Simplified Method for the Cultivation of Spirulina for Domestic use
S. Krupanidhi*1, P. Srivani1, K.Tony1, S.Akhila1, M. Nageswara Rao
1, M.Amaze1, B. Rajesh
1, K. Vimila1, K. Dhanalaksmi1, K. Pavan Kalyan1, M. Indira1, Md.N. Bobby1, K. Prakash Narayana Reddy1, R. Sivakumar2
1Department of Biotechnology, Vignan’s Foundation for Science, Technology and Research University, Vadlamudi 522213 Andhra pradesh, India
2Tejas Biotech Pvt. Ltd, Chennai
Department of Biotechnology, Vignan’s Foundation for Science, Technology and Research University, Vadlamudi 522213, Andhra Pradesh, India. Tel: +91 7980323577, E-mail: firstname.lastname@example.org
S.Krupanidhi et al. (2017), Simplified Method for the Cultivation of Spirulina for Domestic use. Int J Biotech & Bioeng. 3:4, 107-108. DOI: 10.25141/2475-3432-2017-4.0107
Copyright: ©2017 S.Krupanidhi et al. This is an open-access article distributed under the terms of the Creative Commons Attribution
License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited
Received Date: May 03, 2017; Accepted Date: May 17, 2017; Published Date: May 29, 2017
is a blue-green algae. There are three predominant species in India namely Spirulina platensis, Spirulina fusiformis and Spirulina maxima. All of them are profusely enriched with nutrients. As a consequence, Spirulina formulations are made available in the market for use. Unique attributes of Spirulina are autotrophic and alkallophyletic and hence the energy requirements to maintain its culture at home are almost nullified. The sunlight that we obtain at our homes is more than adequate for its growth and replication. Mineral replenishment only needs to be supplemented. Yet, another important ingredient in the culture medium is pH. Spirulina prefers to grow in extreme alkaline medium under sunlight that restrains from most of the facultative bacteria and fungi which otherwise contaminate the culture medium. Therefore, little sophistication is required for its maintenance at domestic premises. The medium composition tried in our lab led to the profuse growth of the culture as indicated through the intensity of the green colour in the wider plastic tubs and obtained biomass was processed for the preparation of dried flakes.
Methods: A screening test for mild cognitive impairment: Montreal Cognitive Assessment (MoCA test), measurement of body composition by an inner scan monitor, and stress level tests were performed by measuring α-amylase levels in the saliva from the sublingual gland. For statistical evaluation of scores before and after each cognitive test intervention, t tests were used. To test for relationships between the score of cognitive test and measured value of body composition and α - amylase levels, Pearson ‘s correlation coefficient was used.
Results: Significant improvements in cognitive function were detected after each intervention, with the strongest correlating variable with the cognitive function and body composition comparisons being blood vessel age. Furthermore, there was a negative correlation between stress and cognitive function, with those patients with high stress levels having reduced cognitive function.
Conclusions: Interventions that combine group-games and brain training are effective in preventing dementia. Negative correlations were detected between cognitive function and vascular age, and stress levels. Therefore, in order to maintain the cognitive function, it is necessary to improve the dietary life as a means of improving vascular age and perform activities to provide stress relief.
Spirulina maxima, Mineral Composition, Cultivation, Spirulina Culture, In-House
Among several algal species, Spirulina was heavily exploited and
became a commercially important filamentous cyanobacterium
due to its inherent ability to accumulate wealth of natural resources
such as proteins, minerals, PUFAs and a few vitamins. Hence,
several methods are attempted to cultivate both at laboratory,
mass and industrial scales(1, 2, 3). Outdoor pond algal cultivation
for the production of single cell proteins is one of the oldest
technologies intuitively initiated by Borowitzka and Borowitzka(2). Various attempts such as closed system(4), outdoor open tubs
with paddle wheel(5), and photo-reactor system(6), designs using
confectionary, agricultural and poultry waste(1) are in vogue.
In one instance, the yield containing 35 tonnes of Spirulina per
hectare per year from a commercial pond was achieved in the Siam
Algae Site near Bangkok(7). The attributes of its mass cultivation
primarily are due to its photosynthetic pigment, phycocyanin,
adaptability, plasticity and its asexual reproduction by binary
fission. Due to its increasing popularity as an abundant nutritional
biological resource, it is being used in poultry, aquaculture, animal
feed, wastewater treatment and agriculture (7 & 8) and also
supplementing human food requirements. As a result the single cell
protein of Spirulina is being recycled in the ecosystem at different
trophic levels. Therefore keeping in view of its importance, it is
aimed at devising a simplest protocol to culture Spirulina at our
residences being tropical climatic conditions, conducive for algal growth.
The mother culture of Spirulina maxima was obtained from
M/S Tejas Biotech Pvt Ltd, Chennai. 50 ml mother culture
was mixed initially with 200 ml designed culture medium. The
designed medium composition was: NaCl:2.0 g., NaHCO3:16.0
g., NaNO3:2.0 g., K2SO4: 1.0 g., KH2PO4:0.5 g., FeSO4: 100
mg per litre water (boiled and chilled) with pH value of 10.5.
The initial culture was kept in an orbital shaker with natural
illumination for 7 days and observed the intensity of green colour
through UV spectrophotometer at 540 nm. Once, the OD value
0.8 was reached, the initial culture was transformed to 10.0 L
volume plastic tubs for mass culture in 1:4 proportions (initial
grown culture: medium). The tubs with mass culture were allowed under direct sunlight for 7 days. The growth of Spirulina was
noticed everyday by observing the intensity of green colour and
replenished with 2 L fresh medium on 4th day. At the end of the 7th
day, harvest was done through a muslin cloth (Fig.1.8), slurry mass
was centrifuged and then taken into a syringe barrel. With the
help of the plunger, the semisolid Spirulina mass pushed through
a narrow nozzle of the syringe and allowed to collect on a clean porcelain tiled surface, de-moisturized under ceiling fan initially
and later dried under sunlight. Dried Spirulina fragments appeared
like green fragile needles which were ready for consumption. A
few more observations were made such as growth of Spirulina
culture and its microscopic morphology.
(1) Initial culture with 50 ml mother culture +150 ml
medium, (2) 5th day of initial culture showing more green intensity,
(3) 7th day initial culture mixed in 1: 4 proportion in 1.0 L medium
in a open tub, (4) 0-day mass culture under direct sunlight, (5)
3rd day of mass culture with relatively good growth, (6) 7th day
of mass culture, (7) Spirulina 10x magnification isolated from a
dense mass culture, (8) Harvested cultured Spirulina using muslin
cloth, (9) Harvested biomass centrifuged and (10) Obtained
biomass was squeezed through a syringe as needles for drying
With the intention of developing a simple protocol for the
housewife to adopt the technique of Spirulina culture at home to
practice, we followed the aforementioned procedure described.
There was a 4 fold increase in the biomass within 14 days of culture
duration. To begin with 50 ml mother culture obtained from M/S
Tejas Biotech Ltd, Chennai containing 0.738 mg was seeded into
200 ml culture medium (Fig.1.1 & 2) At the end of a series of
steps described under material and methods and as shown in Fig.1,
there was a profuse growth (Fig.6) of pure culture of Spirulina
(Fig.7) and we harvested 2.871 g (Fig.1.9). This slurry biomass
was washed twice to bring pH to 7.2. The same was allowed to
dry under direct sunlight for three hours after spreading as thin
rods on a porcelain tile using a plastic syringe (Fig.1.10). The
dried Spirulina was kept in an eppendorf vial for consumption. All
the steps followed in the protocol did not require any laboratory
sophistication. Further, this protocol yielded pure strains without any contamination (Fig.1.7). In addition, the inorganic chemicals
used are neither rare nor unaffordable. Industrial scale cultures are
being practiced which requires optimization both at the level of
the maintenance of medium concentration and also prevention of
- Hala Y. El-Kassas , Ahmed M.M. Heneash and Nabila R. Hussein
(2015) Journal of Genetic Engineering and Biotechnology, 13 (2),
- .Borowitzka, M.A. and Borowitzka, L.J. (1988) Micro-algal
biotechnology. Herausgegeben. Cambridge University Press,
Cambridge, New York, New Rochella.
- Avigad Vonshak and Amos Richmond (1988) Mass production
of the Blue-green alga Spirulina: An Overview, Biomass 15, 233-
- Kirensky LV, Terskov IA, Gitelson II, Lisovsky GM, Kovrov BG
and Okladnikov YN.(1968) Experimental biological life support
system. I. Continuous cultivation of algae as a link of a closed ecosystem. Life Sci Space Res. 6, 32-36.
- A. Vonshak, S. Boussiba, A. Abeliovich and A. Richmond (1983) Production of Spirulina Biomass: Maintenance of Monoalgal Culture Outdoors, Biotechnology and Bioengineering, Vol. XXV, 341-349.
- Vadiveloo A, Moheimani N.R, Alghamedi R, Cosgrove J.J,
Alameh K and Parlevliet D. (2016) Sustainable cultivation of
microalgae by an insulated glazed glass plate photobioreactor.
Biotechnol J. 11(3), 363-74.
- Habib MAB, Parvin, M, Huntington, T C and Hasan M R (2008) A review on culture, production and use of Spirulina as food for humans and feeds for domestic animals and fish, FAO Fisheries and Aquaculture Circular No. 1034, Rome, FAO, p.33
- .Mori K, Ohya H, Matsumoto K, Furuune H, Isozaki K and
Siekmeier P (1989) Design for a bioreactor with sunlight supply and operations systems for use in the space environment. Adv Space Res. 9 (8):161-168.
- Jiménez, C., Cossı
o, B. R., Labella, D., & Niell, F. X. (2003).
The feasibility of industrial production of Spirulina (Arthrospira)
in Southern Spain. Aquaculture, 217(1), 179-190.
- Borowitzka, M. A. (1999). Commercial production of
microalgae: ponds, tanks, tubes and fermenters. Journal of
biotechnology, 70(1), 313-321.
- Ciferri, O., & Tiboni, O. (1985). The biochemistry and
industrial potential of Spirulina. Annual Reviews in Microbiology,
- Pulz, O. (2001). Photobioreactors: production systems
for phototrophic microorganisms. Applied microbiology and
biotechnology, 57(3), 287-293.
- Zeinalian, R., Farhangi, M. A., Shariat, A., & Saghafi-Asl,
M. (2017). The effects of Spirulina Platensis on anthropometric
indices, appetite, lipid profile and serum vascular endothelial
growth factor (VEGF) in obese individuals: a randomized double
blinded placebo controlled trial. BMC complementary and
alternative medicine, 17(1), 225.