Potassium Permanganate MSDS
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Poisoning – Investigative and Management Protocols
UNIT-1 Management of Common Clinical Poisoning Dr. Pallav Shekhar Asstt. Professor Veterinary Medicine Suspection Common Symptoms exhibited by large no. of animals at a time. ➢ Sudden death ➢ Salivation ➢ Vomition ➢ Neurological signs ➢ Presence of mouldy feeds ➢ Presence of house hold waste and medicaments ➢ Sewage water contamination ➢ Presence of dead rat or rat wait ➢ Spray of insecticides, weedicides. ➢ Use of paint Principal of treatment Prevention of further exposure Alkalis are more dangerous than acids. Acids form insoluble acid proteinates and hence its effect is partially self limiting Alkalis form alkali proteinates along with soaps which will penetrate rapidly into tissues. Inhaled poisons can be eliminated by providing assisted ventilation. Topical applied toxicant can be removed by washing with plenty of water and soap. Skin contact can be eliminated by washing with plenty of water and soap if the poison is water soluble and with organic solvents like Benzene, alcohol if they are fat soluble Conti…. Clipping of hair or wool may be necessary Emesis is of value in dogs, cats and pigs if done within few hours of ingestion. Emesis is contraindicated when ▪ The swallowing reflex is absent ▪ Animal is convulsive ▪ Corrosive agent or volatile hydrocarbons or petroleum product ingested Conti…. Emetics: a) Oral: I. Syrup of ipecac; 10-20ml in dogs II. Hydrogen peroxide: 2ml/kg b) Parenteral: Apomorphine can be used in dogs at dosage of 0.05-0.1mg/kg Conti… Gastric lavage: This is done in mono-gastric animals and 10ml lavage fluid/kg body weight should be given. Potassium permanganate solution This is done with Endotracheal tube and stomach tube Conti… Insertion of stomach tube in cattle for gastric lavage Conti. -
Automated Kappa Number Determination of Pulp
Application Note YSI, a Xylem Brand • XA00077 Automated Kappa Number Determination of Pulp PULP & PAPER SERIES Introduction The Kappa number describes the Lignin content of pulp which gives information about the bleaching process of the pulp. The longer the pulp was cooked and bleached the lower the Kappa number is. For the determination of the Kappa number a sample weight adjusted to the expected result is chopped and inserted into a beaker, then 400 ml of water is added. The sample/water mixture is stirred for 10 minutes. Afterwards 50 ml of potassium permanganate (KMnO4, 0.02 mol/L) and 50 ml sulfuric acid (H2SO4, 2 mol/L) are added simultaneously. The mixture is stirred for another 10 minutes. The reaction is stopped by adding 10 ml potassium iodide (KI, 1mol/l). The excess of KMnO4 reacts with Iodide to Iodine, which is titrated with sodium thiosulfate (Na2S2O3, 0.2 mol/L). Chemical Equations: The weight is adjusted to a consumption of about 50% of the MnO4- . - + ➔ - Lignin + MnO4 + 4 H oxidised Lignin + MnO4 (excess) + MnO2 + 2 H2O The reaction is stopped by adding KI. - - + ➔ 2+ 2 MnO4 + 10 I + 16 H 2 Mn + 5 I2 + 8 H2O The formed Iodine is titrated with Na2S2O3. 2- ➔ - 2 S2O3 + I2 S4O6 + 2 I Calculation of the Kappa number: 1. Calculation of the consumed volume Va of KMnO4: 2. Calculation of a correction factor d, which corrects the consumption of permanganate depending on Va to a V1 – V2)c Va = consumption of 50%. 0.1 with d= 100.00093 (2Va – 50) In(10) • 0.00093 (2Va– 50)) V1 = Consumption of Na2S2O3 during blank titration = e V2 = Consumption of Na2S2O3 during sample titration c = Concentration of Na2S2O3 3. -
Page 1 of 7 Analyst
Analyst Accepted Manuscript This is an Accepted Manuscript, which has been through the Royal Society of Chemistry peer review process and has been accepted for publication. Accepted Manuscripts are published online shortly after acceptance, before technical editing, formatting and proof reading. Using this free service, authors can make their results available to the community, in citable form, before we publish the edited article. We will replace this Accepted Manuscript with the edited and formatted Advance Article as soon as it is available. You can find more information about Accepted Manuscripts in the Information for Authors. Please note that technical editing may introduce minor changes to the text and/or graphics, which may alter content. The journal’s standard Terms & Conditions and the Ethical guidelines still apply. In no event shall the Royal Society of Chemistry be held responsible for any errors or omissions in this Accepted Manuscript or any consequences arising from the use of any information it contains. www.rsc.org/analyst Page 1 of 7 Analyst 1 2 Analyst RSC Publishing 3 4 5 ARTICLE 6 7 8 9 Enhancing permanganate chemiluminescence 10 detection for the determination of glutathione and 11 Cite this: DOI: 10.1039/x0xx00000x 12 glutathione disulfide in biological matrices 13 14 a a a b 15 Zoe M. Smith, Jessica M. Terry, Neil W. Barnett, Laura J. Gray, Dean J. Received 00th January 2012, Wright c and Paul S. Francis a* 16 Accepted 00th January 2012 17 18 DOI: 10.1039/x0xx00000x Acidic potassium permanganate chemiluminescence enables direct post-column detection of 19 glutathione, but its application to assess the redox state of a wider range of biological fluids www.rsc.org/ 20 and tissues is limited by its sensitivity. -
Decolorization of Reactive Orange 16 Via Ferrate(VI) Oxidation Assisted by Sonication
Turkish Journal of Chemistry Turk J Chem (2017) 41: 577 { 586 http://journals.tubitak.gov.tr/chem/ ⃝c TUB¨ ITAK_ Research Article doi:10.3906/kim-1701-8 Decolorization of reactive orange 16 via ferrate(VI) oxidation assisted by sonication Serkan S¸AHINKAYA_ ∗ Department of Environmental Engineering, Faculty of Engineering and Architecture, Nev¸sehirHacı Bekta¸sVeli University, Nev¸sehir,Turkey Received: 02.01.2017 • Accepted/Published Online: 24.03.2017 • Final Version: 05.09.2017 Abstract: The decolorization of azo dye C.I. reactive orange 16 (RO 16) via ferrate(VI) and sono-ferrate(VI) methods, which is the combination of the ferrate(VI) oxidation method with sonication, has been achieved in the present study. The influences of some important operating parameters, which are the initial pH, the concentration of potassium ferrate(VI) (K 2 FeO 4) and the RO 16 dye, and ultrasonic density (for only the sono-ferrate(VI) method), on the color removal have −1 been investigated. The optimum conditions have been determined as pH = 7 and [K 2 FeO 4 ] = 50 mg L for the −1 −1 individual ferrate(VI) oxidation method and pH = 7 and [K 2 FeO 4 ] = 50 mg L by direct sonication at 0.50 W mL ultrasonic density and 20 kHz fixed frequency for the sono-ferrate(VI) method. The color removal efficiencies were 85% by ferrate(VI) method and 91% by sono-ferrate(VI) method. Kinetic studies were also performed for the decolorization of RO 16 under the optimized conditions at room temperature. It was seen that the oxidative decolorization of RO 16 via the sono-ferrate(VI) method happened more rapidly because of the production of OH • radical through sonication compared to the individual ferrate(VI) method. -
Kinetic Studies on Permanganate Oxidation of Acetophenones Under
Indi an Journal of Chemistry Vol. 40A, June 2001, pp. 610-612 Kinetic studies on permanganate oxidation of The ketones were further purified by vacuum acetophenones under phase transfer catalysis distillation. The solvents employed were purified by standard methods and doubly distilled water was P S Sheeba & T D Radhakrishnan Nair* always used. The catalysts used were tricapryl Department of Chemistry, Calicut University methylammonium chloride (TCMAC) and tetrabutyl Calicut University P.O., Kerala 673 635. India ammonium bromide (TBAB). The former has Received 18 October 2000; revised 8 March 2001 relatively larger organic structure (C 10H21 )JN+CH 3Cr compared to the latter (C4 H9) 4N+B(. Kinetic studies on the permanganate oxidation of The solutions containing the permanganate ions in acetopheno_ne and some of its substituents in organic media using the organic solvents were prepared by shaking the techn1que of phase transfer catalysis are reported. aqueous potassium permanganate solution with the Tncaprylmethylammonium chloride and tetrabutylammonium bromide have been used as the phase transfer catalysts. The organic solvents contammg the phase transfer 4 reaction shows first order dependence each on [ketones] and the catalysts as reported elsewhere . The solutions of the [permanganate ions] respectively . The rate coefficients fit well oxidant thus prepared in the organic solvent and the with the Hammett equation and the p-value calculated aorees well substrate in the organic solvent were thermally with the reaction requirements. "' equilibrated (± 0.05°C) at the desired temperature for Potassium permanganate is a powerful oxidizing about half an hour before mixing. Kinetic runs were carried out under pseudo-first order conditions. -
Manufacturing of Potassium Permanganate Kmno4 This Is the Most Important and Well Known Salt of Permanganic Acid
Manufacturing of Potassium Permanganate KMnO4 This is the most important and well known salt of permanganic acid. It is prepared from the pyrolusite ore. It is prepared by fusing pyrolusite ore either with KOH or K2CO3 in presence of atmospheric oxygen or any other oxidising agent such as KNO3. The mass turns green with the formation of potassium manganate, K2MnO4. 2MnO2 + 4KOH + O2 →2K2MnO4 + 2H2O 2MnO2 + 2K2CO3 + O2 →2K2MnO4 + 2CO2 The fused mass is extracted with water. The solution is now treated with a current of chlorine or ozone or carbon dioxide to convert manganate into permanganate. 2K2MnO4 + Cl2 → 2KMnO4 + 2KCl 2K2MnO4 + H2O + O3 → 2KMnO4 + 2KOH + O2 3K2MnO4 + 2CO2 → 2KMnO4 + MnO2 + 2K2CO3 Now-a-days, the conversion is done electrolytically. It is electrolysed between iron cathode and nickel anode. Dilute alkali solution is taken in the cathodic compartment and potassium manganate solution is taken in the anodic compartment. Both the compartments are separated by a diaphragm. On passing current, the oxygen evolved at anode oxidises manganate into permanganate. At anode: 2K2MnO4 + H2O + O → 2KMnO4 + 2KOH 2- - - MnO4 → MnO4 + e + - At cathode: 2H + 2e → H2 Properties: It is purple coloured crystalline compound. It is fairly soluble in water. When heated alone or with an alkali, it decomposes evolving oxygen. 2KMnO4 → K2MnO4 + MnO2 + O2 4KMnO4 + 4KOH → 4K2MnO4 + 2H2O + O2 On treatment with conc. H2SO4, it forms manganese heptoxide via permanganyl sulphate which decomposes explosively on heating. 2KMnO4+3H2SO4 → 2KHSO4 + (MnO3)2SO4 + 2H2O (MnO3)2SO4 + H2O → Mn2O7 + H2SO4 Mn2O7 → 2MnO2 + 3/2O2 Potassium permanganate is a powerful oxidising agent. A mixture of sulphur, charcoal and KMnO4 forms an explosive powder. -
Experiment: Determination of Manganese in Steel
p.1 of 4 Chemistry 201 – Winter 2007 Experiment: Determination of Manganese in Steel Manganese (Mn) in steel may be determined upon dissolution as manganese (VII) after oxidation from the manganese oxidation state (II). This procedure calls for three oxidizing agents. Manganese (VII) may be determined spectrophotometrically. During dissolution of the sample with dilute nitric acid to form iron (II) and manganese (II), nitrogen oxide gases are formed. These must be removed, partially by boiling, and the rest with ammonium peroxydisulfate which also removes carbon or other organic matter present. The nitrogen oxides may react with periodic acid which is used to convert manganese to the (VII) oxidation state. Excess peroxydisulfate is decomposed by boiling. The equations are: - + 2+ 3 Mn + 2 NO3 + 8H ---> 3 Mn + 2 NO (g) + 4H2O 2- - 2- + 2 NO2 (g) + S2O8 + 2 H2O ---> 2 NO3 + 2 SO4 + 4 H 2- 2- + 2 S2O8 + 2 H2O + heat ---> 4 SO4 + O2 + 4 H 2+ - - + - 2 Mn + 5 IO4 + 3 H2O ---> 2 MnO4 + 6 H + 5 IO3 NO(colorless gas) + 1/2 O2 (g) <---> NO2 (brown gas) Note: Peroxydisulfate has the required oxidizing potential to change the oxidation state of manganese from (II) to (IV), but the reaction is too slow. Silver could be employed catalytically but the results are too erratic. Periodate oxidizes the manganese to the (VII) state quantitatively and rapidly at the boiling point, and it is advisable to add the sparingly soluble periodate salt in several portions to maintain an excess and to allow for some decomposition of the latter salt at the elevated temperatures. -
Assessment at the Single-Cell Level Identifies Neuronal Glutathione Depletion As Both a Cause and Effect of Ischemia-Reperfusion Oxidative Stress
The Journal of Neuroscience, May 6, 2015 • 35(18):7143–7152 • 7143 Neurobiology of Disease Assessment at the Single-Cell Level Identifies Neuronal Glutathione Depletion As Both a Cause and Effect of Ischemia-Reperfusion Oxidative Stress Seok Joon Won,1,2 Ji-Eun Kim,1,2 XGiordano Fabricio Cittolin-Santos,1,2 and XRaymond A. Swanson1 Departments of 1Neurology, University of California San Francisco, and 2Neurology Service, San Francisco Veterans Affairs Medical Center (SFVAMC), San Francisco, California 94121 Oxidative stress contributes to neuronal death in brain ischemia-reperfusion. Tissue levels of the endogenous antioxidant glutathione (GSH) are depleted during ischemia-reperfusion, but it is unknown whether this depletion is a cause or an effect of oxidative stress, and whether it occurs in neurons or other cell types. We used immunohistochemical methods to evaluate glutathione, superoxide, and oxidative stress in mouse hippocampal neurons after transient forebrain ischemia. GSH levels in CA1 pyramidal neurons were normally high relative to surrounding neuropil, and exhibited a time-dependent decrease during the first few hours of reperfusion. Colabeling for superoxide in the neurons showed a concurrent increase in detectable superoxide over this interval. To identify cause–effect relation- ships between these changes, we independently manipulated superoxide production and GSH metabolism during reperfusion. Mice in which NADPH oxidase activity was blocked to prevent superoxide production showed preservation of neuronal GSH content, thus demonstrating that neuronal GSH depletion is result of oxidative stress. Conversely, mice in which neuronal GSH levels were maintained by N-acetyl cysteine treatment during reperfusion showed less neuronal superoxide signal, oxidative stress, and neuronal death. -
SDC 1. Supplementary Notes to Methods Settings Groote Schuur
Mouton JP, Njuguna C, Kramer N, Stewart A, Mehta U, Blockman M, et al. Adverse drug reactions causing admission to medical wards: a cross-sectional survey at four hospitals in South Africa. Supplemental Digital Content SDC 1. Supplementary notes to Methods Settings Groote Schuur Hospital is a 975-bed urban academic hospital situated in Cape Town, in the Western Cape province, which provides secondary and tertiary level care, serves as a referral centre for approximately half of the province’s population (2011 population: 5.8 million)1 and is associated with the University of Cape Town. At this hospital we surveyed the general medical wards during May and June 2013. We did not survey the sub-speciality wards (dermatology, neurology, cardiology, respiratory medicine and nephrology), the oncology wards, or the high care / intensive care units. Restricting the survey to general medical wards was done partly due to resource limitations but also to allow the patients at this site to be reasonably comparable to those at other sites, which did not have sub-specialist wards. In 2009, the crude inpatient mortality in the medical wards of Groote Schuur Hospital was shown to be 573/3465 patients (17%)2 and the 12-month post-discharge mortality to be 145/415 (35%).3 Edendale Hospital is a 900-bed peri-urban regional teaching hospital situated near Pietermaritzburg, in the KwaZulu-Natal province (2011 population: 10.3 million).1 It provides care to the peri-urban community and serves as a referral centre for several district hospitals in the surrounding rural area. It is located at the epicentre of the HIV, tuberculosis and multidrug resistant tuberculosis epidemics in South Africa: a post-mortem study in 2008-2009 found that 94% of decedents in the medical wards of Edendale Hospital were HIV-seropositive, 50% had culture-positive tuberculosis at the time of death and 17% of these cultures were resistant to isoniazid and rifampicin.4 At Edendale Hospital, we surveyed the medical wards over 30 days during July and August of 2013. -
2021 ACMT Annual Scientific Meeting Abstracts—Virtual
Journal of Medical Toxicology https://doi.org/10.1007/s13181-021-00832-9 ANNUAL MEETING ABSTRACTS 2021 ACMT Annual Scientific Meeting Abstracts—Virtual Abstract: These are the abstracts of the 2021 American College of 001. Gender-Based Production of N-Acetyl-P-Benzoquinone Imine Medical Toxicology (ACMT) Annual Scientific Meeting. Included here Protein Adduct Formation With Therapeutic Acetaminophen are 178 abstracts that will be presented in April 2021, including research Administration studies from around the globe and the ToxIC collaboration, clinically significant case reports describing toxicologic phenomena, and encore Brandon J Sonn1, Kennon J Heard1,2, Susan M Heard2,Angelo research presentations from other scientific meetings. D'Alessandro1, Kate M Reynolds2, Richard C Dart2, Barry H Rumack1,2,AndrewAMonte1,2 Keywords: Abstracts - Annual Scientific Meeting - Toxicology 1University of Colorado Denver, Aurora, Colorado, USA. 2Rocky Investigators Consortium - Medical Toxicology Foundation Mountain Poison and Drug Center, Denver, Colorado, USA Correspondence: American College of Medical Toxicology (ACMT) Background: Acetaminophen (APAP)-associated transaminase elevation, 10645 N. Tatum Blvd Phoenix, AZ; [email protected] induced by N-acetyl-p-benzoquinone imine (NAPQI) protein adduction, re- mains a global concern. Distinct from known genetic, physiologic, and dos- Introduction: The American College of Medical Toxicology (ACMT) age associations dictating severity of hepatic injury, no known factors predict received 188 eligible research abstracts for consideration for presentation an absence of NAPQI protein adduct formation at therapeutic APAP dosing. at the 2021 Annual Scientific Meeting (ASM), including 85 research Hypothesis: Gender-based physiologies are predictive of APAP-induced studies and 103 case reports. Each abstract was reviewed in a blinded protein adduct formation at therapeutic doses. -
Removal of Ciprofloxacin from Water with Chemical Oxidation
Removal of Ciprofloxacin from Water with Chemical Oxidation Major Qualifying Project completed in partial fulfillment Of the Bachelor of Science Degree at Worcester Polytechnic Institute, Worcester, MA Submitted by: Lauren Hannmann Kyle Powers Olivia Shepherd Hailey Taylor Professors John Bergendahl and Robert Thompson, Faculty advisors April 5, 2012 This report represents the work of four WPI undergraduate students submitted to the faculty as evidence of a degree requirement. WPI routinely publishes these reports on its web site without editorial or peer review Abstract Contamination of water sources with compounds of emerging concern, particularly pharmaceuticals such as ciprofloxacin, is becoming an increasingly large problem. Current water and wastewater treatment facilities are not specifically designed to remove pharmaceuticals. The objective of this project was to study the removal and degradation of ciprofloxacin (CIP) from water through reactions with five oxidative treatments. Reactants included hypochlorite, potassium permanganate, potassium ferrate, persulfate and hydrogen peroxide activated with ferrous oxide (Fenton’s reaction). The concentration of CIP remaining after treatment was quantified using a UV spectrophotometer. Results showed that all treatment methods evaluated were capable of removing concentrations of CIP from water. Potassium ferrate, Fenton’s reaction and hypochlorite all achieved removal extents above 90%. Persulfate and potassium permanganate did not achieve complete removal with the dosages utilized in -
How to Use Potassium Permanganate Soaks Information for Patients
Pharmacy department How to use potassium permanganate soaks Information for patients Introduction Your medical team has recommended that you should use potassium permanganate soaks. This leaflet provides guidance on how to prepare and use potassium permanganate tablets as a soak. This information is not intended to replace your doctor’s advice but offers further support. Please read this information carefully. If you have any questions, please contact the medicine information department on 020 3311 1703 (Monday-Friday, 09.00-17.00). What is potassium permanganate? It is a mild antiseptic and astringent (something that dries the skin). It comes in the form of a solution or tablets (Permitabs®) that you dissolve in water (also known as soaks). Potassium permanganate soaks can be used to treat a range of skin conditions including: infected eczema leg ulcers that may be weeping (leaking) or blistering external wounds Potassium permanganate is for external use only. Never swallow the tablets or take them internally – this can be fatal. How to use potassium permanganate Always wear gloves before touching the potassium permanganate soaks as they can stain and irritate your hands. 1. Preparing to use potassium permanganate soaks The hospital pharmacy, or your local pharmacy if the prescription was written by your GP, will give you the potassium permanganate tablets. The strength of each tablet is 400 milligrams (mg). Start by washing your hands, then put on your gloves. You will need a clean container that is large enough for you to soak the affected area(s). It is best to set aside a particular container to use for your soaks, and not to use it for any other purpose, such as drinking or food preparation.