Acomprehensive Study on the Natural Plant Phenols:Perception to Current Scenario

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Acomprehensive Study on the Natural Plant Phenols:Perception to Current Scenario Bulletin of Pharmaceutical Research 2013;3(2):90-106 An Official Publication of Association of Pharmacy Professionals ISSN: 2249-6041 (Print); ISSN: 2249-9245 (Online) REVIEW ARTICLE A COMPREHENSIVE STUDY ON THE NATURAL PLANT PHENOLS: PERCEPTION TO CURRENT SCENARIO Pankaj Jain1, Sonika Jain2, Ashutosh Pareek1 and Swapnil Sharma1* 1Department of Pharmacy, Banasthali University, Banasthali-304 022, Tonk, Rajasthan, India 2Department of Chemistry, Banasthali University, Banasthali-304 022, Tonk, Rajasthan, India *E-mail: [email protected] Tel.: +91 9214661099. Received: July 03, 2013 / Revised: August 30, 2013 / Accepted: August 31, 2013 Phenolic compounds are secondary metabolites of plants that are widely distributed throughout the plant kingdom. Secondary metabolites possess structural diversity that provide flavor and color to fruits, vegetables, and grains. They precipitate various pharmacological and toxicological effects on living beings. Extraction of the bioactive plant constituents has always been a challenging task for the researchers. In the present study, an attempt has been made to give an overview on chemistry, distribution, extraction and isolation techniques of various plant phenolics. Key words: Polyphenols, Plant kingdom, Plant phenolics, Distribution, Extraction techniques. INTRODUCTION Basically, all phenols and phenolic amalgams are All plants create numerous organic amalgams widely found in nature and can also be blended that are always not related to the basic artificially. They form a separate group of metabolism like progress, growth and chemical substances that comprises a member of development and the functions of these natural hydroxyl cluster linked to an element of compounds in plants have only been noticed hydrocarbon set. Phenolics are compounds recently in a diagnostic perspective. Although possessing one or more aromatic rings with one these organic amalgam produced by the plants or more hydroxyl groups. They are broadly do not help in growth, they are effective in other distributed in the plant kingdom and are the ways. While some of these protect plants from most abundant secondary metabolites of plants, predators and pathogens, others help in the with more than 8,000 phenolic structures reproductive process by fascinating pollinating currently known, ranging from simple molecules agents or scattering the seeds. Many of them are such as phenolic acids to highly polymerized also useful as they help to produce poisons that substances such as tannins. Phenolic substances protect the plants. Most of the organic products tend to be water soluble, since they most found in plants may be grossly put into three frequently occur in combined form with sugar, broad categories-alkaloids, phenylpropanoids as glycosides and they are usually located in the and terpenoids. While phenylpropanoids are cell vacuole (Anonymous, 1992; Madaan et al mostly phenolic amalgams, terpenoids are made 2011). Among the natural phenolic compounds, up of five carbon elements that are blended of which several thousand structures are known, through the acetate or mevalonate method or the flavonoids form the largest group but simple the glyceraldehydes 3-phospate/pyruvate monocyclic phenols, phenylpropanoids and process (Robbins, 2003). Many of the terpenoids phenolic quinones all exits in considerable produced by the plants are a sort of numbers. A number of vital vegetation contaminants that protect the plants from being ingredients including tannins, phenolic devoured by herbivores creatures or amalgams, flavones, coumarins, anthraquinones functionally attractants for pests and animals. and all their glycosides comprise of phenolic 90 ã Jain et al Bull. Pharm. Res. 2013;3(2) molecules (Trease and Evans, 1997; Shah and mangos, berries, apples, citrus fruits, plums, Quadry 1990). cherries, kiwis, onions, tea, coffee, red wine, and flour made from whole wheat, rice, corn or oats Classification of phenolic compounds (Vasco, 2009). · Simple phenol and phenolic acids There are many different phenolic acids found in · Tannins nature and they can be divided into two · Quinone pigments categories: benzoic acid derivatives, such as · Flavonoids and related classification gallic acid; and cinnamic acid derivatives, · Anthocyanins and Anthocyanidines including caffeic acid and ferulic acid. The · Xanthone and stilbene cinnamiac acids are more common. Gallic acid is found in tea and grape seeds. Coffee Simple phenol and phenolic acids contains caffeic acid and chlorogenic acid. Chemistry and distribution Blueberries, kiwis, plums, cherries and apples Phenols particles are created when the hydrogen contain large amounts of caffeic acid. Red wine content in a pungent nucleus is swapped with an and citrus fruits contain cinnamic acid. Ferulic element from the hydroxyl cluster and this acid is esterified to hemicelluloses in the cell process may happen several times making the wall found in the outer coverings of cereal isomers include three probable di-hydroxyl- grains. Corn flour possess maximum ferulic acid benzenes as well as three tri-hydroxyl-benzenes. whereas whole grain wheat, rice, and oat flours While the di-hydroxyl-benzenes are are good sources of ferulic acid (Liu, 2004). hydroquinone, catechol and resorcinol, the tri- hydroxyl-benzenes include benzenitrol, Hydroxy-benzoates or benzoic acid derivatives pyrogallol and phloroglucinol (Robbins, 2003). The hydroxyl-benzoates directly derived from Interestingly, the hydroxyl set in phenol benzoic acid, have the C6-C1 skeleton and are molecule imparts features of alcohol and tends universally distributed among the angiosperms. to classify phenols as tertiary alcohols; basically Variations in the structures of the individual the hydroxyl group in phenol is linked to a dilute hydroxyl-benzoates lie in the hydroxylation and carbon nucleus. Thus, phenols are not alcohols, methylation patterns of the aromatic ring. The but actually classified under weak acids. The free four most common ones are p-hydroxy-benzoic, phenols and phenolic acids are best considered vanillic, syringic and protocatechuic acids. They together, since they are usually identified during may be found either associated with lignin (i.e. in analysis of plant tissue to release a number of cell wall formation) or present in alcohol- ether soluble phenolic acids. These acids are insoluble fractions of leaves or alternatively in either associated with lignin combined as ester alcohol soluble portions conjugated as groups or present in the alcohol soluble fraction glycosides. Gallic acid is worth mentioning as it bound as simple glycosides. 4-Hydroxy benzoic is found in many woody plants. This tri-hydroxyl acid, protocatechuic acid, vannilic acid and derivative is known to participate in the syringic acids, and gentisic acid are widely formation of hydrolysable gallotannins. Its distributed among the angiosperms (Singh, dimeric condensation product (hexahydroxy 2011). diphenic acid) and related di-lactone, ellagic Phenolic compounds are mostly found in acid, are common metabolites. Also known are vascular plants (tracheophytes) i.e. the aldehydes corresponding to these acids: Lycopodiophyta, Pteridophyta (ferns and vanillin (most wide spread) anisaldehyde (in horsetails), Angiosperms (flowering plants or most essential oils) and salicylaldehyde among Magnoliophyta) and Gymnosperms (conifers, others. cycads, Ginkgo and Gnetales). Beside this, they are also found in non-vascular land plants Phenyl-propanoids (bryophytes) (Erickson and Miksche, 1974). Phenyl-propanoids are naturally occurring Dihydrostilbenoids and bis(bibenzyls) are found phenolic compounds having an aromatic ring to in liverworts (Marchantiophyta), rosmarinic acid which a three-carbon side chain is attached. The and a rosmarinic acid 3′-O-β-D-glucoside can be most widespread are the hydroxyl-cinnamic found in the hornwort Anthoceros agrestis acids and the four most common ones are p- (Vogelsang et al 2006). coumaric, caffeic, ferulic and sinapic acids that Phenolic acids are abundant in a balanced diet. play a pivotal role in phenolic metabolism. Examples of foods rich in phenolic acids include Hydroxy-cinnamic acids usually occur in plants 91 Jain et al Bull. Pharm. Res. 2013;3(2) in combined forms as esters. Those with quinic dimeric coumarins, of which dicoumarol is an acid are particularly common and chlorogenic example and also furano-chromones. (Proença acid is almost universal in distribution. An da Cunha, 2005) Historically, the ability of interesting point to be noted is that the dicoumarol to inhibit blood clotting, that later systematic distribution of hydroxyl-cinnamate led to the development of the anticoagulant drug conjugates may show correlation with the warfarin, was the first call to this class of systematic arrangements of plant families. In the compounds biological properties. Several pharmaceutical sector, for instance, caffeic acid biological activities have been reported in derived from Cyanora scolymus L. is used to treat natural-occurring coumarins, from photo digestive disorders. Rosmarinic acid, another sensitizers to vasodilatation. Recently, the phenolic acid derivative from Rosmarinus interest has been given to synthetic derivatives officinalis L. has diuretic activities and of coumarins, such as fluorinated and 1-azo antioxidant properties. Moreover, all these coumarins, which displayed moderate analgesia compounds show antibacterial, antifungal and properties, and excellent anti-inflammatory and antitumoral activities.
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