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Manganese(II) acetate, with the chemical formula Mn(CH3COO)2, is a versatile chemical compound that exhibits a variety of applications across different industries. It is characterized by its ability to act as a desiccant, a catalyst, and a component in fertilizers.

638-38-0

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638-38-0 Usage

Uses

Used in Textile Industry:
Manganese(II) acetate is used as a dye mordant in textile dyeing, enhancing the colorfastness and quality of dyed fabrics.
Used in Chemical Industry:
In the chemical industry, manganese(II) acetate serves as an oxidation catalyst, facilitating various chemical reactions and improving their efficiency.
Used in Paint and Varnish Industry:
Manganese(II) acetate is utilized as a varnish drier and in the manufacture of boiled oil, accelerating the drying process and enhancing the performance of paint and varnish products.
Used in Agriculture:
As a component in fertilizers, manganese(II) acetate contributes to the growth and health of plants by providing essential nutrients.
Used in Food Packaging:
Manganese(II) acetate is employed in food packaging to maintain the quality and freshness of packaged foods, extending their shelf life.
Used in Animal Feed Industry:
As a feed additive, manganese(II) acetate supports the nutritional needs of animals, promoting their health and growth.
Used as a Desiccant:
Manganese(II) acetate functions as a desiccant, effectively removing moisture and maintaining dry conditions in various applications.
Used as a Catalyst:
In its role as a catalyst, manganese(II) acetate accelerates chemical reactions, increasing the speed and efficiency of processes in which it is involved.
Used as an Intermediate:
Manganese(II) acetate acts as an intermediate in the synthesis of other chemical compounds, contributing to the production of a wide range of products.
Used as an Ion Exchange Agent:
It serves as an ion exchange agent, playing a crucial role in the purification and separation of various substances.

Reactions

Manganese (II) acetate can be formed by reacting acetic acid with either manganese (II,III) oxide or manganese (II) carbonate : Mn3O4 + 2CH3COOH → Mn(CH3COO)2 + Mn2O3+ H2O If manganese (II,III) oxide is used , manganese (III) oxide is produced as a byproduct. If the anhydrous form needs to be produced, manganese (II) nitrate can be reacted with acetic anhydride.

Purification Methods

Crystallise it from water acidified with acetic acid. [Beilstein 2 IV 120.]

Check Digit Verification of cas no

The CAS Registry Mumber 638-38-0 includes 6 digits separated into 3 groups by hyphens. The first part of the number,starting from the left, has 3 digits, 6,3 and 8 respectively; the second part has 2 digits, 3 and 8 respectively.
Calculate Digit Verification of CAS Registry Number 638-38:
(5*6)+(4*3)+(3*8)+(2*3)+(1*8)=80
80 % 10 = 0
So 638-38-0 is a valid CAS Registry Number.
InChI:InChI=1/2C2H3O.Mn/c2*1-2-3;/h2*1H3;/rC4H6MnO2/c1-3(6)5-4(2)7/h1-2H3

638-38-0 Well-known Company Product Price

  • Brand
  • (Code)Product description
  • CAS number
  • Packaging
  • Price
  • Detail
  • Alfa Aesar

  • (B23708)  Manganese(II) acetate, anhydrous, 98+%   

  • 638-38-0

  • 50g

  • 397.0CNY

  • Detail
  • Alfa Aesar

  • (B23708)  Manganese(II) acetate, anhydrous, 98+%   

  • 638-38-0

  • 250g

  • 1315.0CNY

  • Detail
  • Alfa Aesar

  • (B23708)  Manganese(II) acetate, anhydrous, 98+%   

  • 638-38-0

  • 1000g

  • 4661.0CNY

  • Detail
  • Aldrich

  • (330825)  Manganese(II)acetate  98%

  • 638-38-0

  • 330825-5G

  • 381.42CNY

  • Detail
  • Aldrich

  • (330825)  Manganese(II)acetate  98%

  • 638-38-0

  • 330825-25G

  • 1,070.55CNY

  • Detail
  • Aldrich

  • (330825)  Manganese(II)acetate  98%

  • 638-38-0

  • 330825-100G

  • 3,208.14CNY

  • Detail

638-38-0SDS

SAFETY DATA SHEETS

According to Globally Harmonized System of Classification and Labelling of Chemicals (GHS) - Sixth revised edition

Version: 1.0

Creation Date: Aug 13, 2017

Revision Date: Aug 13, 2017

1.Identification

1.1 GHS Product identifier

Product name MANGANESE(II) ACETATE

1.2 Other means of identification

Product number -
Other names manganousacetate

1.3 Recommended use of the chemical and restrictions on use

Identified uses For industry use only. Intermediates,Ion exchange agents
Uses advised against no data available

1.4 Supplier's details

1.5 Emergency phone number

Emergency phone number -
Service hours Monday to Friday, 9am-5pm (Standard time zone: UTC/GMT +8 hours).

More Details:638-38-0 SDS

638-38-0Relevant academic research and scientific papers

Oxidative Cyclization of Lithium 4-Ethoxy-1,1,1-trifluoro-4-oxobut-2-en-2-olate

Boltacheva,Slepukhin,Filyakova,Charushin

, p. 883 - 885 (2019/08/02)

Diethyl 2,5-dihydroxy-2,5-bis(trifluoromethyl)tetrahydrofuran-3,4-dicarboxylate has been synthesized for the first time by reaction of lithium 4-ethoxy-1,1,1-trifluoro-4-oxobut-2-en-2-olate with manganese(III) acetate. The structure of its (2S*3S*4S*5S*) stereoisomer has been confirmed by X-ray analysis.

Kinetic stability of corrole complexes with manganese, copper, and zinc in environments based on acetic and sulfuric acids

Berezin,Shukhto,Thao, Vu Thi,Karimov,Berezin

, p. 1522 - 1529 (2015/02/19)

Complexes of some meso- and undeca-substituted corroles with manganese, copper, and zinc are synthesized. Their stability in protolytic dissociation processes studied using spectroscopy methods increases for meso-triphenylcorrole (I) complexes in the following series of metals: Zn 2SO4 environment increases after electron-donor substitution of molecules in the series: Cu(ms-Ph)3Cor (Ib) > Cu(ms-4-OCH3Ph)3Cor (IIb) ≈ Cu(β-Br)8(ms-Ph)3Cor (IVb) > Cu(ms-4-NO2Ph)3Cor (IIIb). Contrariwise, the dissociation rates of manganese corroles increase with increasing electron-donating properties of the substituents in the macrocycle: IVb IIIb Ia IIa. Dissociation of metallocorroles is accompanied by donor-acceptor and acid-base interactions, as well as by intramolecular redox processes, to result in low selectivity of dissociation and formation of side products. The dissociation scheme of corrole complexes with mixed-valence d metals was proposed for the first time.

Anomalous non-prussian blue structures and magnetic ordering of K 2MnII[MnII(CN)6] and Rb 2MnII[MnII(CN)6]

Her, Jae-Hyuk,Stephens, Peter W.,Kareis, Christopher M.,Moore, Joshua G.,Min, Kil Sik,Park, Jong-Won,Bali, Garima,Kennon, Bretni S.,Miller, Joel S.

, p. 1524 - 1534 (2010/04/25)

The reaction of MnII and KCN in aqueous and non-aqueous media leads to the isolation of three-dimensional (3-D) Prussian blue analogues, K2Mn[Mn(CN)6] (1a-d, 1e, respectively). Use of RbCN forms Rb2Mn[Mn(CN)6] (2). 1 and 2 are isomorphic {monoclinic, P21/n: 1 [a = 10.1786(1) A, b = 7.4124(1) A, c = 6.9758(1) A, β = 90.206(1)°]; 2 [a = 10.4101(1) A, b = 7.4492(1) A, c = 7.2132(1) A, β = 90.072(1)°]}, with a small monoclinic distortion from the face centered cubic (fcc) structure that is typical of Prussian blue structured materials that was previously reported for K2Mn[Mn(CN)6]. Most notably the average Mn-N-C angles are 148.8° and 153.3° for 1 and 2, respectively, which are significantly reduced from linearity. This is attributed to the ionic nature of high spin MnII accommodating a reduced M-CN-M0 angle and minimizing void space. Compounds 1a, b have a sharp, strong.OH band at 3628 cm-1, while 1e lacks a v OH absorption. The vOH absorption in 1a, b is attributed to surface water, as use of D2O shifts the.OH absorption to 2677 cm-1, and that 1a-e are isostructural. Also, fcc Prussian blue-structured Cs2Mn[Mn(CN)6] (3) has been structurally [Fm3hm: a = 10.6061(1) A] and magnetically characterized. The magnetic ordering temperature, Tc, increases as K+ (41 K) + (34.6 K) + (21 K) for A2Mn[Mn(CN)6] in accord with the increasing deviation for linearity of the Mn-N-C linkages [148.8 (K+) +)], decreasing Mn(II) · · · Mn(II) separations [5.09 (K+) > 5.19 (Rb+) > 5.30 A° (Cs+)], and decreasing size of the cation (increasing electrostatic interactions). Hence, the bent cyanide bridges play a crucial role in the superexchange mechanism by increasing the coupling via shorter Mn(II) 3 3 3 Mn(II) separations, and perhaps enhanced overlap. In addition, the temperature dependent magnetic behavior of K4[MnII(CN) 6] · 3H2O is reported.

Preparation and characterization of manganese(IV) in aqueous acetic acid

Jee, Joo-Eun,Pestovsky, Oleg,Bakac, Andreja

, p. 11636 - 11642 (2011/02/27)

Mn(iv) acetate was generated in acetic acid solutions and characterized by UV-vis spectroscopy, magnetic susceptibility, and chemical reactivity. All of the data are consistent with a mononuclear manganese(iv) species. Oxidation of several substrates was studied in glacial acetic acid (HOAc) and in 95 : 5 HOAc-H2O. The reaction with excess Mn(OAc)2 produces Mn(OAc)3 quantitatively with mixed second-order kinetics, k (25.0 °C) = 110 ± 4 M-1 s-1 in glacial acetic acid, and 149 ± 3 M-1 s-1 in 95% AcOH, ΔH ? = 55.0 ± 1.2 kJ mol-1, ΔS ? = -18.9 ± 4.1 J mol-1 K-1. Sodium bromide is oxidized to bromine with mixed second order kinetics in glacial acetic acid, k = 220 ± 3 M-1 s-1 at 25 °C. In 95% HOAc, saturation kinetics were observed. The Royal Society of Chemistry 2010.

Stabilizing Vegetable Oils And Methods Of Making Same

-

Page/Page column 7, (2008/06/13)

A method for modifying ethylenic unsaturation in a triglyceride. One or more unsaturated fatty acyl moieties present in the triglyceride are substituted with a lactone or ketone moiety via a electron donor mediated reaction. The resulting reaction products are useful, for example, as formulations for lubricants, hydraulic fluids, dielectric fluids, and intermediates for polymer synthesis.

Effect of octabromo substitution on the coordination properties of manganese(III) octaphenyltetraazaporphyrin

Klyueva,Repina,Chizhova

, p. 975 - 979 (2007/10/03)

Comparative studies of the kinetics of formation of manganese(III) complexes with octaphenyltetraazaporphyrin and its octabromo derivative, of their dissociation and axial ligand exchange were carried out. The effect of octabromo substitution on the coordination properties of the compounds is determined by the -I effect of bromine atoms. The different effects on the kinetic parameters of the reactions [increase in the rate and significant decrease in the activation energy upon complex formation, slowing down of dissociation, and acceleration of acido ligand exchange with nitrido(tetraphenyporphyrin)manganese(V) are caused by the involvement of different reaction centers in the limiting stages (different mechanisms of the processes).

Racemic and chiral expanded salen-type complexes derived from biphenol and binaphthol: Salbip and salbin

Grill, Joseph M.,Reibenspies, Joseph H.,Miller, Stephen A.

, p. 3009 - 3017 (2007/10/03)

The reaction of 2-fluoronitrobenzene with 2,2′-biphenol or (R)-binaphthol, followed by reduction and subsequent reaction of the resulting diamine with two equivalents of a salicylaldehyde, affords expanded salen-type ligands having backbones based on biphenol or binaphthol: salbipH2, (R)-salbinH2 and (R)-salbin(t-Bu)4H2. Deprotonation of these ligands with sodium methoxide or potassium hydride, followed by metallation with M(OAc)2 (M = Mn, Co, Ni, or Cu), affords the corresponding metal complexes in good yield (61-85%). The species containing Mn, Co, and Ni all have distorted octahedral geometry, as determined by X-ray crystallography. The ethereal oxygen atoms occupy two coordination sites with metal-oxygen distances ranging from 2.19 to 2.36 ?. The imine nitrogen atoms are trans to each other in the solid state, an impossible geometry in traditional salen-type complexes. The species containing Cu are distorted square planar and show much longer metal-ethereal oxygen distances ranging from 2.79 to 3.22 ?. The manganese complexes are competent catalysts for the epoxidation of olefins.

Cobalt(III)-d-metal triethanolamine complexes as catalysts of electrochemical reduction of oxygen

Kublanovskii,Pirskii

, p. 1147 - 1150 (2007/10/03)

Carbon-supported oxide catalysts of oxygen electroreduction were prepared from Co(III)-M(II) ethanolamine complexes. The electrochemical properties of these catalysts were studied. The apparent activation energies of the reduction were measured. 2001 MAIK

Thermal decomposition of freeze-dried μ-oxo-carboxylates of manganese and iron

Langbein,Christen,Bonsdorf

, p. 173 - 180 (2008/10/09)

The decomposition of freeze-dried mixed carboxylates of manganese and iron was investigated by means of DTA, TG, mass spectroscopy and X-ray powder diffractometry. The three main steps of decomposition are characterized as release of (a) H2O, (b) carboxylic acid and CO2/CO, and (c) the corresponding carbonyl compound and CO2. In particular, the course of process (b) strongly depends on the stability of the metal-carboxylate link in the three investigated carboxylates. Well-crystallized single-phase manganese ferrites can be obtained on decomposition of formates of appropriate composition and thermal treatment of decomposition products at 600°C while maintaining a p(O2) within the coexistence field of manganese ferrite.

Thermochemical reactivity of transition metal acetates and of a novel DMSO solvate of iron(II) acetate in molecular hydrogen

Ehrensberger,Schmalle,Oswald,Reller

, p. 139 - 149 (2008/10/09)

The thermal decomposition of acetates of the transition metals Fe, Co, Ni, Mn and Cu in molecular hydrogen has been investigated by means of combined thermogravimetry/mass spectrometry, X-ray diffraction, and transmission as well as scanning electron microscopy. In the context of the reproducible preparation of the parent phases, i.e. the hydrated or anhydrous metal(II) acetates, single crystalline Fe3(CH3COO)6(DMSO)2, a novel DMSO solvate of iron(II) acetate, has been isolated and its crystal structure has been determined by means of X-ray diffraction. For the series of metal(II) acetates it has been found that the course of the thermal degradation in molecular hydrogen, in particular the formation of the gaseous products, strongly depends on the transition metal ion present in the parent compound. The detailed characterization of the solid products revealed, that phases exhibiting different catalytic activities and selectivities are formed as micro- or nanocrystalline metals and/or metal oxides.

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