Home / Current Issue / Paper 1713001
Preliminary Investigation of Fibre Dimensions and Morphological Properties of Pineapple Crowns and Corn Sheaths: Renewable Resources in Paper Production
Subject area: Science,Engineering and Technology · Area of research: Chemical Engineering and Renewable resources
Abstract
Fibre characteristics are crucial parameters in determining the suitability of biomasses in paper production, impacting various aspects of the process and final product quality, particularly, paper strength and durability. This study investigated the fibre dimensions of pineapple crowns and corn sheaths and explores their potentials for paper production. Pineapple crowns and corn sheaths were macerated with the solution of acetic acid and hydrogen peroxide heated for 2hrs, the heated solution caused the agricultural residues to disintegrate into slivers. The slivers were examined under a micrometer mounted on an Olympus light microscope (Standard 25). The microscopic examination of the slivers showed the fibre dimensions such as fibre length (FL), fibre diameter (FD), lumen width (LW) and cell wall thickness (CW) of the strands. The morphological properties such as : runkel ratio = 2 ( cell wall thickness)/ lumen width, flexibility coefficient = lumen width/ fibre diameter x 100, rigidity coefficient = (cell wall thickness)/ (fibre diameter) x100 and slenderness ratio or felting power = fibre length / fibre diameter were derived using the fibre dimensions. Independent sample student t-test of GraphPad Prism, version 8.2 was used to compare the mean values for significant difference at p?0.05. Pineapple crowns exhibited fibre length of 2. 54 mm, fibre diameter 35.19 ?m, lumen width 31.05 ?m and cell wall thickness of 8.96 ?m, the values in the range of TAPPI standard values for long fibres as found in soft woods. Corn sheaths exhibited fibre length of 1.67 mm, fibre diameter 49.31 ?m, lumen width 36.67 ?m and cell wall thickness of 5.75 ?m as found in hardwoods.
Keywords
Fibres, Dimensions, Corn Sheaths, Pineapple Crowns, Paper
References
[1] Dutt, D., Upadhyaya, J. S., and Tyagi, C. H. 2010. Studies on Hibiscus cannabinus, Hibiscus sabdariffa and Cannabis sativa pulp to be a substitute for softwood pulpPar-I: AS-AQ delignification process, Bioresources Technology, 5(4): 2123-2136.
[2] Dutt, D., Upadhyaya, J. S., Malik, R. S., and Tyagi, C. H. 2004. Studies on Pulp and Paper-Making Characteristics of Some Indian Non-Woody Fibrous Raw Materials, Part II, Journal of Scientific and Industrial Researc, 63(2): 58-67.
[3] Dutt, D and Tyagi, C.H. 2011. Comparison of Various Eucalyptus Species for their Morphological, Chemical, Pulp and Paper Making Characteristics. Indian Journal of Chemical Technology, 18:145-151.
[4] Ekhuemelo D.O and Tor, K. Assessment of Fibre Characteristics and Suitability of Maize Husk and Stalk for Pulp and Paper Production. Journal of Research in Forestry, Wildlife and Environment, 2013, 5(1)
[5] Enayati, A. A., Hamzeh, Y., Mirshokraie, S. M., and Molaii, M. 2009. Paper Making Potential of Canola Stalk. Bioresources Technology, 4(1): 245-256.
[6] Environmental Paper Network. 2018. The State of Global Paper Industry. https://environmentalpaper.org
[7] Fagbemi O. D; Fagbemigun, T. K; Mgbachiuzor. E, Otitoju. O, Igwe C. 2014. Strength Properties of Paper from pulp Blend of Kenaf Bark and Corn Husk: A Preliminary Study. British Journal of Applied Science and Technology, 4(28): 4124-4129.
[8] Fagbemigun, T. K., Fagbemi O. D., Mgbachiuzor. E, Buhari, F, Igwe C. 2016. Fibre Characteristics and Strenght properties of Nigerian Pineapple Leaf, Banana Peduncle and Banana Leaf. Journal of Scientific Research and Reports, 12(22): 1-3.
[9] Fagbemigun T.K, Fagbemi, O.D., Otitoju O., Mgbachiuzor E., Igwe, C.C, 2014. Pulp and Papemaking Potential of Corn Husk. International Journal of Agricultural Science, 4: 209-213.
[10] Odjugo, P.A. 2000. Global Warming and Human Health: Current and Projected Effects. Environmental Analar, 4(2): 49- 60.
[11] Odjugo, P.A. 2010a. General Overview of Climate Change Impacts in Nigeria. Journal of Human Ecology, 29(1): 47- 55.
[12] Odjugo, P.A. 2010b. Global Warming and Food Production: A Global and Regional Analysis. African Journal of Environmental Studies, 2(2):85-91.
[13] Ogunsile, B. O., Omotoso, M. A., and Onilude, M. A. 2006. Comparative Soda Pulps from the Mid-rib, Pseudostem and Stalk of Musa Paradisiacal. International Journal of Biological Sciences, 6(6): 1047-1052.
[14] Ogunwusi, A.A 2014. Agricultural Waste Pulping in Nigeria: Prospects and Challenges. Civil and Environmental Research, 6 (10): 201
[15] Oluwadare, A. O. 1998. Evaluation of the Fibres and Chemical Properties of Selected Nigerian Wood and Non-Wood Species. Journal of Tropical Forestry Research, 14:110-119.
[16] Statista. 2024. A significant Growth in Packaging Paper and Board Production Volumes. Statista Research Department. https://www.statista.com
[17] Syed, N.N.F., Zakaria, M.H and Bujang, J.S. 2016. Fibre Characteristics and Paper Making of Sea Grass Using Hand Beaten and Blended Pulp. Bioresources Technology, 11(2):5358-5380.
[18] Udohitinah, J. S and Oluwadare, A. O. 2011. Pulping Properties of Kraft Pulp of Nigerian-Grown Kenaf (Hibiscus Cannabinus L.). Bioresources Technology, 6(1): 751-761.
How to cite this paper
@article{1713001,
author = {Mojibayo Ikusedun, Adewole Ayobami Aderinlewo, Omolara Omowunmi Fatunmibi, Oluwaranti Temitope Alake, Ismail Gbeminiyi Odu},
title = {Preliminary Investigation of Fibre Dimensions and Morphological Properties of Pineapple Crowns and Corn Sheaths: Renewable Resources in Paper Production},
journal = {Iconic Research And Engineering Journals},
year = {2025},
volume = {9},
number = {6},
pages = {1707-1711},
issn = {2456-8880},
url = {https://www.irejournals.com/formatedpaper/1713001.pdf},
abstract = {Fibre characteristics are crucial parameters in determining the suitability of biomasses in paper production, impacting various aspects of the process and final product quality, particularly, paper strength and durability. This study investigated the fibre dimensions of pineapple crowns and corn sheaths and explores their potentials for paper production. Pineapple crowns and corn sheaths were macerated with the solution of acetic acid and hydrogen peroxide heated for 2hrs, the heated solution caused the agricultural residues to disintegrate into slivers. The slivers were examined under a micrometer mounted on an Olympus light microscope (Standard 25). The microscopic examination of the slivers showed the fibre dimensions such as fibre length (FL), fibre diameter (FD), lumen width (LW) and cell wall thickness (CW) of the strands. The morphological properties such as : runkel ratio = 2 ( cell wall thickness)/ lumen width, flexibility coefficient = lumen width/ fibre diameter x 100, rigidity coefficient = (cell wall thickness)/ (fibre diameter) x100 and slenderness ratio or felting power = fibre length / fibre diameter were derived using the fibre dimensions. Independent sample student t-test of GraphPad Prism, version 8.2 was used to compare the mean values for significant difference at p?0.05. Pineapple crowns exhibited fibre length of 2. 54 mm, fibre diameter 35.19 ?m, lumen width 31.05 ?m and cell wall thickness of 8.96 ?m, the values in the range of TAPPI standard values for long fibres as found in soft woods. Corn sheaths exhibited fibre length of 1.67 mm, fibre diameter 49.31 ?m, lumen width 36.67 ?m and cell wall thickness of 5.75 ?m as found in hardwoods.},
keywords = {Fibres, Dimensions, Corn Sheaths, Pineapple Crowns, Paper},
month = {December},
doi = {https://doi.org/10.64388/IREV9I6-1713001}
}