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84 DOI:1 0 .2 6 5 2 4 / K Rj2 Kong. Res. J. 4(2): 84-88, 2017 ISSN 2349-2694 Kongunadu Arts and Science College, Coimbatore. 8 INSIGHT INTO PHARMACEUTICAL IMPORTANCE OF BRYOPHYTES Greeshma, G.M.1, G.S. Manoj2 and K. Murugan1* 1Plant Biochemistry and Molecular Biology Lab, Dept. of Botany, University College, Thiruvananthapuram, 2Dept. of Botany, VTM NSS College, Dhanuvachapuram, Thiruvananthapuram, Kerala, India. .26524/krj20 *E.mail: [email protected] ABSTRACT DOI:10 Historically, Bryophytes were accounted to be a monophyletic group and were placed in an inclusive Bryophyta. Some species are aquatic though some can adapt and live in arid regions. Bryophytes size ranges from microscopic to 12 inches in length, the average size is between 0.5 – 2 inches long and colors vary from green to black and sometimes colorless. Bryophytes plays a vital role in the biosphere even their size is insignificant. As a biotic factor in the environment, they provide food for numerous herbivorous birds and animals. They prevent soil erosion by carpeting the soil. Bryophytes cause the outer portion of rock to slowly crumble as they grow with lichens on rock surfaces. And because of it they contribute and help to soil formation. When mixed with the soil, bryophytes increase the water-holding capacity of the soil and the amount of organic matter in the soil. Some bryophytes like sphagnum or peat moss has some economic importance. It is used as packing material for breakable or fragile objects such as figurines and dinnerware’s. It is also used as packing materials for transporting plants and plant parts, since sphagnum holds water and hence prevent plants from drying during transport. As a whole, bryophytes are of little economic importance to man. Keywords: Bryophytes, medicinal, non-vascular, microhabitat. 1. INTRODUCTION 40 new carbon skeletal acetogenins, phenolic compounds and terpenoids have been found in this Bryophytes are the ancient terrestrial class, for example, marchantin A, marchantin E and chlorophyllous spore-forming amphibians, although riccardin C and diterpene dialdehyde, sacculatal, by no valid scientific documents for this have been recent development of spectroscopic apparatus, appeared in the literature. This concept was particularly by high resolution NMR techniques. The fundamentally based on the similarity of the present- most interesting chemistry of liverworts is that most day liverworts the first land plant fossils, the spores of sesqui- and diterpenoids are enantiomers of those of which date back almost 400 million years. They found in higher plants and some different species of are taxonomically kept between the algae and the the same genus, like Frullania produce both normal pteridophytes and there are appx. 14000 species of and its enantiomeric sesquiterpenoid. They are the Bryophyta, 6000 of Marchantiophyta (liverworts), source of large variety of secondary metabolites and 300 of Anthoceratophyta, species and 5000 are thus provide a great potential for biotechnological mosses. Generally bryophytes are not infected or and biopharmaceutical applications. In past few attacked by pathogens, insects, snails, slugs and years more than 400 novel chemical compounds mammals, however, studies on their phytochemistry were isolated from bryophytes and they were have been neglected for centuries. Bryophytes are structurally elucidated. Some of biologically active considered to be useless for human diets, difficulty of compounds isolated from mosses includes identification and collection of a large amount, biflavonoids, terpenes and terpenoids (like di- and although several liverworts have been used as triterpenoids) and flavonoids whereas liverworts medicinal plants in China to cure cut, burns, bruises, reported to contain a large variety of lipophilic pulmonary tuberculosis, neurasthenia, fractures, mono-, di- and sesquiterpenoids as well as aromatic convulsions, ulopathy, neurasthenia etc. compounds like bibenzyls, benzoates, cinnamates 2. REVIEW OF THERAPEUTICAL IMPORTANCE and naphtalenes. Flavonoids such as quercetin (182.5 µg/g), luteolin (464.5 µg/g), and apigenin 2.1. Phytochemicals from bryophytes (297.5 µg/g) were reported to be present in the Bryophytes are known to produce diverse liverwort Marchantia linearis (Remya et al., 2014). secondary metabolites to combat a number of biotic Two moss species Thuidium tamariscellum and and abiotic stress such as predation, UV radiation, Brachythecium buchananii were reported to be rich extreme temperature and microbial decomposition. in secondary metabolites like flavonoids, terpenoids 84 and phenols (Greeshma et al., 2016). In spite of the 2.3. Microbicidal potential fact that many plant secondary metabolites are the In recent year extensive studies have been potential therapeutic introduction of novel drugs in conducted for the search of antibacterial properties the market has decreased in past few years. In fact, in different species of plant. Organic extracts of higher plants and bryophytes have similar various medicinal plants containing flavonoids have evolutionary history but search for novel therapeutic been reported to show antimicrobial activity compounds within biodiversity of bryophyte (Praveen Dahiya et al., 2012). The antibacterial remained neglected due to small size and lack of activities of isofavonoids and flavonoids, and awareness among people. These small plants glycosides of luteolin and apigenin have also been remained unexploited so far in drug discovery reported. But most of the investigations were process in spite of few reports from the past depicts centered on angiosperms. Few data are presently some of their ethnomedicinal uses. Studies on available about these smaller groups of plants, secondary metabolites of bryophytes have revealed bryophytes. However, few of the recent study on the presence of few original compounds, some of bryophytes has shown some of the antibacterial which are not synthesized by higher plants (Rashmi activity against gram-positive and gram-negative et al., 2014). bacteria (Meenakshi et al., 2011). 2.2. Antimicrobial aspects of Bryophytes Also, various phenolic compounds isolated Bryophytes have been reported as from Atrichum, Dicranum, Mnium, Polytrichum, and antibiotics (Tedela et al., 2014). Various organic Sphagnum spp. are known to shown antimicrobial solvent extracts of bryophytes have been properties. Apart from this the antimicrobial activity investigated in past. Literature emphasizes that the for three moss species Eurhynchium angustirete, alcoholic and the aqueous extracts or the various Rhytidia delphussquarrosus and Rhodo bryumroseum, compound isolated from different species of and for two liverwort species Frullania dilatata and bryophytes (hepatic and mosses) have shown Lophocolea heterophylla has been reported for the antimicrobial effects against various group of fungi, first time. Similarly, aqueous extract of few as well as Gram negative and Gram positive bacteria. bryophytes have some inhibitory effect on the Recently extracts of few of the selected species of growth of Escherichia coli as tested on plates. bryophytes (seven mosses and three liverworts) viz However, this antibacterial activity seems to be the Radula flacida, Cyatodium africanum, Frullania specific for certain bryophyte species, as the extracts spongiosa, Thuidium gratum, Ectropothecium of Marchantia polymorpha, Porella platyphylla and aeruginosum, Sematophyllum caespitosum, the moss Dicranum scoparium showed antimicrobial Stereophyllum radiculosum, Babulalam berenensis, effects on the gram-positive bacteria namely Bacillus Campilopusa spericuspis and Calympereserosumlam subtilis, Staphylococcus aureus and Sarcina lutea, but berenensis, Campilopusa spericuspis and Calymperes no activity against gram-negative E. coli (Rashmi et erosum have shown interesting antimicrobial activity al., 2014). (Rashmi et al., 2014). Similarly, the methanolic and Many of the bryophyte species are also water fractions of Targionia hypophylla possess known to show antifungal property (Abhijit et al., strong microbicidal activity (Remya et al., 2012). 2011). Different crops growing in greenhouses, like The methanolic and aqueous extracts of Plagiochilla tomatoes, wheat and green pepper were infected beddomei, Leucobryum bowringii and Octoblepharum with the pathogens Phytophora infestans, Erysiphe albidum exhibited different degree of growth graminis and Botrytis cinerea and later treated with inhibition against bacterial species such as alcoholic extracts from different bryophytes. All Salmonella typhimurium, Staphylococcus aureus, bryophyte extracts showed a species-specific Klebsiella pneumonia, E.coli, Bacillus cereus and antifungal activity against the plant pathogenic fungi Pseudomonas aeruginosa and fungal species like depending on the concentration. Ethanolic extract of Candida albicans, Cryptococcus neoformans, Marchantia linearis exerted a potent fungicidal Trichophyton rubrum, Mucor indicus, Apergillus niger activity against Botrytis cinerea and marginally in and A. flavus (Manoj, 2012). Therefore, the potential Rhizoctonia solani i.e., showing varied levels of antimicrobial properties of bryophyte can be growth inhibition with different concentrations. harnessed for the therapeutic purpose against the (Remya et al., 2014). Furthermore, extracts from respective pathogen. The antibacterial and Neckera crispa and Porella obtusata showed antifungal activities of bryophytes have been antifeeding effects against the Portuguese slug discussed in below. Aarion lusitanicus. In view
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