INTRODUCTION: As growing population increase the risk of toxic water due to rapid industrialization. When chemical discarding into the water which are highly toxic in nature. Wastewater generate from the textile and chemicals making industries. These industries produce a large amount of effluent containing organic and inorganic pollutants; discard them into nearby river or lakes.This water moves to flowing water and reaches into drinking water and contaminates it. That polluted water causes toxic effects on aquatic ecosystem and human health (Lichtfouse et al. 2005). Wastewaters from industries contain a mixture of pollutants that vary from heavy metals to dyes which are carcinogenic for humans. Theses effluents stop photosynthetic activity by reducing light penetration into aquatic system.Their disposal into water causes serious threat to environment. When untreated effluent makes the water bodies colored and create aesthetic problem and if it is untreated cause hazardous effect. So, it is necessary to eliminate from the environment. (Beekaro et al. 2011) A number of methods are available for removal of heavy metals or dyestuff such as filtration,ion-exchange, ozonation, photo catalysis, evaporation.All these method are difficult to treat and every technique has its own limitation except adsorption method. Biosorption is the accumulation and concentration of pollutants from aqueous solution by the use of biological material. In this instance, biological materials, such as chitin, chitosan, yeasts, fungi, bacteria, algae, biomass having cellulosic material are used as chelating and complexing sorbents in order to concentrate and remove pollutants from the solution. Biosorption is a metabolically passive process that does not require energy. It is property of certain types of inactive/active organisms to bind and concentrate heavy metals in dilute aqueous solutions. It involves solid phase (sorbent) and a liquid phase (solvent) containing the dissolved species to be adsorbed. The materials which are used in this method are called bio sorbents. This technique provides alternatively method for elimination of heavy metal from industrial waste water. Biosorption method is the best method because it is simpler, cost effective techniques (Sharma 1991). In recent years, researcher focuses on the use of sustainable sorbents that obtain from biological materials(Brahmi et al. 2015;Bosso et al. 2015;Noreen et al. 2016).Biosorption  studies are reported in the literature for a long time but there is little or no exploitation in an industries scale (Fomina et al. 2014) Immobilized cell technology has been extensively investigated, and its practical application has been reported in both the food and wastewater-treatment industries.Immobilization of biosorbent material has been put forward.A variety of matrices have been used for cell immobilization, such as natural polymeric gels (agar, carrageenan, calcium alginate) and synthetic polymers(Dzioneket al.2016). This technique is simple and a stable entrapment is achieved simply by inoculating the fungal cell within culture medium. Now there is focused on the immobilized biomaterial that can be prepared by economical and simple procedure.Saccharum is a genus of tall perennial plants and having deep roots and rihozmes. It includes the sugarcanes, as well as several ornamental grasses such as Ravenna grass. They have stout, jointed, fibrous stalks that are generally rich in sugar, and measure two to six m (6 to 19 ft) tall.Specie of Saccharummunjaroxb.and their white flowers are of ornamental value. It is used as a raw material for thatching roofs. It is used for making baskets. Saccharummunja has medicinal importance. It is a medicine used for treatment of eye disease, inflammation(Singh et al.1998).Saccharummunja commonly known as munja and is a grass found along river banks. The common name of the plant is Kana, sarkanda, Moonja and is distributed from north and North West India to Pakistan.  Dry ‘sarkanda’ as such is not ingested by cattle. However, since it is available in large quantities in non-irrigated arid and semi-arid regions which are occasionally subjected to famine and drought, attention was first directed to its possible utilisation as a cattle feed(Vasudevan et al.1984). The plant is a large tufted grass and is of little account as fodder plant as cattle doesn’t eat them (Roopan et al. 2013). Saccharummunja was believed to have a medicinal value and are employed to treat diseases. Not much of the research was done to evaluate the effect of Saccharummunja.Saccharummunjato treat municipal wastewater conducted to know the effectiveness in reducingconcentrations of Chemical Oxygen Demand (COD), BiologicalOxygen Demand (BOD) and Total Suspended Solid (TSS) fromthe municipal wastewater. It contain lignin and cellulose and have hydroxyl groups which are potential binding sites for the pollutants (Lenssen et al. 199). It’s easy availability and low cost makes this plant to use in practical term. This is major advantage of Saccharummunja plant. Investigation of this as a biomass has been tested for its biosorptionability. But it is not explained before as a potential carrier for microbial immobilization. Biomass of Saccharummunjaroxb.does not dissolve in the aqueous media and produce no change in solution. Fungal species is select as microbial source because it produce large amount of biomass due to its fast growing fungal culture. In this way, we developed environment friendly biocomposite material by the immobilization of fungal cells on the matrix of Saccharummunjaroxb . Analyzed the biosorptionperformance(Akar et al. 2017)REFERENCE1. Lichtfouse, E.,Schwarzbauer, ?J. and Robert, ?D.2005.Environmental Chemistry: Green chemistry and pollutants in ecosystem, 287-290.2. Beekaro, D. and MudhooA.2011.Adsorptin of Reactive red 158 dye by Chemically treated, 2-7.3. Brahmi, L. ,KauouhF. ,Berrama,T. ,Boumaza, S. &Bendjama, Z. 2015.Biosorption of Basic Blue 41 from aqueous solutions by Posidoniaoceanica: Application of two-parameter and three-parameter isotherm models.Desalination and Water Treat.4. Bosso, L., Lacatena, F.,Cristinzio, G. et al. 2015. Biosorption of pentachlorophenol by Anthracophyllum discolor in the form of live fungal pellets.New biotechnology,32:21-25.5. Noreen, S.,Bhatti,HN.,Farrukh, Z.,Ilyas,S.andJamal, MA. 2016. Continuous fixed bed removal of novacron orange P-2R using sugarcane bagasse:prediction of breakthrough curves. Desalination water Treat, 57:12814-12821.6. Fomina, M.,GM, Gadd G 2014. Biosorption: current perspectives on concept, definition and application.Bioresource technology, May, 160:3-14.7. Dzionek, A., Wojcieszynka, D. andGuzik, U. 2016. Natural carriers in bioremediation: A review. Electron J Biotechology23:28-36.8. Singh RK, Joshi VK, Gambhir SS. 1998. Anti-inflammatory activity of some traditional medicinal plants. Anc Science Life,18(2):160-4.9. Roopan SM, Rohit G, Madhumitha AA, Rahuman C, Kamaraj A, et al. 2013.Low-cost and eco-friendly phytosynthesis of silver nanoparticles using Cocosnucifera a coir extract and its larvicidal activity. Industrial crops and product,43:631-635.10. Goswami N, Chatterjee S. 2014. Assessment of free radical scavenging potential and oxidative DNA damage preventive activity, BioMed research International 8:231-23611. Sharma ,B.K. 1991.Industrial Chemistry, Dyes, pp1554-1556.12. Akar, T., Uzun C., ÇelikS.andAkar,ST.2017. Biosorption of Basic Blue 7 by fungal cells immobilized on the green type biomatrix of Phragmitesaustralis spongy tissue. Inernational. Journal of phytoremediation,2017Jun 1413. http://www.mass.gov/eea/docs/dcr/watersupply/lakepond/factsheet/phragmites.pdf(Acessed date: 21-09-2017)14. Lenssen,JPM, Menting, FBJ, van der Putter and Blom WPM. 1999.Effects of sediment type and water level on biomass production of wetland plant species.Aquatic Bontany,64:151-165.15. Vasudevan, P., Gujral, G. S. and Madan, M.,SaccharummunjaRoxb. 1984. An Underexpioited Weed, Biomass (4),143-149.16. Kehar, N. D. and Sahai, B. 1951. Investigations on silage making – munj (S. mun/a) silage as feed for cattle. Prec. 39th Ind. ScLCongr.17. Akar, T., Uzun C., ÇelikS.andAkar, ST., “Biosorption of Basic Blue 7 by fungal cells immobilized on the green type biomatrix of Phragmitesaustralis spongy tissue”, Int.Journal of phytoremediation, Jun 14,201718. Sari, A. and Tuzen, M. 2008.Biosorption of total chromium from aqueous solution by red algae (Ceramiumvirgatum): equilibrium, kinetic and thermodynamic studies, Journal of Hazardous Materials, 160(2-3): 349-355.19. Aoyama, M. 2003. Removal of Cr (VI) from aqueous solution by London plane leaves.20. UzelA , Ozdemir G. 2008.Metal biosorption capacity of the organic solvent tolerant Pseudomonas fluorescens TEM08,Bioresourcetechnology ,100(2):542-548.21. .Furlan, F. R, Silva, L.G. M. da , Morgado A. F. , de Souza A. A. U. ,and S. M. A. G. U. de Souza 2010. Resources, Conservation and Recycling,54:283-290.22. Aksakala, O.andUcun, H.2010. Journal of Hazardous Materials”,181:666-672.23. Anastopoulos, I., kyzas, G.Z. 2015. Progress in batch biosorption of heavy metals onto algae. Journal of molecular liquid,209:77-8624. Safa, Y. andBhatti, H. N. 2011.Desalination,272:313-322.25. Mahmoodi N.M., Hayati B., Arami M. andLanC. 2011.Desalination, 268:117-125.26. Ayan, E. M., Topta,s A., Kibrislioglu, G.,Yalcinkaya, E. E. S and Yanik, J. 2011.Soil, Air, Water, 39(4):406–412.27. Tizhe,B. J., Osemeahon, S. A., Nkafamiya, I. I. and Shagal, M. H. 2015.Biosorption of Metal Ions from Aqueous Solution by Immobilized MoringaoleiferaBark ,International Research Journal of Pure & Applied Chemistry,5(3):238-244.