S.No.

Volume 4 , Issue 1, January 2015 (Title of Paper )

Page No.
1.

Parametric Studies of Carrot Seed Oil Extract for the Production of Medicated Soap

Authors: Abdulrasheed A., Aroke U.O., Sani I. M.

Abstract— The research is to investigate the possible use of Carrot seed oil extract in the production of medicated soap. The oil extraction from Carrot seed was achieved through Soxlet extraction method. Carrot seed contains high carotene, a major pigment of carrot and enhancer of LOPS microbial activity as reported by Hayashi et al. (2013). Some physicochemical properties of the oil were analysed and they were found within specifications except for its boiling point which was found to be 134oC, below the specified boiling point range of 150oC to 300oC for essential oils as reported by Ranken et al (1997). The soap produced gave a pH of 7.4, foam height (4.8 cm), alcohol insoluble (6.0%), moisture content (9%). The antifungal activity of the soap fortified with Carrot seed oily extract on Trichophyton rubrum shows a very good sensitivity of 24.1 mm a bit below that of the Standard soap (26.6 mm) and above that of the Control soap (8.0 mm). From the analysis of the soap produced, it can be concluded that a highly effective medicated soap can be produced from Carrot seed extract.

Keywords—Carotene, Carrot seed, Carrot seed oily extract, Medicated soap, Trichophyton rubrum.

References-

[1] Aigbodion, A.I., Ikhnoria, E.U., Okieimen, F.E., 2004. Extraction and characterization of vegetable oil from indigenous sources. Proc. 27th Int. Annu. Conf. Chem. Soc. Nig., 208-210;

[2] Akgül A., Özcan M. 1999. Some compositional characteristics of capers (Capparis spp.) seed and oil. Grasas y Aceites 50, 49-52.

[3] Gonny M, Bradesi P, Casanova J., 2004. ―Identification of the components of the essential oil from wild Corsican Daucus carota L. using 13C-NMR spectroscopy‖. Flavor and Fragrance Journal. 19 (5), 424-433.

[4] Hassan, M., Kubmarawa, D., Modibbo, U. U. and Tunde, A. D., 2010. Production of Medicated Soap from Butyrospermum Paradoxum Plant. Journal of Biological Sciences and Bioconservation. Volume 2. http://www.cenresin.org (accessed in October, 2014).

[5] Hayashi, M., Naknukool, S., Hayakawa, S., Ogawa, M. and Ni'matulah, A.B.A., 2012. Enhancement of antimicrobial activity of a lactoperoxidase system by carrot extract and β-carotene. Journal on Food Chem., 130: 541-546. Kagawa. Japan.

[6] Jensen, W. B. 2007. ―The origin of the soxhlet extractor‖. Journal of Chemical Education. 84(12): 1913.

[7] Kuntom, A., Ahmad, I., Kifli, H., Shariff, Z. M., 1999. Effects of superfatting agents on cracking phenomena in toilet soap. Journal of Surfactants and Detergents, , 2(3), 325-329.

[8] Moulay, S., Zenimi, A., Dib, M., 2005. Rosin/Acid oil-based liquid soap. Journal of Surfactants and Detergents. 8(2): 169-174.

[9] Negi P. S., Roy S. K., 2000. ―Effect of low-cost storage and packaging on quality and nutritive value of fresh and dehydrated carrots‖. J.Sci. Food Agric. 80, 2169-2175.

[10] Oliveira I., Sousa A., Bento A., 2008. ―Chemical composition, antioxidant, and antimicrobial activities of three Hezelnut‖. Food chem. Toxicol. 46(5): 1801-7.

[11] Olonisakin, A., Aremu, M.O., Ahmed, S.A., 2005. Lead salt-ether separation of fatty acids from palm oil, Material Science Research, India, 3: 53-58.

[12] Ong, S. H., Cheah, K.Y., Choo, Y. M., 1990. Oleochemicals from palm oil and palm kernel oil. The Int. J. Oil Palm Res. Dev., 1:35- 51.

[13] Özcan, M. and Chalchat, J.C. 2007. Chemical composition of carrot seeds (Daucus carota L.) cultivated in Turkey: characterization of the seed oil and essential oil. Grasas y Aceites, 58 (4), 359-365. http://www.jonnsaromatherapy.com (accessed in December, 2014)

[14] Popescu, V., Soceanu, A., Dobrinas, S., Stanciu, G., Epures, D. T., 2011. ―Quality control and evaluation of certain properties for soaps made in Romania‖. Journal of Chemistry & Chemical Engineering, Biotechnology, Food industry. 3(12): 257-261. ISSN:1582-540X.

[15] Ranken, M. D., Baker, C. G. J., Kill, R. C., 1997. ―Food Industries Manual‖. 24th Edition. Springer, USA.

[16] Staniszewska M, Kula, J. 2001.‖Composition of the essential oil from wild carrot umbels (Daucus carota) growing in Poland‖. Journal of Essential Oil Resources. 13: 439-441.

[17] TSE, 1971. Analysis Methods of Vegetable Oil. TS 894. Turkish Standard Institute, Ankara-Turkey (Türkiye).

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2.

Modal Analysis of Cantilever Beam with T-Section using Finite Element Method

Authors: Sampath S S, Sawan Shetty, Chithirai Pon Selvan M

Abstract— This paper deals with the vibration characteristics of a beam. A modal analysis is carried out on a cantilever beam with T section. The beam is modeled, designed and analyzed in in finite element analysis software ANSYS. The cantilever beam which is fixed at one end is vibrated to obtain the nature of vibration. All the degrees of freedom on the free end are taken into account. Modes and the natural frequencies pertaining to it are computed in finite element analysis software.

Keywords— Cantilever beam, ANSYS, modal analysis, degrees of freedom.

References-

[1] Pavol Lengvarský, Jozef Bocko, Martin Hagara, "Modal Analysis of Titan Cantilever Beam Using ANSYS and SolidWorks", American Journal of Mechanical Engineering, 2013, Vol. 1, No. 7, PP: 271- 275.

[2] Chandradeep Kumar, Anjani Kumar Singh, Nitesh Kumar, Ajit Kumar, "Model Analysis and Harmonic Analysis of Cantilever Beam by ANSYS" Global journal for research analysis, 2014, Volume-3, Issue-9, PP:51-55.

[3] K.vijaykumar , G.shivaraju , U.sreekanth , Mr.aluri david ," Tungsten Cantilever Beam Using Ansys (Modal Analysis), The International Journal Of Engineering And Science. 2014, Volume 3, issue 4, PP: 53-59.

[4] Mohammad Vaziri, Ali Vaziri, Prof. S.S. Kadam, "Vibration analysis of a cantilever beam using F.F.T analyzer", International Journal of Advanced Engineering Technology, 2013, volume 4, Issue 2, PP: 112-115.

[5] Chao Ming Ching and Slamet Widodo, "Modal Testing and Analysis of Cantilever Beam"PP: 1-14.

[6] Pragnesh K. Chaudhari, Dipal Patel, Vipul Patel, "Theoretical and Software Based Comparison of Cantilever Beam: MODAL ANALYSIS" International Journal of Innovative Research in Advanced Engineering, 2014, volume 1, issue 5, PP: 75-79.

[7] Nitin N More, “Finite Element Analysis of Piezoelectric Cantilever", International Journal of Innovations in Engineering and Technology, 2013, volume 2, issue 3, PP: 100-105.

[8] Adik R. Yadao, Irshad A. Khan, Dayal R.Parhi, "Modal Analysis of a Multiple Cracked Cantilever Bar", IOSR Journal of Mechanical and Civil Engineering, 2014, PP:12-15.

[9] Migbar Assefa, "Modal Analysis of Machine Tool Column Using Finite Element Method", International Journal of Mechanical, Aerospace, Industrial and Mechatronics Engineering, 2013, Volume 7, No 4, PP: 278-287.

[10] R. S. Mohan, A. Sarkar, A. S. Sekhar, "Vibration analysis of a steam turbine blade”, Inter-noise, 2014, PP: 1-10.

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3.

Effect of Fly Ash in PPC Concrete

Authors: Parveen, Vivek, Bhupinder Singh

Abstract-- The era of infrastructure increased in recent year, so the advancement of concrete technology exaggerated day by day in life. Use of concrete exaggerated the consumption of natural resources and energy sources. In recent years, inordinate measure of fly ash is generated in thermal industries. The previous couple of years, some cement firms have started mistreatment ash in producing cement called hydraulic cement, however, the utilization of ash remains terribly low. There’s intolerably opportunity for the fly ash in cement likewise as in concrete. This work describes the use of Non-conventional artifact (Fly ash) that is definitely out there. During this work cement and fine aggregate has been partly replaced by fly ash consequently within the range of 0% (without fly ash), 10%, 20%, 30%, 40% and 60% by weight of cement for M-25 Mix Concrete mixtures were molded, tested and compared in terms of compressive and split strength.

References-

[1] Alhassan A. Y. Apata A.O.. (2012) “The Behaviour of Portland – Pozzolana Cement Concrete in Aggressive Environments”. Journal of Emerging Trends in Engineering and Applied Sciences. (ISSN: 2141-7016). (JETEAS) 3 (4): 2012 pp. 673-676. Jeteas.scholarlinkresearch.org. © Scholarlink Research Institute Journals.

[2] Alam J., Akhtar M.N., (2011) “Fly ash utilization in different sectors in Indian Scenario”. International journal of emerging trends in Engineering and Development. Issue 1, Vol 1 August.

[3] Bakoshi T., Kahno K., Kawasaki S., Yamaji N., (1998) “Strength and durability of concrete using bottom ash as replacement for fine aggregate,” ACI Spec. Publ. (SP-179) 159-172.011.

[4] Badur S. Choudhary R, (2008) “Utilization of hazardous wastes and By-products as a green concrete material through s/s process: a review,” Advanced Study Center Co. Ltd.Rev.Adv.Master.Sci.24-61

[5] Berndt M.L. (2009) “Properties of sustainable concrete containing fly ash, Slag and recycled concrete aggregate.” Construction and Building Materials Volume 3, Issue 7, Page no. 2606-2613.

[6] Cangialosi F., Intini G. Liberti L., Notarnicola M., Di Canio F., (2010) “Activated Coal Fly Ash as Improved Mineral Addition in Cement and Concrete”. Second International Conference on Sustainable Construction Materials and Technologies June 8 – June 30, ISBN 978-1-4507-1490-7.

[7] Chakraborty A.K. (2005) “HVFAC for Structural Applications,” Department of Civil Engineering Bengal Engineering and Science University, Shibpur, Howrah – 711103, West Bengal, India. May.page 1-24.

[8] Despande, V.P. (1982) “Removal of suspension from ash slurry in Effluent of stream Generation plant. “Indian Journal of environmental Health 24(1).

[9] Ghafoori N., Cai Y., Ahmadi B., (1997) “Use of dry bottom ash as a fine aggregate in roller compacted concrete,” ACI Spec. Publ. (SP171) 487-507. February.

[10] Gupta M.K., Kumar A., (2008) “factors affecting cement content in concrete”, department of civil environmental engineering Delhi college of engineering Bawana Road, Delhi-110042 University of Delhi July 2008.

[11] Gawatre D.W., Meshram V.G., (2013) “Study of various fineness of fly ash as a partial replacement of cement in concrete”. International Journal of Scientific & Engineering Research Volume 4, Issue 1, January. ISSN 2229-5518.

[12] Alvin Harison , Vikas Srivastava , Chandra Bhan Gupta, “Fly Ash as Supplementary Cementious Material in Portland Pozzolana Cement Concrete” International Journal of Engineering Trends and Technology (IJETT) – Volume 6 Number 3- Dec 2013.

 

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