Process of making polyalkylene polyamines

Abstract: This invention relates to a process for making amines by condensing an amino compound in the presence of a metallic polyphosphate condensation catalyst having a condensed structrue. This invention also relates to an alkyleneamines producers composition rich in triethylenetetramine (TETA), tetraethylenepentamine (TEPA) and penta­ ethylenehexamine (PEHA).

Description: The present invention relates to a process of making polyalkylene polyamines without generating large amounts of cyclic alkylene polyamine products, which process comprises condensing an amino compound with the same or another amino compound or a compound containing an alcoholic hydroxyl group. More in particular, the invention relates to a process providing an alkyleneamines producers composition rich in higher polyalkylene polyamines such as triethylenetetramine (TETA), tetraethylenepentamine (TEPA) and pentaethylenehexamine (PEHA), without generating large amounts of cyclics. Background of the Invention There is a substantial body of literature directed to the use of various acid catalysts to effect intramolecular and intermolecular condensation of amino compounds. U.S. Patent No. 2,073,671 and U.S. Patent No. 2,467,205 constitute early prior work on the use of acid condensation catalysts to condense amino compounds. U.S. Patent No. 2,073,671 discusses, in a general fashion, the catalytic intermolecular condensation of alcohols and amines or ammonia using the same phosphate catalysts later favored by U.S. Patent No. 2,467,205 for the intramolecular condensation of amines. The two patents are not in harmony over the use of other materials as catalysts. To illustrate this point, U.S. Patent No. 2,073,671 states: "Alumina, thoria, blue oxide of tungsten, titania, chromic oxide, blue oxide of molybdenum and zirconia have been mentioned in the literature for use as catalysts in carrying out these reactions but their effectiveness is so low that no practical application has been made of their use."; whereas U.S. Patent No. 2,467,205 in describing the self-condensation of ethylenediamine (EDA) under vapor phase conditions, to initially produce ethyleneamines, but after recycle, eventually generates piperazine through multistep condensation reactions, followed by deamination, recommends "dehydration catalysts" which are thereafter characterized as "silica gel, titania gel, alumina, thoria, boron phosphate, aluminum phosphate, and the like." U.S. Patent No 2,073,671 describes the condensation catalyst in the following terms: "...a heated catalyst or contact mass containing phosphorus and especially one or more of the oxygen acids of phosphorus, their anhydrides, their polymers, and their salts; for example, orthophosphoric acid, metaphosphoric acid, pyrophosphoric acid, phosphorous pentoxide, dimetaphosphoric acid, trimetaphosphoric acid, primary ammonium phosphate, secondary ammonium phosphate, normal ammonium phosphate, ammonium metaphosphate, secondary ammonium pyrophosphate, normal ammonium pyrophosphate, aluminum phosphate, aluminum acid phosphate and mixtures of two or more of such materials." whereas U.S. Patent No. 2,467,205 describes one of the preferred catalysts as "basic aluminum phosphate". U.S. Patent No. 2,454,404 describes the "catalytic deamination of alkylene polyamines" by reacting diethylenetriamine (DETA) vapor over solid catalysts such as activated alumina, bauxite, certain aluminum silicates such as kaolin and oxides of thorium, titanium and zirconium. U.S. Patent Nos. 2,073,671 and 2,467,205 demonstrate a common experience in using aluminum phosphate as a condensation catalyst to produce aliphatic amines, and U.S. Patent Nos. 2,454,404 and 2,467,205 contemplate the other solid catalysts for deamination of amines to make heterocyclic noncyclic amines. In general, the reaction conditions under which deamination to effect cyclization occurs are more severe than those employed for condensation to generate noncyclic molecules, all other factors being comparable. U.S. Patent Nos. 4,540,822, 4,584,406 and 4,588,842 depict the use of Group IVB metal oxides as supports for phosphorus catalysts used to effect the condensation of amino compounds with alkanolamines. U.S. Patent No. 4,683,335 describes the use of tungstophosphoric acid, molybdophosphoric acid or mixtures deposited on titania as catalysts for the condensation of amines and alkanolamines to make polyalkylenepolyamines. U.S. Patent Nos. 4,314,083, 4,316,840, 4,362,886 and 4,394,524 disclose the use of certain metal sulfates as useful catalysts for the condensation of alkanolamine and an amino compound. No distinction is made between the sulfur compounds in respect to catalytic efficacy. Sulfuric acid is as good as any metal sulfate, and all metal sulfates are treated as equivalents. At column 8 of U.S. Patent No. 4,314,083, it is noted that boron sulfate "gave extremely high selectivity at a low level" of EDA. However, selectivity in general was shown to increase with an increase of EDA relative to MEA in the feed. The only specific metal sulfates disclosed in the patents are antimony sulfate, beryllium sulfate, iron sulfate and aluminum sulfate. In the typical case of the manufacture of alkyleneamines, mixtures with other alkyleneamines (including a variety of polyalkylenepolyamines and cyclic alkylenepolyamines) are formed. The same holds true when the object of the process is to produce polyalkylenepolyamines whether acyclic or cyclic, in that a variety of amino compounds are also formed. Each of these cyclic and acyclic alkyleneamines can be isolated from the mixture. The acid catalyzed condensation reaction involving the reaction of an alkanolamine with an amino compound in the presence of an acidic catalyst is believed to proceed through the mechanism of esterifying free surface hydroxyl groups on the acid catalyst with the alkanolamine and/or by protonating the alkanolamine in the presence of the acid catalyst, followed by loss of water and amine condensation of the ester or the hydrated species, as the case may be, to form the alkyleneamine. Illustrative prior art directed primarily to the cyclic polyalkylenepolyamines (heterocyclic polyamines), but not necessarily limited to the aforementioned acid condensation reaction, are: U.S. Patent Nos. 2,937,176, 2,977,363, 2,977,364, 2,985,658, 3,056,788, 3,231,573, 3,167,555, 3,242,183, 3,297,701, 3,172,891, 3,369,019, 3,342,820, 3,956,329, 4,017,494, 4,092,316, 4,182,864, 4,405,784 and 4,514,567; European Patent Applications 0 069 322, 0 111 928 and 0 158 319; East German Patent No. 206,896; Japanese Patent Publication No. 51-141895; and French Patent No. 1,381,243. The evolution of the art to the use of the acid catalyzed condensation reaction to generate acyclic alkyleneamines, particularly acyclic polyalkylenepolyamines, as the predominant products stemmed from the initial disclosure in U.S. Patent No. 4,036,881, though earlier patent literature fairly well characterized such an effect without labeling it so, see U.S. Patent No. 2,467,205, supra . The acid catalysts are phosphorus compounds and the reaction is carried out in the liquid phase. The trend in this catalyst direction was early set as demonstrated by U.S. Patent Nos. 2,073,671 and 2,467,205, supra . A modification of this route includes the addition of ammonia to the reaction, see, for example, U.S. Patent No. 4,394,524 and U.S. Patent No. 4,463,193 for the purpose of converting alkanolamine such as MEA in situ to alkylene amine such as EDA by reaction with ammonia, and the EDA is in situ reacted with MEA according to the process of U.S. Patent No. 4,036,881 to form alkyleneamines. A summary of the prior art employing acid catalysts for making alkyleneamines is set forth in Table 1 below. The market demand for higher polyalkylene polyamines such as TETA, TEPA and PEHA has been progressively increasing in recent years. These higher polyalkylene polyamines are desirable co-products with DETA. It would be desirable to satisfy the existing demand from a cost standpoint by modifying slightly the commercial processes directed to the manufacture of DETA from the reaction of MEA and EDA or other suitable starting raw materials such as DETA and AEEA, to the production of TETA, TEPA and PEHA as major products. It would be desirable to have continuously produced compositions, generated by the reaction of MEA and EDA or other suitable starting raw materials such as DETA and AEEA over a fixed bed of a condensation catalyst under commercial conditions, that are rich in TETA, TEPA and PEHA, and that are not disproporationately high in PIP and other cyclics. It would be very beneficial to have a process which increases one's ability to generate the manufacture of desirable higher polyalkylene polyamine products such as TETA, TEPA and PEHA without generating large amounts of cyclic alkylenepolyamine products. In addition, it would also be desirable to have a process with raw material flexibility which provides the potential to control congener distribution, linear to cyclic selectivity and linear to branched selectivity of the higher polyalkylene polyamines products. As used herein, congener distribution refers to polyalkylene polyamines containing the same number of nitrogen atoms but not necessarily having the same molecular weight or structure. In EP-A-0 115 138 a regenerative process for preparing predominantly linear polyethylene polyamines from ethylene diamine and monoethanol amine is described. The process uses a phosphorous bonded to a Group IVB metal oxide support as catalyst. Although it is stated that any appropriate liquid or liquefiable phosphorous compound can be used as source of the phosphorous, only acidic phosphorous compounds are exemplified and mentioned. Normally, phosphoric acid is used. It has been determined that acidic catalysts, such as the catalysts used in EP-A-0 115 138, lead to stability problems in amines reaction media when utilized over an extended period of time. Further, acidic phosphorous compounds on supports, and especially on silica supports, lead to leaching problems. These problems will be reverted to in more detail hereinbelow. The process of the present invention does not have the above-mentioned problems related with the prior art catalyst and provides the above-mentioned advantageous effects. In detail the present invention relates to a process of making polyalkylene polyamines without generating large amounts of cyclic alkylene polyamine products, which process comprises condensing an amino compound, said amino compound comprising ammonia, one or more organic compounds containing -NH, or mixtures thereof, with the same or another amino compound or a compound containing an alcoholic hydroxyl group, in the presence of a supported metallic polyphosphate condensation catalyst, wherein the catalyst has a cyclic structure and comprises structural units of the formula wherein M is the same or different and is a substantially insoluble metallic cation; X is the same or different and is oxygen, nitrogen or sulfur, and Y is a value of 1 or greater. The metallic polyphosphate condensation catalysts used herein contain sufficient residual bound hydroxyl groups or other groupings which renders catalyst formation possible by loss of water or its chemical equivalent such as ammonium hydroxide. This invention relates to a process of making amines by the (i) intramolecular condensation of an amino compound to an amine having a lower molecular weight or (ii) the intermolecular condensation of an amino compound with one or more of another amino compound or a compound containing an alcoholic hydroxyl group using certain supported metallic polyphosphates having a condensed structure as the condensation catalyst. While using the process of the invention, a continously generated alkyleneamines producers composition is obtained, comprising, based on 100 percent of the weight of the composition and exclusive of any water and/or ammonia present, a) greater than about 3.0 weight percent of the combination of TETA and TEPA, b) greater than about 0.1 weight percent of TEPA, c) greater than about 3.0 weight percent of TETA, d) less than about 90.0 weight percent of DETA and/or EDA, e) less than about 90.0 weight percent of MEA and/or AEEA, f) less than about 12.5 weight percent of the combination of PIP and AEP, g) less than about 15.0 weight percent of other polyalkylene polyamines, h) a TETA + TAEA to PIP + AEP + PEEDA + DAEP + DPE weight ratio of greater than about 1.0, i) a TEPA + AETAEA to PIP + AEP + PEEDA + DAEP + DEP + AEPEEDA + iAEPEEDA + AEDAEP + AEDPE + BPEA weight ratio of greater than about 0.5, j) a TETA to TAEA weight ratio of greater than about 2.0, and k) a TEPA to AETAEA weight ratio of greater than about 1.0. As used herein, the term "amino compound" embraces ammonia and any compound containing nitrogen to which is bonded an active hydrogen. Also, as used herein, the term "oxide" embraces oxides, hydroxides and/or mixtures thereof. For purposes of this invention, the chemical elements are identified in accordance with the Periodic Table of the Elements, CAS version, Handbook of Chemistry and Physics, 67th Ed., 1986-87, inside cover. Also, for purposes of this invention, Group IIIB metal oxides embraces the lanthanides and actinides. Detailed Description The higher polyalkylene polyamines such as TETA, TEPA and PEHA are very useful commercial products for a variety of applications including fuel oil additives, corrosion inhibitors, fabric softeners, fungicides and others. As indicated above, there is lacking a commercial process for the manufacture of enhanced quantities of TETA, TEPA and PEHA especially as significant products of reaction. There is thus a need for the ability to commercially generate larger production quantities of TETA, TEPA and PEHA and that is the direction of this invention. The process of this invention provides for the reaction of MEA and DETA or other suitable starting raw materials such as EDA and AEEA to produce in a continuous manner a reaction product mixture, termed herein an "alkyleneamines producers composition", in which TETA, TEPA and PEHA are principal products of the reaction. The process of this invention is distinctive insofar as it achieves the generation of high concentrations of TETA, TEPA and PEHA in a manner which can be suitably employed in a commercial process, particularly a continuous process, for the manufacture of alkyleneamines. In particular, the process of this invention allows the production of TETA, TEPA and PEHA in relatively high yields without generating large amounts of cyclic polyalkylene polyamine products. The process of this invention provides starting raw material flexibility thereby allowing the potential to control congener distribution, linear to cyclic selectivity and linear to branched selectivity of the higher polyalkylene polyamine products. As indicated above, this invention relates to a process of making polyalkylene polyamines which comprises condensing an amino compound in the presence of a metallic polyphosphate condensation catalyst having a specific condensed structure carried on a support. As also indicated above, while using the process of the invention a continously generated polyalkylene polyamines producers composition is obtained, comprising, based on 100 percent of the weight of the composition and exclusive of any water and/or ammonia present, a) greater than about 3.0 weight percent of the combination of TETA and TEPA, b) greater than about 0.1 weight percent of TEPA, c) greater than about 3.0 weight percent of TETA, d) less than about 90.0 weight percent of DETA and/or EDA, e) less than about 90.0 weight percent of MEA and/or AEEA, f) less than about 12.5 weight percent of the combination of PIP and AEP, g) less than about 15.0 weight percent of other polyalkylene polyamines, h) a TETA + TAEA to PIP + AEP + PEEDA + DAEP + DPE weight ratio of greater than about 1.0, i) a TEPA + AETAEA to PIP + AEP + PEEDA + DAEP + DEP + AEPEEDA + iAEPEEDA + AEDAEP + AEDPE + BPEA weight ratio of greater than about 0.5, j) a TETA to TAEA weight ratio of greater than about 2.0, and k) a TEPA to AETAEA weight ratio of greater than about 1.0. The alkyleneamines producers composition can be subjected to conventional separations techniques for recovering the individual components of the composition. Such techniques are well known in the art and include, for example, distillation. The specific condensed metallic polyphosphate condensation catalysts are cyclic and comprise structural units of the formula: wherein M is the same or different and is a substantially insoluble cation, X is the same or different and is oxygen, nitrogen or sulfur, and y is a value of from 1 to about 20 or greater. The preferred metallic polyphosphate condensation catalysts having a cyclic structure have ionic character and/or ion exchange capacity. While not wishing to be bound to any particular theory, it is believed that those metallic polyphosphates encompassed within the scope of this invention having a cyclic structure and possessing ionic character and/or ion exchange capacity exhibit desired catalytic activity and provide desired product selectivity. While the reaction mixture may initially include one or more metallic polyphosphates other than metallic polyphosphates having a cyclic structure and possessing ionic character and/or ion exchange capacity, it is believed to be desirable that such metallic polyphosphates having a cyclic structure and possessing ionic character and/or ion exchange capacity be formed in situ in order to provide desired catalytic activity and product selectivity. In such instances, the catalyst preparation conditions or reaction conditions should allow for the formation of metallic polyphosphates having a cyclic structure and possessing ionic character and/or ion exchange capacity. Mixtures of metallic polyphosphates having a cyclic structure and possessing ionic character and/or ion exchange capacity with metallic polyphosphates having other than a cyclic structure and other than ionic character and/or ion exchange capacity are believed to exhibit desired catalytic activity and provide desired product selectivity. In accordance with this invention, the metallic polyphosphate condensation catalyst has a cyclic structure. The metallic polyphosphate condensation catalyst can include and can be obtained from, for example, metallic pyrophosphates (P 2 O 7 -4 ), metallic polyphosphates (including tripolyphosphates (P 3 O 10 -5 ), tetrapolyphosphates (P 4 O 13 -6 ), pentapolyphosphates (P 5 O 16 -7 ) and higher polyphosphates), metallic metaphosphates (including trimetaphosphates (P 3 O 9 -3 ), tetrametaphosphates (P 4 O 12 -4 ) and other lower and higher metaphosphates) and metallic ultraphosphates (condensed phosphates containing more P 2 O 5 than corresponds to the metaphosphate structure). Corresponding metallic metaphosphimates, metallic phosphoramidates and metallic amido- and imidophosphates of the above may also be used as condensation catalysts in accordance with this invention. Suitable metals which can be incorporated into the metallic polyphosphate condensation catalyst include, for example, Group IA metals, Group IIA metals, Group IIIB metals, Group IVB metals, Group VB metals, Group VIB metals, Group VIIB metals, Group VIII metals, Group IB metals, Group IIB metals, Group IIIA metals, Group IVA metals, Group VA metals, Group VIA metals and mixtures thereof. Illustrative of metallic pyrophosphate catalysts which may be utilized in this invention include, for example, Na 2 H 2 P 2 O 7 , K 2 H 2 P 2 O 7 , Ca 2 P 2 O 7 , Mg 2 P 2 O 7 , KMnP 2 O 7 , AgMnP 2 O 7 , BaMnP 2 O 7 , NaMnP 2 O 7 , KCrP 2 O 7 , NaCrP 2 O 7 , Na 4 P 2 O 7 , K 4 P 2 O 7 , Na 3 HP 2 O 7 , NaH 3 P 2 O 7 , SiP 2 O 7 , ZrP 2 O 7 , Na 6 Fe 2 (P 2 O 7 ) 3 , Na 8 Fe 4 (P 2 O 7 ) 5 , Na 6 Cu(P 2 O 7 ) 2 , Na 32 Cu 14 (P 2 O 7 ) 15 , Na 4 Cu 18 (P 2 O 7 ) 5 , Na(NH 4 ) 2 P 2 O 7 , Ca(NH 4 ) 2 P 2 O 7 , MgH 2 P 2 O 7 , Mg(NH 4 ) 2 P 2 O 7 . Illustrative of metallic polyphosphate catalysts which may be utilized in this invention include, for example, NaSr 2 P 3 O 10 , NaCa 2 P 3 O 10 , NaNi 2 P 3 O 10 , Na 5 P 3 O 10 , K 5 P 3 O 10 , Na 3 MgP 3 O 10 , Na 3 CuP 3 O 10 , Cu 5 (P 3 O 10 ) 2 , Na 3 ZnP 3 O 10 , Na 3 CdP 3 O 10 , Na 6 Pb(P 3 O 10 ) 2 , Na 3 CoP 3 O 10 , K 3 CoP 3 O 10 , Na 3 NiP 3 O 10 , K 2 (NH 4 ) 3 P 3 O 10 , Ca(NH 4 ) 2 P 3 O 10 , La(NH 4 ) 3 P 3 O 10 , NaMgH 2 P 3 O 10 . Illustrative of metallic metaphosphate catalysts which may be utilized in this invention include, for example, Na 3 P 3 O 9 , K 3 P 3 O 9 , Ag 3 P 3 O 9 , Na 4 P 4 O 12 , K 4 P 4 O 12 , Na 2 HP 3 O 9 , Na 4 Mg(P 3 O 9 ) 2 , NaSrP 3 O 9 , NaCaP 3 O 9 , NaBaP 3 O 9 , KBaP 3 O 9 , Ca 3 (P 3 O 9 ) 2 , Ba(P 3 O 9 ) 2 , Na 2 Ni 2 (P 3 O 9 ) 2 , Na 4 Ni(P 3 O 9 ) 2 , Na 4 Co(P 3 O 9 ) 2 , Na 4 Cd(P 3 O 9 ) 2 . Illustrative of metallic ultraphosphate catalysts which may be utilized in this invention include, for example, CaP 4 O 11 , Ca 2 P 6 O 17 , Na 8 P 10 O 29 , Na 6 P 8 O 23 , Na 2 CaP 6 O 17 , Na 2 P 4 O 11 , NaBaP 7 O 18 , Na 2 P 8 O 21 , K 4 P 6 O 17 . The preferred metallic polyphosphate condensation catalysts for use in this invention include Group IA metal metaphosphates and Group IA metal dihydrogen pyrophosphates, more preferably Na 3 P 3 O 9 and Na 2 H 2 P 2 O 7 . Other suitable metallic polyphosphate condensation catalysts having a condensed structure which are embraced within the scope of this invention are disclosed by Van Wazer, J. R., Phosphorus and Its Compounds, Vol. 1, Interscience Publishers, Inc., New York (1958). The metallic polyphosphate condensation catalysts can be prepared by conventional methods known in the art. Sodium is believed to be one of a small group of cations effective for stabilizing six-membered cyclic metaphosphates at their temperatures of fusion (about 625°C) without decomposition to linear and/or other condensed phosphates including mixtures. The formation of cyclic and acyclic metallic polyphosphate strucutures appears to depend on the cation ionic size, the coordination number of the cation and the ionic or covalent nature of the metal-oxygen bond. The level of activity of the metallic polyphosphate catalyst of the invention is that level which of itself makes the catalyst at least as active in the condensation of amines as, for example, is phosphoric acid on an equivalent basis. Preferably, supported metallic polyphosphate condensation catalysts should have a surface area greater than 70 m 2 /gm to as high as 260 m 2 /gm or greater depending upon which metal oxide described below that is employed. In the case of titanium oxides, the surface area should be greater than 140 m 2 /gm to as high as 260 m 2 /gm, more preferably, greater than 160 m 2 /gm to as high as 260 m 2 /gm, determined according to the single point N 2 method. In the case of zirconia oxides, the surface area should be greater than 70 m 2 /gm to as high as 150 m 2 /gm, more preferably, greater than 90 m 2 /gm to as high as 135 m 2 /gm, determined according to the single point N 2 method. It is appreciated that the metal oxides described below which can be used in association with the metallic polyphosphate condensation catalyst and the performance moderators described below can affect the surface area of the metallic polyphosphate condensation catalyst. While surface areas described above may be preferred, for purposes of this invention, the surface area of the metallic polyphosphate condensation catalyst should be sufficient to contribute to product selectivity, catalytic activity and/or mechanical or dimensional strength of the catalyst. The metallic polyphosphate condenation catalysts useful in this invention can be associated with one or more metal oxides. Preferred metal oxides are amphoteric or slightly acidic or slightly basic. Illustrative of such metal oxides which may be utilized in association with the metallic phosphate condensation catalyst include, for example, one or more of the following: Group IA metal oxides, Group IIA metal oxides, Group IIIB metal oxides (including lanthanides and actinides), Group VB metal oxides, Group VIB metal oxides, Group VIIB metal oxides, Group VIII metal oxides, Group IB metal oxides, Group IIB metal oxides, Group IIIA metal oxides, Group IVA metal oxides, Group VA metal oxides, Group VIA metal oxides and Group IVB metal oxides or mixtures thereof. Preferred metal oxides which may be utilized in association with the metallic polyphosphate condensation catalyst include, for example, one or more oxides of beryllium, scandium, yttrium, terbium, dysprosium, holmium, erbium, thulium, ytterbium, lutetium, titanium, zirconium, hafnium, vanadium, niobium, tantalum, tungsten, iron, cobalt, zinc, silver, aluminum, gallium, indium, silicon, germanium, tin, lead, arsenic, antimony and bismuth. Group IVA and IVB metal oxides such as silica, titanium dioxide and zirconium dioxide are preferred for use in this invention. For mixed metal oxides in which at least one of the metals is titanium, suitable metals in association with titanium may include, for example, one or more of the following: Group IIIB metals such as scandium, yttrium and lanthanum including the lanthanides, Group VB metals such as niobium and tantalum, Group VIB metals such as chromium, molybdenum and tungsten, Group VIII metals such as iron, cobalt and nickel, Group IIB metals such as zinc and cadmium, Group IIIA metals such as boron, aluminum, gallium and indium, Group IVA metals such as silicon, germanium, tin and lead, Group VA metals such as arsenic, antimony and bismuth, and Group IVB metals such as zirconium and hafnium. For mixed metal oxides in which at least one of the metals is zirconium, suitable metals in association with zirconium may include, for example, one or more of the following: Group IVA metals such as silicon, germanium, tin and lead, Group VB metals such as niobium and tantalum, and Group VIB metals such as chromium, molybdenum and tungsten. The virtue of these metal oxides is that they demonstrate higher mechanical strength than the metallic phosphate component per se and can contribute to product selectivity and catalytic activity. Illustrative of mixed metal oxides which may be used in association with the metallic polyphosphate catalyst include, for example, TiO 2 -SiO 2 , TiO 2 -Al 2 O 3 , TiO 2 -CdO, TiO 2 -Bi 2 O 3 , TiO 2 -Sb 2 O 5 , TiO 2 -SnO 2 , TiO 2 -ZrO 2 , TiO 2 -BeO, TiO 2 -MgO, TiO 2 -CaO, TiO 2 -SrO, TiO 2 -ZnO, TiO 2 -Ga 2 O 3 , TiO 2 -Y 2 O 3 , TiO 2 -La 2 O 3 , TiO 2 -MoO 3 , TiO 2 -Mn 2 O 3 , TiO 2 -Fe 2 O 3 , TiO 2 -Co 3 O 4 , TiO 2 -WO 3 , TiO 2 -V 2 O 5 , TiO 2 -Cr 2 O 3 , TiO 2 -ThO 2 , TiO 2 -Na 2 O, TiO 2 -BaO, TiO 2 -CaO, TiO 2 -HfO 2 , TiO 2 -Li 2 O, TiO 2 -Nb 2 O 5 , TiO 2 -Ta 2 O 5 , TiO 2 -Gd 2 O 3 , TiO 2 -Lu 2 O 3 , TiO 2 -Yb 2 O 3 , TiO 2 -CeO 2 , TiO 2 -Sc 2 O 3 , TiO 2 -PbO, TiO 2 -NiO, TiO 2 -CuO, TiO 2 -CoO, TiO 2 -B 2 O 3 , ZrO 2 -SiO 2 , ZrO 2 -Al 2 O 3 , ZrO 2 -SnO, ZrO 2 -PbO, ZrO 2 -Nb 2 O 5 , ZrO 2 -Ta 2 O 5 , ZrO 2 -Cr 2 O 3 , ZrO 2 -MoO 3 , ZrO 2 -WO 3 , ZrO 2 -TiO 2 , ZrO 2 -HfO 2 , TiO 2 -SiO 2 -Al 2 O 3 , TiO 2 -SiO 2 -ZnO, TiO 2 -SiO 2 -ZrO 2 , TiO 2 -SiO 2 -CuO, TiO 2 -SiO 2 -MgO, TiO 2 -SiO 2 -Fe 2 O 3 , TiO 2 -SiO 2 -B 2 O 3 , TiO 2 -SiO 2 -WO 3 , TiO 2 -SiO 2 -Na 2 O, TiO 2 -SiO 2 -MgO, TiO 2 -SiO 2 -La 2 O 3 , TiO 2 -SiO 2 -Nb 2 O 5 , TiO 2 -SiO 2 -Mn 2 O 3 , TiO 2 -SiO 2 -Co 3 O 4 , TiO 2 -SiO 2 -NiO, TiO 2 -SiO 2 -PbO, TiO 2 -SiO 2 -Bi 2 O 3 , TiO 2 -Al 2 O 3 -ZnO, TiO 2 -Al 2 O 3 -ZrO 2 , TiO 2 -Al 2 O 3 -Fe 2 O 3 , TiO 2 -Al 2 O 3 -WO 3 , TiO 2 -Al 2 O 3 -La 2 O 3 , TiO 2 -Al 2 O 3 -Co 3 O 4 , ZrO 2 -SiO 2 -Al 2 O 3 , ZrO 2 -SiO 2 -SnO, ZrO 2 -SiO 2 -Nb 2 O 5 , ZrO 2 -SiO 2 -WO 3 , ZrO 2 -SiO 2 -TiO 2 , ZrO 2 -SiO 2 -MoO 3 , ZrO 2 -SiO 2 -HfO 2 , ZrO 2 -SiO 2 -Ta 2 O 5 , ZrO 2 -Al 2 O 3 -SiO 2 , ZrO 2 -Al 2 O 3 -PbO, ZrO 2 -Al 2 O 3 -Nb 2 O 5 , ZrO 2 -Al 2 O 3 -WO 3 , ZrO 2 -Al 2 O 3 -TiO 2 , ZrO 2 -Al 2 O 3 -MoO 3 , ZrO 2 -HfO 2 -Al 2 O 3 , ZrO 2 -HfO 2 -TiO 2 . Other suitable mixed metal oxide catalysts embraced within the scope of this invention are disclosed by Tanabe et al., Bulletin of the Chemical Society of Japan, Vol. 47(5), pp. 1064-1066 (1974). The metal oxides described herein which can be used in association with the metallic polyphosphate catalyst may contribute to product selectivity and/or catalytic activity of the reaction and/or stability of the catalyst. The catalyst structure can comprise from 0 to 90 percent or greater by weight of the metal oxide, preferably from 0 to 75 percent by weight of the metal oxide, and more preferably from 0 to 50 percent by weight of the metal oxide, the remainder being the weight of the metallic polyphosphate catalyst. For mixed metal oxides containing titania, higher concentrations of titania can provide very desirable product selectivities including acyclic to cyclic selectivities and linear to branched selectivities of higher polyalkylene polyamine products. As discussed hereinafter, the metallic polyphosphate condensation catalyst of this invention may also contain support(s), binding agent(s) or other additives to stabilize or otherwise help in the manufacture of the catalyst. Though the metallic polyphosphate condensation catalyst of the invention provides sufficient activity to effect the condensation reaction, certain combinations of reactants and/or product formation may be benefited by treating the catalyst with a catalyst moderator, hereinafter termed "performance moderator." Catalyst moderators are widely used to control the performance of catalysts in areas of selectivity to certain products and the repression of a catalyst's proclivity to generate a broad range of reaction products. A range of suitable materials may impact the metallic polyphosphate condensation catalysts of this invention in the variety of reaction products. The performance moderator may be any material which impacts the metallic polyphosphate condensation catalyst's selection of reaction products or which changes the proportion of any one or more of the reaction products which the metallic polyphosphate condensation catalyst generates at comparable processing conditions. In addition to contributing to product selectivity, the performance moderator may be any material which contributes to catalytic activity and/or catalyst stability (mechanical or dimensional strength). An illustrative performance moderator is a mineral acid or a compound derived from a mineral acid. Suitable for use as performance moderators are one or more phosphoric acid or a salt of phosphoric acid, hydrogen fluoride, hydrofluoric acid or a fluoride salt, sulfuric acid or a salt of sulfuric acid. The moderator may also be organic esters of phosphoric acid or a salt of phosphoric acid, hydrogen fluoride organic complexes, hydrofluoric acid organic complexes or a fluoride salt organic complexes, organic esters of sulfuric acid or a salt of sulfuric acid. Suitable salts of phosphoric acid include sodium dihydrogen phosphate, disodium hydrogen phosphate, sodium phosphate. Other illustrative performance moderators include the metal oxides described above which can be used in association with the metallic polyphosphate condensation catalyst and also metallic polyphosphates which may or may not have a condensed structure. Certain of these metallic polyphosphate performance moderators may also be effective as catalysts for use in this invention. The metal oxides described hereinabove which can be used in association with the metallic polyphosphate catalyst can also be used as performance moderators in accordance with this invention. The metal oxides can contribute to product selectivity, catalytic activity and/or catalyst stability (mechanical strength). As indicated above, other performance moderators which can be used in accordance with this invention include metallic polyphosphates which may or may not have a condensed structure. Corresponding metallic metaphosphimates, metallic phosphoramidates and metallic amido- and imidophosphates of the above may also be used as performance moderators in accordance with this invention. Such metallic polyphosphates can contribute to product selectivity, catalytic activity and/or catalyst stability (mechanical strength). Other performance moderators which can be used in accordance with this invention include metallic phosphates which may or may not have a cyclic structure. Corresponding metallic metaphosphimates, metallic phosphoramidates and metallic amido- and imidophosphates of the above may also be used as performance moderators in accordance with this invention. In addition to the metallic polyphosphates having a condensed structure described hereinabove, illustrative metallic phosphates also include metallic orthophosphates (PO 4 -3 ). Illustrative of metallic orthophosphates suitable for use as performance moderators in this invention include, for example, NaH 2 PO 4 , KH 2 PO 4 RbH 2 PO 4 , LiH 2 PO 4 , CsH 2 PO 4 , MgHPO 4 , CaHPO 4 , YPO 4 , CePO 4 , LaPO 4 , ThPO 4 , MnPO 4 , FePO 4 , BPO 4 , AlPO 4 , BiPO 4 , Mg(H 2 PO 4 ) 2 , Ba(H 2 PO 4 ) 2 , Mg(NH 4 ) 2 PO 4 , Ca(H 2 PO 4 ) 2 , La(H 2 PO 4 ) 3 . Group VIB metal-containing substances may be used as performance moderators in accordance with this invention. Suitable Group VIB metal-containing substances are disclosed in U.S. Patent Application Serial No. 390,708, filed on an even date herewith and incorporated herein by reference. Illustrative of Group VIB metal-containing performance moderators include, for example, one or more oxides of tungsten, chromium, molybdenum or mixtures thereof. A variety of conventional phosphorus-containing substances may be suitable for use as performance moderators in this invention. The conventional substances should be capable of functioning as a performance moderator. Illustrative of conventional phosphorus-containing substances may include, for example, those disclosed in U.S. Patent No. 4,036,881, U.S. Patent No. 4,806,517, U.S. Patent No. 4,617,418, U.S. Patent No. 4,720,588, U.S. Patent No. 4,394,524, U.S. Patent No. 4,540,822, U.S. Patent No. 4,588,842, U.S. Patent No. 4,605,770, U.S. Patent No. 4,683,335, U.S. Patent No. 4,316,841, U.S. Patent No. 4,463,193, U.S. Patent No. 4,503,253, U.S. Patent No. 4,560,798 and U.S. Patent No. 4,578,517. Suitable conventional phosphorus-containing substances which may be employed as performance moderators in this invention include acidic metal phosphates, phosphoric acid compounds and their anhydrides, phosphorous acid compounds and their anhydrides, alkyl or aryl phosphate esters, alkyl or aryl phosphite esters, alkyl or aryl substituted phosphorous acids and phosphoric acids, alkali metal monosalts of phosphoric acid, the thioanalogs of the foregoing, and mixtures of any of the above. The amount of the performance moderator of the mineral acid type used with the metallic polyphosphate catalyst of the invention is not narrowly critical. Generally, the amount does not exceed 25 weight percent of the weight of the catalyst. As a rule, it is desirable to use at least 0.01 weight percent of the weight of the catalyst. Preferably, the amount of performance moderator, when used, will range from 0.2 to 10 weight percent of the weight of the catalyst. Most preferably, the amount of performance moderator, when used, will range from 0.5 to 5 weight percent of the weight of the catalyst. The amount of performance moderator other than the mineral acid type used with the metallic polyphosphate catalyst is not narrowly critical. Generally, the amount does not exceed 90 weight percent of the weight of the catalyst. The amount of performance moderator can range from 0 to 90 or greater weight percent of the weight of the catalyst, preferably from 0 to 75 weight percent of the weight of the catalyst, and more preferably from 0 to 50 weight percent of the weight of the catalyst. Most preferably, the amount of performance moderator, when used, will range from 0.5 to 25 weight percent of the weight of the catalyst. The performance moderator can be provided to the metallic polyphosphate catalyst by conventional procedures known in the art. For example, the performance moderator can be provided to the catalyst by impregnating particles or monolithic structures comprising the metallic polyphosphate catalyst with liquid comprising the performance moderator. This is a well known procedure in the art for incorporating additives to a solid support material. The metallic polyphosphate catalyst of the invention may be utilized as solid powders or as fused, bonded or compressed solid pellets, or larger structures in association with the one or more metal oxides, or as coated, fused, bonded or compressed solid pellets, or larger structures, composited with one or more support materials, in association with one or more metal oxides. These solid structures may be treated with the performance moderator by mixing a liquid body of the performance moderator with the solid structure. For example, the metallic polyphosphate catalyst solids may be slurried in the performance moderator, drained, washed and suctioned to remove excess performance moderator, and then dried with heat to remove any volatiles accompanying the performance moderator. The drying temperature chosen will depend on the nature of the volatiles to be removed. Usually, the time/temperature for effecting drying will be below the conditions for effecting dehydration to remove bound water from the metal oxide in association with the metallic polyphosphate catalyst. Normally the drying temperature will be greater than about 120°C and below about 600°C depending on the thermal stability of the catalyst. The drying time will generally go down as the drying temperature rises and vice versus, and may extend from 5 seconds to about 24 hours. Alternatively, the performance moderator can be provided to the catalyst at the time of preparing the metallic polyphosphate catalyst in association with one or more metal oxides. For example, one or more metal oxides may be condensed from their respective hydrolyzable monomers to the desired oxides to form oxide powders which can thereafter be blended and compressed with the metallic polyphosphate to form pellets and larger structures of the metal oxide-containing condensation catalyst of this invention. The one or more metal oxides which can be used in association with the metallic polyphosphate catalyst in accordance with this invention can be provided from metal salts which can be heated to form the metal oxide. It is appreciated that the performance moderator can be incorporated into the molecular bonding configuration of the metal oxide-containing condensation catalyst by conventional procedures known in the art. The metallic polyphosphate condensation catalysts in association with one or more metal oxides prior to the optional treatment of the performance moderator may be prepared in a wide variety of ways. For example, one or more metal oxides may be provided as a partial condensate on a support, such as a silica or alpha, beta or gamma alumina, silicon carbide, and the like, and then condensed by heating to effect polymerization to the desired oxide form. The metal oxide(s) may be condensed from hydrolyzable monomers to the desired oxide, indeed, to form an oxide powder which can thereafter be compressed in the presence of a metallic polyphosphate to form pellets and larger structures of the metal oxide-containing condensation catalyst of the invention. A blend of the powder and metallic polyphosphate can be made into a shapeable paste which can be extruded and cut into pellets according to conventional procedures. The extrudate may thereafter be fired to cure the metallic polyphosphate and fix the structure. The cut extrudate may be blended with a support material such as those characterized above, and the blend fired to fuse the metal oxide-containing catalyst to the support. In a preferred embodiment of this invention, a high surface area silica or titania can be slurried with an aqueous solution of disodium dihydrogen pyrophosphate or sodium trimetaphosphate, extruded, and calcined at a temperature of about 400°C. A preferred catalyst structure comprises disodium dihydrogen pyrophosphate or sodium trimetaphosphate in association with a Group IVA or IVB metal oxide having a surface area of at least a 140 m 2 /gm which may or may not be bonded to a support material. The term "support," as used herein and in the claims, means a solid structure which does not adversely affect the catalytic properties of the catalyst and is at least as stable as the catalyst to the reaction medium. The support can function as an amine condensation catalyst independent of the metallic polyphosphate having a condensed structure, although it may have lower catalytic activity to the reaction. The support may act in concert with the catalyst to moderate the reaction. Some supports may contribute to the selectivity of the reaction. The catalyst structure comprises from 2 to 60 percent by weight or greater of the support, more preferably from 10 to 50 percent by weight of the support, the remainder being the weight of the metal oxide(s) and metallic polyphosphate. Included in the weight of the support is the weight of any binding agent such as phosphates, sulfates, silicates, fluorides, and the like, and any other additive provided to stabilize or otherwise help in the manufacture of the catalyst. The support may be particles as large or larger than the catalyst component and "glued" to the catalytic metallic polyphosphate and/or metal oxide by virtue of a binding medium. The support may constitute a separate phase in the process of extruding the catalytic structure. In this embodiment, the support forming material, preferably as a paste is blended with a paste of the metallic polyphosphate and one or more metal oxides or a partial condensate thereof. The paste may comprise the oxide forms of the support and the metallic polyphosphate, each blended with water, and/or binding agents. The extrudate of the blend is passed through a multiorificed die and chopped into pellets of the desired sizes. The particles may be doughnut shaped, spherical, and the like. Then the particles are calcined to dry them and complete any condensation reaction in the support and/or the metal oxide-containing condensation catalyst. The use of supports for the metallic polyphosphate condensation catalyst provides a number of significant advantages. It has been determined that some of the metallic polyphosphates are not as stable in the amines reaction media when utilized over an extended period of time. When the reaction is effected as a batch reaction, this matter is not a problem. However, when the reaction is effected with the metallic polyphosphate catalyst as part of a fixed bed in a tubular reactor, the preferred procedure for carrying out the invention, it is desirable to have the catalyst be more stable. The catalyst used in the process of the invention is combined with the support; this supported catalyst has greater stability for the reaction medium, and therefore, it is better able to be used in a fixed bed of a continuous reactor. The supported catalysts suffer from none of the leaching problems that the catalyst per se may have or the problems that are associated with the prior art catalysts, such as acidic phosphorus compounds on silica. The reactants used in the condensation process of the invention may be ammonia or organic compound containing -NH- and any compound possessing an alcoholic hydroxyl group, subject to the following: the intramolecular condensation of an amino compound produces an amine having a lower molecular weight, and the intermolecular condensation of an amino compound with one or more of another amino compound or a compound containing an alcoholic hydroxyl group produces an amine having a lower, same or higher molecular weight than the reactants. Illustrative of suitable reactants in effecting the process of the invention, include by way of example: Ammonia MEA - monoethanolamine EDA - ethylenediamine MeEDA - methylethylenediamine EtEDA - ethylethylenediamine AEEA - N-(2-aminoethyl)ethanolamine HEP - N-(2-hydroxyethyl)piperazine DETA - diethylenetriamine AEP - N-(2-aminoethyl)piperazine TAEA - trisaminoethylamine TETA - triethylenetetramine TEPA - tetraethylenepentamine PEHA - pentaethylenehexamine TETA Isomers: TAEA - trisaminoethylamine TETA - triethylenetetramine DPE - dipiperazinoethane DAEP - diaminoethylpiperazine PEEDA - piperazinoethylethylenediamine TEPA Isomers: AETAEA - aminoethyltrisaminoethylamine TEPA - tetraethylenepentamine AEDPE - aminoethyldipiperazinoethane AEPEEDA - aminoethylpiperazinoethylethylenediamine iAEPEEDA - isoaminoethylpiperazinoethylethylenediamine AEDAEP - aminoethyldiaminoethylpiperazine BPEA - bispiperazinoethylamine The foregoing also can represent the products of the reaction. For example, ammonia and MEA are frequently employed to produce EDA along with a variety of other amines, most of which are set forth above. Glycol compounds can also be employed in the preparation of amines in accordance with this invention. For purposes of this invention, glycol compounds embrace diols and polyols. Illustrative of suitable glycol compounds include alkylene glycols such as ethylene glycol, propylene glycol, 1,3-propane diol or mixtures thereof. The process may be effected in the liquid or vapor or supercritical liquid states or mixtures thereof though the actual reaction is believed to occur on the catalyst's solid surface in the absorbed state. In this context, the vapor phase reaction is intended to refer to the general vapor state of the reactants. Though the reaction conditions may range from subatmospheric to superatmospheric conditions, it is desirable to run the reaction from 3.45 * 10 5 N/m 2 to 206.8 * 10 5 N/m 2 gauge (50 psig to 3,000 psig), preferably from 13.8 * 10 5 N/m 2 to 137.8 * 10 5 N/m 2 gauge (200 psig to 2,000 psig). The temperature of the reaction may be as low as 125°C to 400°C. Preferably, the reaction temperature ranges from 150°C to 350°C, and most preferably from 225°C to 325°C. The reaction may be effected by the incremental addition of one of the reactants to the other or by the joint addition of the reactants to the catalyst. The preferred process effects the reaction in a continuous manner over a fixed bed of the metallic phosphate catalyst in a tubular reactor. However, the reaction may be carried out by slurrying the catalyst in the reactants or in a batch mode in an autoclave. An inert gas such as nitrogen, methane and the like can be used in the reaction process. The preferred process involves the formation of alkyleneamines from the intermolecular condensation of alkanolamines and alkyleneamines or the intramolecular condensation of alkyleneamines or alkanolamines. Illustrative of such reactions are the following reactant combinations: REACTANT REACTANT PRODUCTS Ammonia Methanol Monomethylamine Dimethylamine Trimethylamine Ammonia MEA EDA, DETA, AEEA, TETA, TEPA, PIP Ammonia AEEA DETA, PIP MEA, Ammonia EDA EDA, AEEA, HEP, DETA, AEP, TETA, TEPA, PEHA, TETA Isomers: TAEA, TETA, DAEP, PEEDA, DPE TEPA, TEPA Isomers: AETAEA, AEPEEDA, AEDAEP, AEDPE, BPEA MEA EDA AEEA, HEP, DETA, AEP, TETA, TEPA, PEHA, TETA Isomers: TAEA, TETA, DAEP, PEEDA, DPE TEPA, TEPA Isomers: AETAEA, AEPEEDA, AEDAEP, AEDPE, BPEA EDA AEEA HEP, AEP, TETA, TEPA, PEHA, TETA Isomers: TAEA, TETA, DAEP, PEEDA, DPE TEPA, TEPA Isomers: AETAEA, AEPEEDA, AEDAEP, AEDPE, BPEA DETA AEEA TEPA Isomers, AEP EDA EDA DETA, TETA AND TEPA Isomers The process of the invention provides the ability to generate the manufacture of desirable higher polyalkylene polyamine products such as TETA, TEPA and PEHA without generating large amounts of cyclic alkylenepolyamine products such as PIP, AEP and HEP. The alkyleneamines producers composition of this invention has a TETA + TAEA to PIP + AEP + PEEDA + DAEP + DPE weight ratio of greater than 1.0 and a TETA to TAEA weight ratio of greater than 2.0. The process of this invention provides the potential to control congener distribution, linear to cyclic selectivity and linear to branched selectivity of the higher polyalkylene polyamines. This invention is further illustrated by certain of the following examples: Examples In the examples set forth below, the catalyst of choice was placed in one of three tubular reactors, each having an outside diameter of 2.54 cm (1 inch) and an overall length of 61.0 cm (24 inches). The catalyst portion of the reactor was sufficient for accommodating 100 cubic centimeters of catalyst. The reactor was made of 316 stainless steel. As used herein, ABl refers to a material obtained from Norton Company, Akron, Ohio, which is a mixture of sodium trimetaphosphate and sodium tripolyphosphate. As used in the examples below, acyclic (N4)/cyclic (<=N4) refers to the weight ratio of TETA + TAEA to PIP + AEP + PEEDA + DAEP + DPE. The catalysts employed are identified as follows: For each run the tubular reaction system was brought up to the designated conditions. The ammonia feed was established first, then the DETA-MEA feed. After a sufficient line out period, a two hour timed run was conducted and a sample taken. The temperature was then adjusted for the next experiment. The above procedure was repeated for each of the examples. The catalysts employed in the examples hereinafter were prepared as follows: Catalyst A: Obtained from Norton Company, Akron, Ohio. Catalyst B: Obtained from Norton Company, Akron, Ohio. Catalyst C: Obtained from Norton Company, Akron, Ohio. Catalyst D: Obtained from Norton Company, Akron, Ohio. Catalyst E: Catalyst C pellets (140 grams) were added to a solution of boric acid (5.07 grams) in methanol (94.2 grams). The methanol was removed using a Buchi rotary evaporator. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst F: Catalyst C pellets (140 grams) were added to a solution of ammonium tetrafluoroborate (2.86 grams) in water. Enough solution was prepared to completely wet the pellets. The resulting slurry was allowed to stand for a period of 1 hour at room temperature. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst G: Catalyst C pellets (140.1 grams) were added to a solution of sodium tetrafluoroborate (8.58 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst H: Catalyst C pellets (140.1 grams) were added to a solution of sodium tetrafluoroborate (8.58 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst I: Catalyst C pellets (140.2 grams) were added to a solution of sodium metatungstate (1.43 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst J: Catalyst C pellets (140.2 grams) were added to a solution of sodium metatungstate (2.86 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst K: Catalyst C pellets (140.1 grams) were added to a solution of sodium metatungstate (5.71 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst O: Catalyst C pellets (140.1 grams) were added to a solution of lanthanum nitrate hexahydrate (7.59 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst P: Catalyst C pellets (143.1 grams) were added to a solution of lanthanum nitrate hexahydrate (15.18 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst Q: Catalyst C pellets (140 grams) were added to a solution of niobium pentethoxide (6.84 grams) in toluene (66 grams). Enough solution was added to completely immerse the pellets. The resulting slurry was stripped on a Buchi rotary evaporator. The catalyst was then calcined at a temperature of 400°C for a period of 16 hours. Catalyst R: Catalyst C pellets (140.4 grams) were added to a solution of sodium bicarbonate (3.87 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst S: Catalyst C pellets (143.5 grams) were added to a solution of vanadium triisopropoxide (7.63 grams) in toluene (66.74 grams). Enough solution was added to completely wet the pellets. The resulting slurry was stripped under reduced pressure. The catalyst was then calcined at a temperature of 400°C for a period of 16 hours. Catalyst T: Sodium trimetaphosphate (14.0 grams) was dissolved in a sufficient amount of water (82.7 grams) to wet the TiO 2 /SiO 2 /Al 2 O 3 support (140 grams). After impregnation for a period of 1 hour at room temperature, the catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst U: Sodium trimetaphosphate (14.13 grams) was dissolved in water (56.0 grams) and isopropanol (87.0 grams). The TiO 2 /SiO 2 support (140 grams) was impregnated with the solution. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst V: Sodium trimetaphosphate (14.05 grams) was dissolved in a sufficient amount of water (85.92 grams) to wet the TiO 2 /SiO 2 support (140 grams). After impregnation for a period of 1 hour at room temperature, the catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst W: Obtained from Norton Company, Akron, Ohio. Catalsyt X: Obtained from Norton Company, Akron, Ohio. Catalyst Y: Obtained from Norton Company, Akron, Ohio. Catalyst Z: Obtained from Norton Company, Akron, Ohio. Catalsyt AA: Obtained from Norton Company, Akron, Ohio. Catalyst BB: Obtained from Norton Company, Akron, Ohio. Catalyst CC: Catalyst C pellets (140.5 grams) were added to a solution of zinc nitrate hexahydrate (10.45 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst DD: Catalyst C pellets (140.78 grams) were added to a solution of zinc nitrate hexahydrate (20.88 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst EE: Catalyst C pellets (140.1 grams) were added to a solution of niobium pentethoxide (13.68 grams) in toluene (66.2 grams). Enough solution was added to completely immerse the pellets. The resulting slurry was allowed to stand for a period of 1 hour. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst FF: Catalyst C pellets (140.15 grams) were added to a solution of sodium tetrafluoroborate (8.58 grams) in sufficient water to completely wet the pellets. The catalyst was dried at a temperature of 100°C for a period of 1 hour and then calcined at a temperature of 400°C for a period of 16 hours. Catalyst GG: Obtained from Norton Company, Akron, Ohio. Catalyst HH: Obtained from Norton Company, Akron, Ohio. Catalyst II: Obtained from Norton Company, Akron, Ohio. Catalyst JJ: Obtained from Norton Company, Akron, Ohio.

Claims: A process of making polyalkylene polyamines without generating large amounts of cyclic alkylene polyamine products, which process comprises condensing an amino compound, said amino compound comprising ammonia, one or more organic compounds containing -NH, or mixtures thereof, with the same or another amino compound or a compound containing an alcoholic hydroxyl group, in the presence of a supported metallic polyphosphate condensation catalyst, wherein the catalyst has a cyclic structure and comprises structural units of the formula wherein M is the same or different and is a substantially insoluble metallic cation; X is the same or different and is oxygen, nitrogen or sulfur, and Y is a value of 1 or greater. The process of claim 1, wherein the condensation catalyst is obtained from a metallic pyrophosphate, a metallic polyphosphate, a metallic metaphosphate, a metallic ultraphosphate, a metallic metaphosphimate, a metallic phosphoramidate, a metallic amidophosphate, a metallic imidophosphate, or mixtures thereof. The process of claim 2, wherein the metallic metaphosphate comprises sodium trimetaphosphate. The process of claim 2 or 3, wherein the metallic metaphosphate comprises a mixture of sodium trimetaphosphate and sodium tripolyphosphate. The process of claim 2, wherein the metallic pyrophosphate comprises disodium dihydrogen pyrophosphate. The process of claim 2, wherein the metallic ultraphosphate comprises CaP 4 O 11 or Ca 2 P 6 O 17 . The process of any one of claims 1-6, wherein the catalyst is associated with a Group IVB metal oxide or a Group IVa metal oxide. The process of claim 7, wherein the Group IVB metal oxide comprises a high surface area titanium oxide and/or zirconium oxide. The process of claim 7, wherein the Group IVB metal oxide comprises 25 weight percent to 90 weight percent of the weight of the catalyst. The process of claim 1, wherein the supported catalyst has a surface area greater than 70 m 2 /gm. The process of claim 10, wherein the titaniumoxide supported catalyst has a surface area greater than 140 m 2 /gm. The process of claim 1, wherein the support material comprises an alumina material, an alumina-silica material, a silica material or a silica-alumina material. The process of any one of claims 10-12, wherein the support comprises from 2 to 60 percent by weight of the catalyst. The process of any one of claims 1-13, wherein the catalyst contains a performance moderator that enhances product selectivity of the process. The process of claim 14, wherein the performance moderator comprises one or more metal oxides. The process of claim 1, wherein the amino compound comprises an alkylene amine. The process of claim 1, wherein the amino compound comprises ammonia in association with an alcohol. The process of claim 17, wherein the alcohol comprises an alkanolamine or an alkylene glycol. The process of claim 18, wherein the alkanolamine comprises aminoethylethanolamine. The process of claim 1, which is effected in the liquid phase, vapor phase, supercritical liquid phase or mixtures thereof.

Inventors: DOUMAUX ARTHUR ROY JR, SCHRECK DAVID JAMES, DOUMAUX, ARTHUR ROY, JR., SCHRECK, DAVID JAMES
Applicants: UNION CARBIDE CHEM PLASTIC, UNION CARBIDE CHEMICALS AND PLASTICS COMPANY, INC.
Application year: 1990
Main classification: C07C209
IPC codes: B01J27, C07C211, C07B61, C07C209