutyl aluminum in hexane as a scavenger and 0.052 of catalytic matrix B were added to the reactor. The reactor was sealed and removed from the glove box and placed in the 70 C water bath until was attained. The reactor was then charged with 80 psig of ethylene and 5 grams of 1-hexene at 70 C and the polymerization started. The polymerization was continued for 30 minutes while maintaining the reaction vessel within 5 C of 70 C and 80 psig ethylene pressure by constant ethylene feed. The reaction was stopped by rapid cooling and venting. 9.6 grams of spherical polymer were recovered. The spherical, free flowing polymer had a weight average molecular weight of 233,600, a molecular weight distribution of 4.36 and a melting point (DSC-10 C/min.) of 119 C.

Ethylene Copolymerization An example illustrating copolymerization of ethylene with 1-hexene using a specific catalytic matrix of the present invention.
Polymerization was performed in the slurry-phase in a 600 mL autoclave reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified ethylene. An external water bath was used for attaining reaction temperature.
In a glove box, 300 mL of dry heptane, 1.0 mL of 1 M triisobutyl aluminum in hexane as a scavenger and 0.050 of catalytic matrix C were added to the reactor. The reactor was sealed and removed from the glove box and placed in the 60 C water bath until 60 C was attained. The reactor was then charged with 80 psig of ethylene and grams of 1-hexene at 60 C and the polymerization started. The polymerization was continued for 30 minutes while maintaining the reaction vessel within 3 C of and 80 psig ethylene pressure by constant ethylene feed. The reaction was stopped by rapid cooling and venting. The spherical, free flowing polymer had a weight average molecular weight of 131,900 a molecular weight distribution of 3.36 and a melting point (DSC-lOC/min.) of 119.6 C.

Ethylene Homopolymerization An example illustrating the polymerization of ethylene using a specific catalytic matrix of the present invention.

Ethylene Homopolymerization An example illustrating the polymerization of ethylene using a specific 5 catalytic matrix of the present invention.

Polymerization was performed in the slurry-phase in a 600 mL autoclave reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified ethylene. An external water bath was used for attaining reaction temperature.

1 o In a glove box, 300 mL of dry heptane, 1.0 mL of 1 M triisobutyl aluminum in hexane as a scavenger and 0.048 of catalytic matrix C were added to the reactor. The reactor was sealed and removed from the glove box and placed in the 60 C water bath until 60 C was attained. The reactor was then charged with 80 psig of ethylene at and the polymerization started. The polymerization was continued for 30 minutes 15 while maintaining the reaction vessel within 3 C of 60 C and 80 psig ethylene pressure by constant ethylene feed. The reaction was stopped by rapid cooling and venting. The spherical, free flowing polyethylene produced had a melting point (DSC-10 C/min.) of 136 C.

2o EXAMPLE 18 Ethylene Homopolymerization An example illustrating the polymerization of ethylene using a specific catalytic matrix of the present invention.

Polymerization was performed in the slurry-phase in a 600 mL autoclave 25 reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified ethylene. An external water bath was used for attaining reaction temperature.
In a glove box, 300 mL of dry heptane, 1.0 mL of 1 M triisobutyl aluminum in hexane as a scavenger and 0.050 of catalytic matrix G were added to the reactor. The reactor 30 was sealed and removed from the glove box and placed in the 60 C water bath until 60 C was attained. The reactor was then charged with 80 psig of ethylene at and the polymerization started. The polymerization was continued for 30 minutes while maintaining the reaction vessel within 3 C of 60 C and 80 psig ethylene pressure by constant ethylene feed. The reaction was stopped by rapid cooling and venting. The spherical, free flowing polyethylene produced had a weight average molecular weight of 757,600, a molecular weight distribution of 3.14 and a melting point (DSC-10 C/min.) of 141.50 C.

Ethylene Homopolymerization An example illustrating the polymerization of ethylene using a specific catalytic matrix of the present invention.
Polymerization was performed in the slurry-phase in a 600 mL autoclave reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified ethylene. An external water bath was used for attaining reaction temperature.

In a glove box, 300 mL of dry heptane, 1.0 mL of 1 M triisobutyl aluminum in hexane as a scavenger and 0.048 of catalytic matrix F were added to the reactor. The reactor was sealed and removed from the glove box and placed in the 60 C water bath until 60 C was attained. The reactor was then charged with 80 psig of ethylene at and the polymerization started. The polymerization was continued for 30 minutes while maintaining the reaction vessel within 3 C of 60 C and 80 psig ethylene pressure by constant ethylene feed. The reaction was stopped by rapid cooling and venting. The spherical, free flowing polyethylene produced had a weight average molecular weight of 219,400, a molecular weight distribution of 2.39 and a melting point (DSC-10 C/min.) of 136 C.

Ethylene Homopolymerization An example illustrating an ethylene polymerization process using a specific catalytic matrix of the present invention.
Polymerization was performed in the slurry-phase in a 600 mL autoclave reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified ethylene. An external water bath was used for attaining reaction temperature.
In a glove box, 300 mL of dry heptane, 1.0 mL of I M triisobutyl aluminum in hexane as a scavenger and 0.050 of catalytic matrix I were added to the reactor. The reactor was sealed and removed from the glove box and placed in the 60 C water bath until 60 C was attained. The reactor was then charged with 80 psig of ethylene at and the polymerization started. The polymerization was continued for 30 minutes while maintaining the reaction vessel within 3 C of 60 C and 80 psig ethylene pressure by constant ethylene feed. The reaction was stopped by rapid cooling and venting. The spherical, free flowing polyethylene had a melting point (DSC-10 C/min.) of 137 C.

Propylene Homopolymerization An example illustrating polymerization of propylene using a specific catalytic matrix of the present invention.
Polymerization was performed in the slurry-phase in a 600 mL autoclave reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified propylene. An external water bath was used for attaining reaction temperature. In a glove box, 1.0 mL of 1 M triisobutyl aluminum in hexane as a scavenger and 0.050 of catalytic matrix D were added to the reactor. The reactor was then charged with approximately 100 ml of liquid propylene, charged with 250 psig of argon placed in a 50 C water bath until 50 C was attained and the polymerization started. The polymerization was continued for 30 minutes while maintaining the reaction vessel within 3 C of 50 C. The reaction was stopped by rapid cooling and venting. The granular, free flowing isotactic polypropylene had a melting point (DSC-10 C/min.) of 142 C.

Ethylene Homopolymerization An example illustrating an ethylene polymerization process using a specific catalytic matrix of the present invention.

33 The catalyst in.auiac was formed in a glove box by reacting a toluene solution containing 0.024 g ofKRATDN'D11o2 (a styrene/butadiene copolymer containing pendan.t olefin groups from 1,2 addition) with a toluene insoluble red oil containing 0.0062 millimoles of CpZr(CH)'k3(CFs);. Upon mixing the two solutions, a golden yellow toluen.e souble solution formed. The solution was added into a reactor contain.ing 300 tnL of dry heptane. Polymerization was performed in solut'son-phase in a 640 mL autoclave reactor equipped with a mechanical stirrer, a thermocouple for temperature monitoring, a water cooling loop for temperature control and a regulated supply of purified ethylene. An extemal water bath was used for attaining reaction temperature. The reactor was sealed and removed from the glove box and placed in the 60 C water bath uatit 60 C was attained. The reactor was then charged with 80 psig of ethylene at 60 C and the polymerization star[ed. The polymerization was continued for 30 minutes while maintaining tlie reaction vessel within 3 C of and 80 psig ethylene pressure by constarrt ethylene feed. The reaction was stopped by rapid cooling and vertcing. The granular, free flowing polyethylene had a weight average molecular weight of 263,800, a molecular weight distributiou of 2.88 and a melting point (DSC-IO C/uiin.) of 138.S C.

* Trademark

Claims

1. A porous particulate composition comprising a matrix of one or more catalytic components and at least one organic polymer having a plurality of covalently bound free olefin groups, wherein the catalyst component is an organometallic complex selected from the group consisting of Group 3-10 metals, lanthanide metals, actinide metals and combinations thereof; wherein the matrix is formed by reaction of the one or more catalytic components and the free olefin groups of the organic polymer; and wherein the organometallic complex contains no Si-H groups.

2. The composition of claim 1, wherein the at least one polymer having a plurality of covalently bound free olefin groups is a macroporous polymer prepared in the presence of a porogen and is selected from the group consisting of divinylbenzene polymers, divinylbenzene copolymers, styrene/divinylbenzene copolymers, divinylbenzene resins, cross-linked divinylbenzene polymers, styrene/butadiene copolymers, styrene/isoprene copolymers, vinylsiloxane polymers, allylsiloxane polymers, and combinations thereof.

3. The composition of claim 1, wherein the matrix further comprises the catalyst component selected from the group consisting of: Ziegler-Natta catalysts, metallocene complexes of Group 3-10 metals, metallocene complexes of lanthanide metals, metallocene complexes of actinide metals, single-site catalysts, single-site metallocene catalysts and combinations thereof, and at least one activator component.

4. The composition of claim 1, wherein the matrix is selected from the group of formulas consisting of: [Cp1Cp2MR x L]+ [NCA]-, wherein M is a Group 4 metal, Cp1 is a substituted or non-substituted cyclopentadienyl ring and Cp2 is the same or different, substituted or non-substituted cyclopentadienyl ring and may be bridged symmetrically or asymmetrically to Cp1, R is hydride, alkyl, silyl, germyl or an aryl group, x is an integer equal to 0 or 1, L is formed by reaction of the Group 4 metal complex and the free olefin groups of the polymer and NCA is a non-coordinating anion; [Cp1Cp2M1R1]+ [NCA]-, wherein M1 is a Group 4 metal. Cp1 is a substituted or non-substituted cyclopentadienyl ring and Cp2 is the same or different, substituted or non-substituted cyclopentadienyl ring and may be bridged symmetrically or asymmetrically to Cp1, R1 is a hydrocarbyl group formed by reaction of the Group 4 metal complex and the free olefin groups of the polymer and NCA is a non-coordinating anion; [Cp1M2R2y L]+[NCA]-, wherein M2 is a Group 4 or 6 metal, Cp1 is a substituted or non-substituted cyclopentadienyl ring, R2 is a hydride, alkyl, silyl, germyl or an aryl group, y is an integer ranging from 0 to 6, L is formed by reaction of the Group 4 or 6 metal complex and the free olefin groups of the polymer and NCA is a non-coordinating anion; [(Multidentate)M3R3z L]+[NCA]-, wherein M3 is a Group 4 or 6 or 8 or 9 or 10 metal, R3 is hydride, alkyl, silyl, germyl, aryl, halide or alkoxide group, z is an integer equal to 0, 1 or 2, multidenate is a bidentate, tridentate or tetradentate ligand containing nitrogen, sulfur, phosphorus or oxygen, or combinations thereof, as coordinating atoms to the metal, L is formed by reaction of the Group 4 or 6 or 8 or 9 or 10 metal complex and the free olefin groups of the polymer and NCA is a non-coordinating anion; (Multidentate)M4R4q L, wherein M4 is a Group 4 or 6 or 8 or 9 or 10 metal, R4 is hydride, alkyl, silyl, germyl, aryl, halide or alkoxide group, q is an integer equal to 0, 1 or 2, multidenate is a bidentate, tridentate or tetradentate ligand containing nitrogen, sulfur, phosphorus or oxygen, or combinations thereof, as coordinating atoms to the metal and L is formed by reaction of the Group 4 or 6 or 8 or 9 or 10 metal complex and the free olefin groups of the polymer; (Cp1)s(Cp2)t M5R5t L + [NCA]-, wherein M5 is a lanthanide or an actinide metal, Cp1 is a substituted or non-substituted cyclopentadienyl ring and Cp2 is the same or different, substituted or non-substituted cyclopentadienyl ring and may be bridged symmetrically or asymmetrically to Cp1, R5 is hydride, alkyl, silyl, germyl, aryl, halide, alkoxide, amide solvent ligand, or a bidentate ligand containing nitrogen, sulfur, phosphorus or oxygen, s=0-2, t=0-2, L is formed by reaction of the lanthanide or actinide metal complex and the free olefin groups of the polymer and NCA is a non-coordinating anion or combinations thereof.

5. A porous particulate composition comprising a matrix of at least one macroporous polymer having a plurality of free olefin groups selected from the group consisting of: divinylbenzene polymers, divinylbenzene copolymers, styrene/divinylbenzene copolymers, divinylbenzene resins, cross-linked divinylbenzene polymers, styrene/butadiene copolymers, styrene/isoprene copolymers, vinylsiloxane polymers, allylsiloxane polymers and combinations thereof; and at least one Ziegler-Natta catalyst, wherein the matrix is formed by reaction of the at least one Ziegler-Natta catalyst and the free olefin groups of the polymer.

6. The porous particulate composition according to claim 5, wherein the Ziegler-Natta catalyst comprises at least one titanium compound, at least one magnesium compound and at least one aluminum compound.

7. A porous particulate composition comprising a matrix of at least one macroporous polymer having a plurality of free olefin groups selected from the group consisting of: divinylbenzene polymers, divinylbenzene copolymers, styrene/divinylbenzene copolymers, divinylbenzene resins, cross-linked divinylbenzene polymers, styrene/butadiene copolymers, styrene/isoprene copolymers, vinylsiloxane polymers, allylsioxane polymers, and combinations thereof; and at least one catalyst comprising at least one chromium compound and silica, wherein the matrix is formed by reaction of the at least one catalyst and the free olefin groups of the polymer.