Perspectives of use of nanocellulose in oil and gas industry
Keywords:
drilling fluids, nanocellulose, plastic pipes, polimer composite, rheological properties.Abstract
The article reviews basic properties of nanocellulose, indicates sources of raw materials and peculiarities of its formation. It
has been found out that the main factors that determine the size and structure of nanocellulose is the raw material, the conditions
of treatment and methods of generation of nanoscale crystals.
It has been demonstrated that cellulose nanoparticles can be used as environmentally friendly additives for water-based
drilling fluids with predetermined rheological and filtration properties, as well as corresponding thermal resistance, which
increases the efficiency of drilling technology.
It has been noted that the nanocomposite material "cellulose – polyethylene" can be raw material for the production of a
new generation of plastic pipes with better strength characteristics and high resistance to slow and rapid crack propagation if
compared to traditional materials.
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References
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Aerogels’ Web-like Skeleton for Oil/Water Separation’, ACS
Applied Materials & Interfaces, vol. 7, no. 13, pp. 7373–7381.
[24] Dmytrenko, VS, Dmytrenko, VV, Protsiuk, VD,
Voitsekhivska, TY & Rogiv, NM 2013, ’Cost savings of
motor oil and fuel in the operation of oil and gas process
transport’, Exploration and development of oil and gas fields,
no. 1 (46), pp. 207–214. (in Ukrainian)
[25] Asadi, A, Mark Miller, M, Sultana, S, Moon, R &
Kalaitzidou, K 2016, ’Introducing cellulose nanocrystals in
sheet molding compounds’, Composites: Part A, vol. 88,
pp. 206–215.
[26] Ozen, E, Kiziltas, A, Erbas Kiziltas, E & Gardner,
DJ 2013, ’Natural fiber blend-nylon 6 composites’, Polymer
Composites, vol. 34, iss. 4, pp. 544–553.
[27] Laka, M, Chernyavskaya, S & Maskavs, M 2003,
’Cellulose-Contaning Filler for Polymer Composites’,
Mechanics of Composite Materials, vol. 39, no. 2, pp. 183–188.
[28] Englund, K, Wolcott, M 2008, ’Processing
performance of extruded wood-polymer composites’, In
Wood-polymer composites, ads K Oksman & and M Sain,
Woodhead Publishing Limited, Cambridge, pp. 190-207.
[29] Sabo, R 2008, ’Cellulose nanocrystal reinforced
polyolefin composites’, in Nanotechnology from Research to
Applications: proceedings of the International Conference on
Nanotechnology for Forest Products Industry. [June 26–27].
[30] Maskavs, M, Kalnins, M & Reihmahe, S 1999,
’Effect of water sorption on some mechanical parameters of
composite systems based on low-density polyethylene and
microcrystalline cellulose’, Mechanics of Composite
Materials, vol. 35, iss.1, pp. 55–62.
hydrocarbons extraction using explosion power’, Bulletin of
the National Academy of Siences of Ukraine, no. 10, pp. 71–
72. (in Ukrainian)
[2] Danilenko, VA & Nagornyy, VP 2006,
’Technological complex for intensification of energy
production’, Science and innovation, vol. 2, no. 5, pp. 34–40.
(in Ukrainian)
[3] Mathews, F & Rollings, R 2004, ’Composite
materials’, Mechanics and Technology, Technosphere,
Moscow. (in Russian)
[4] Chebotareva, EA & Vishnyakov, HR 2012,
’Composite polymer materials: Formation of structure and its
influence upon properties’, Journal of Engineering Academy
of Ukraine, no. 2, pp. 157–163. (in Russian)
[5] Stadnyk, AD, Moroz, IA, Medvedskaya, OG &
Bylyk, VN 2015, ’Structure and properties of polymer
composites and nanocomposites under thermal treatment’,
Journal of Nano- and Electronic Physics, vol. 7, no. 3,
pp. 1–5. (in Russian)
[6] Brodin, FW, Gregersen, OW & Suverud, K 2014,
’Cellulose nanofibrils: chellenges and possibilities as a paper
additive or coating material – a review’, Nordic Pulp and
Paper Research Journal, vol. 29, no. 1. pp. 156–166.
[7] Panchuk, MV, Shlapak, LS, Kurta, SA &
Struminska, OO 2011, ’Production and use of biopolymers – a
way to improve the state of the environment’, Scientific
Bulletin of the Ivano-Frankivsk National Technical University
of Oil and Gas, no. 4, pp. 92–101. (in Ukrainian)
[8] Kuramshyna, EA & Kuramshyn, AI 2015,
’Prodution and properties of microrystalline cellulose from
sugar beet pulp and its properties’, Scientific Notes of the
Kazan University, Natural Science Series, vol. 157, no. 4.
pp. 18–26. (in Russian)
[9] Nanocellulose against Kevlar, 2012, The Chemical
Journal, no. 9, pp. 34–37. (in Russian)
[10] Ivanova, VN, Mamchur, TN, Uvarova, DYu &
Mahotyna, LH 2015, ’Study of production of nanocellulose
from fiber semi-products’, in Problems of pulp and paper
materials mechanics: proceeding of the 3rd International
Scientific and Technical Conference dedicated to the memory
of Professor VI, Arhanhelsk, pp. 212–217. (in Russian)
[11] Chirayil, C, Mathew, L & Thomas, S 2014,
’Review Of Recent Research In Nano Cellulose Preparation
From Different Lignocellulosic Fibers’, Reviews on Advanced
Material Science, no. 37, pp. 20–28.
[12] Myslyuk, MA, Rybchych, IY, Yaremiychuk, RS
2002, Wells drilling: Handbook: In 5 vol. Vol. 2.: Flushing
wells. Drilling bits wear, Interpress Ltd, Kyiv. (in Ukrainian).
[13] Abdo, J & Haneef, MD 2012, ’Nano-Enhanced
drilling fluids: Pioneering approach to overcome
uncompromising drilling problems’, Journal of Energy
Resources Technology, vol. 134, iss. 1, рр. 501–506.
[14] Al-Yasiri, MS & Al-Sallami, WT 2015, ’How the
drilling fluids can be made more efficient by using
nanomaterials’, American Journal of Nano Research and
Applications, Vol. 3, no. 3, рр. 41–45.
[15] Petrus, G 2015, Plant derived cellulose
compositions for use as drilling muds, US Patent
20150203737 A1.
[16] Meichum, Li, Cinglin, Wu, Kunlin Song, Yan Cing
& Yigiang , Wu 2015, ’CelluloseNanoparticles as Modifiers
for Rheology and Fluid Loss in BentoniteWater-based Fluids’,
ACS Applied Material Interfaces, no. 7, pp. 5006–5016.
[17] Lafitte, V 2015, Fluids and methods including
nanocellulose, US Patent 20150072902 A1.
[18] Kang Lee 2004, Double wall pipe with spacer
member and aerogel insulation layer, Kanada Patent CA
252483 A1.
[19] Leiser, D 2005, Flexible, compression resistant
and highly insulating systems, US Patent 20060196568 A1.
[20] Zhang, W, Zhang, Y, Lu & C, Deng, Y 2012,
’Aerogels from crosslinked cellulose nano/micro- fibrils and
their fast shape recovery property in water’, J Mater Chem.,
no. 22, pp. 11642–11650.
[21] Yano, H & Nakahara, S 2004, ’Bio-composites
produced from plant microfi ber bundles with a nanometer
unit web-like network’, Journal of Materials Science, vol. 39,
iss. 5, pp. 1635–1638.
[22] Pakko, M, Vapaavuori, J, Silvennoinen, R,
Kosonen, H, Ankerfors, M, Lindstrrom, T, Berglung, L &
Ikkala, O 2008, ’Long and entangled native cellulose I
nanofibers allow flexible aerogels and hierarchically porous
templates for functionalities’, Soft Matter, no. 4, pp. 2492–
2499.
[23] Sai, H, Fu, R, Xing, L, Xiang, J, Li, Z, Li, F &
Zhang, T 2015, ’Surface Modification of Bacterial Cellulose
Aerogels’ Web-like Skeleton for Oil/Water Separation’, ACS
Applied Materials & Interfaces, vol. 7, no. 13, pp. 7373–7381.
[24] Dmytrenko, VS, Dmytrenko, VV, Protsiuk, VD,
Voitsekhivska, TY & Rogiv, NM 2013, ’Cost savings of
motor oil and fuel in the operation of oil and gas process
transport’, Exploration and development of oil and gas fields,
no. 1 (46), pp. 207–214. (in Ukrainian)
[25] Asadi, A, Mark Miller, M, Sultana, S, Moon, R &
Kalaitzidou, K 2016, ’Introducing cellulose nanocrystals in
sheet molding compounds’, Composites: Part A, vol. 88,
pp. 206–215.
[26] Ozen, E, Kiziltas, A, Erbas Kiziltas, E & Gardner,
DJ 2013, ’Natural fiber blend-nylon 6 composites’, Polymer
Composites, vol. 34, iss. 4, pp. 544–553.
[27] Laka, M, Chernyavskaya, S & Maskavs, M 2003,
’Cellulose-Contaning Filler for Polymer Composites’,
Mechanics of Composite Materials, vol. 39, no. 2, pp. 183–188.
[28] Englund, K, Wolcott, M 2008, ’Processing
performance of extruded wood-polymer composites’, In
Wood-polymer composites, ads K Oksman & and M Sain,
Woodhead Publishing Limited, Cambridge, pp. 190-207.
[29] Sabo, R 2008, ’Cellulose nanocrystal reinforced
polyolefin composites’, in Nanotechnology from Research to
Applications: proceedings of the International Conference on
Nanotechnology for Forest Products Industry. [June 26–27].
[30] Maskavs, M, Kalnins, M & Reihmahe, S 1999,
’Effect of water sorption on some mechanical parameters of
composite systems based on low-density polyethylene and
microcrystalline cellulose’, Mechanics of Composite
Materials, vol. 35, iss.1, pp. 55–62.
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Published
2018-06-06
How to Cite
A. Panchuk, M. Szkodo, W. Kiełczyński, M. P. L. S. (2018). Perspectives of use of nanocellulose in oil and gas industry. JOURNAL OF HYDROCARBON POWER ENGINEERING, 3(2), 79–84. Retrieved from https://ogpe.nung.edu.ua/index.php/jhpe/article/view/55
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OIL AND GAS TRANSPORTATION
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