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COW DUNG FOR ECOFRIENDLY AND SUSTAINABLE PRODUCTIVE FARMING

Authors:
  • Sant Gahira Guru Vishwavidyalaya Sarguja (Sarguja University), Ambikapur, India

Abstract

Cows dung is a most important source of bio-fertilizer and used in many developing countries for generating energy. It is very effective's alternatives to chemical fertilizers by enhancing productivity in long term with maintaining the soil health and enhances the microbial population. Cowdung manure and vermicompost increases soil organic matter content, and this leads to improved water infiltration and water holding capacity as well as an increased cation exchange capacity. It is one of the renewable and sustainable energy resources through dung cakes or biogas which replace the dependence upon charcoal, fuel wood, firewood and fossil fuel etc. Beside it, application of cowdung in proper and sustainable way can enhance not only productivity of yield but also minimizing the chances bacterial and fungal pathogenic disease. Therefore, improper use of cowdung should be stopped and use as organic manure for maintaining productive and sustainable farming system. Introduction: Cows dung is a most important source of bio-fertilizer but at the same time cow's urine, cow's horn and a dead body of a cow can be used for preparing effective bio-fertilizer. Animals can play an important role in the provision of energy either in negative way where livestock keeping contributes to deforestation in large parts of forested area or in positively, such as by transforming plant energy into useful work or by providing dung used for fuel through dung cakes or biogas to replace charcoal, fuel wood, firewood etc. Most livestock products in mixed farming systems are derived from animals that are fed on local resources such as pasture, crop residues, fodder trees and shrubs. The farm animals (cows, bullocks and milk buffaloes) provide dung and urine to enrich the soil, while crop residues and fodder form the bulk of the feed for these animals (Kesavan and Swamina-than, 2008). In our country, farming and agricultural cultivation, as per the traditional age-old system, used to be done, with cow dung amongst others serving as manure. There are a variety of cow dung and cow's urine products, which can be used as fertilizers and pest repellent respectively in agricultural practice. These products are very popular and are using day by day. Low soil fertility is one of the greatest biophysical constraints to production of agroforestry crops across the world (Ajayi, 2007). Cow dung is a very good source for maintaining the production capacity of soil and enhances the microbial population. But due to increasing population pressure and demand of food resources, there is a need of introducing a chemical fertilizer, pesticides and insecticides to the soil, which are disturbing the soil physio-chemical properties including soil texture, porosity, and water holding capacity and also disturbed the soil microbial population. Therefore, improper use of cow dung should be stopped and should only be applied in the farmland instead of chemical fertilizers, so that the productivity and sustainability of soil could be maintained which will increase the production capacity of food treasure (Bargali, 2004).
IJSR - INTERNATIONAL JOURNAL OF SCIENTIFIC RESEARCH 201
Volume : 3 | Issue : 10 | October 2014 • ISSN No 2277 - 8179
Research Paper
Environmental Science
Abhishek Raj M.Sc. Scholar, department of Forestry, CoA, I.G.K.V., Raipur- 492012 (C.G.), India
Manoj Kumar Jhariya Assistant Professor, department of Farm Forestry, Sarguja University, Ambikapur-497001
(C.G.), India
Pratap Toppo Assistant Professor, department of Forestry, CoA, I.G.K.V., Raipur- 492012 (C.G.), India
COW DUNG FOR ECOFRIENDLY AND
SUSTAINABLE PRODUCTIVE FARMING
KEYWORDS : Bio-fertilizers, biogas,
cowdung, organic manure and green
house gas.
ABSTRACT Cows dung is a most important source of bio-fertilizer and used in many developing countries for generating en-
ergy. It is very eective’s alternatives to chemical fertilizers by enhancing productivity in long term with maintaining
the soil health and enhances the microbial population. Cowdung manure and vermicompost increases soil organic matter content, and this
leads to improved water inltration and water holding capacity as well as an increased cation exchange capacity. It is one of the renewable
and sustainable energy resources through dung cakes or biogas which replace the dependence upon charcoal, fuel wood, rewood and fos-
sil fuel etc. Beside it, application of cowdung in proper and sustainable way can enhance not only productivity of yield but also minimizing
the chances bacterial and fungal pathogenic disease. erefore, improper use of cowdung should be stopped and use as organic manure for
maintaining productive and sustainable farming system.
Introduction:
Cows dung is a most important source of bio-fertilizer but at
the same time cow’s urine, cow’s horn and a dead body of a cow
can be used for preparing eective bio-fertilizer. Animals can
play an important role in the provision of energy either in nega-
tive way where livestock keeping contributes to deforestation
in large parts of forested area or in positively, such as by trans-
forming plant energy into useful work or by providing dung used
for fuel through dung cakes or biogas to replace charcoal, fuel
wood, rewood etc. Most livestock products in mixed farming
systems are derived from animals that are fed on local resourc-
es such as pasture, crop residues, fodder trees and shrubs. e
farm animals (cows, bullocks and milk bualoes) provide dung
and urine to enrich the soil, while crop residues and fodder form
the bulk of the feed for these animals (Kesavan and Swamina-
than, 2008). In our country, farming and agricultural cultivation,
as per the traditional age-old system, used to be done, with cow
dung amongst others serving as manure. ere are a variety of
cow dung and cow’s urine products, which can be used as fer-
tilizers and pest repellent respectively in agricultural practice.
ese products are very popular and are using day by day. Low
soil fertility is one of the greatest biophysical constraints to pro-
duction of agroforestry crops across the world (Ajayi, 2007). Cow
dung is a very good source for maintaining the production ca-
pacity of soil and enhances the microbial population. But due to
increasing population pressure and demand of food resources,
there is a need of introducing a chemical fertilizer, pesticides
and insecticides to the soil, which are disturbing the soil physio-
chemical properties including soil texture, porosity, and water
holding capacity and also disturbed the soil microbial popula-
tion. erefore, improper use of cow dung should be stopped
and should only be applied in the farmland instead of chemi-
cal fertilizers, so that the productivity and sustainability of soil
could be maintained which will increase the production capacity
of food treasure (Bargali, 2004).
Cow dung and soil productivity:
Soil provides numerous essential ecosystem services such as pri-
mary production (including agricultural and forestry products);
regulation of biogeochemical cycle (with consequences of the
climate); water ltration, resistance to diseases and pests and
regulation of above ground biodiversity (Jhariya and Raj, 2014).
Soil fertility depletion is the single most important constraint
to food security. Manure is an important input for maintain-
ing and enhancing soil fertility. As per Fulhage (2000) manure
contains the three major plant nutrients, nitrogen, phosphorus
and potassium (NPK), as well as many essential nutrients such
as Ca, Mg, S, Zn, B, Cu, Mn etc. at, in addition to supplying
plant nutrients, manure generally improves soil tilth, aeration,
and water holding capacity of the soil and promotes growth of
benecial soil organisms. e application of cowdung manure
and vermicompost increases soil organic matter content, and
this leads to improved water inltration and water holding ca-
pacity as well as an increased cation exchange capacity. As per
Mandal et al. (2013) integration of inorganic, organics and bio-
fertilizers can produce 50-92% more yield in Aonla. According
to Adegunloye et al. (2007) C: N ratio in cowdung manure is an
indication that it could be a good source of protein for the mi-
crobes which involved in decomposition of organic matter. Ma-
nure and urine raise the pH level and accelerate the decomposi-
tion of organic matter and termite activity (Brouwer and Powell,
1995, 1998). If inorganic fertilizer, especially nitrogen, is com-
bined with manure, the manure reduces soil acidication and
improves the nutrient buering capacity and the release of nu-
trients (Williams et al., 1995). e soil productivity is also related
to available nutrient source in either through manures (dung) or
chemical fertilizers (superphosphate etc). Dung increased pH,
CEC, total N, organic C, loss on ignition, and exchangeable Mg
and Ca. It decreased sulphate sorption. Moreover, cowdung ma-
nure plays a signicant role in maintaining the nutrient status
of the plant. Vermicomposting of cow manure using earthworm
speciesE. andrei(Atiyeh et al., 2000b) andE. foetida(Hand et al.,
1988) favoured nitrication, resulting in the rapid conversion of
ammonium-nitrogen to nitrate-nitrogen. erefore it improves
the nutrient cycling and helping to convert unavailable nitro-
gen in available forms to plants. e soil biological attributes
are also responsible for determination & maintenance of physi-
cal properties of soil. e physical properties of soil in its own
turn control not only the quantum of chemical properties, but
also the rate of their release and availability to plants essential
for metabolic processes. us, it may be said that soil biology is
the door to maintenance of soil health (Kumari et al. 2014). As
per Dinesh et al., (2000) there is a positive relationships between
relevant soil properties and enzyme activities and suggested that
addition of organic matter increased microbial activity/ diversity
and turnover, which subsequently leads to greater enzyme syn-
thesis and accumulation in the soil matrix. e eects of cattle
dung on soil microbial biomass are also studied and compared
to controlled condition of soil (no any dung application). When
dung was mixed with grassland soil under controlled condi-
tions the size of the SMB increased (P < 0.001). Respiration rate
also increased (P < 0.001) and specic respiration was higher (P
< 0.05) in soil treated with beef cattle dung than in that treated
with dairy cow dung (Lovell and Jarvis, 1996).
202 IJSR - INTERNATIONAL JOURNAL OF SCIENTIFIC RESEARCH
Volume : 3 | Issue : 10 | October 2014 • ISSN No 2277 - 8179 Research Paper
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Cowdung and Environment:
The over-dependence on fossil fuels as primary energy source
has led to myriads of problems such as global climatic change,
environmental degradation and various human health problems
(Aremu and Agarry, 2012). Global warming caused by energy
generation from fossil fuel has accelerated the deployment of re-
newable fuels such as biogas. Biogas is one of the renewable and
sustainable alternative resources that signicantly reduce green-
house-gas emission compared to the emission of landll gas to
the atmosphere (Murphy et al., 2004). Biogas is produced
by the anaerobic digestion or fermentation of such biodegradable
materials as biomass, manure, sewage, municipal waste, green
waste, plant material and crops (NNFCC, 2013). Biogas is also
generated by converting cow manure via anaerobic digestion into
methane biogas. One cow can produce enough manure in one day
to generate three kilowatt hours of electricity whereas only 2.4
kilowatt hours of electricity is needed to power one hundred watt
light bulb per one day (State Energy Conservation Ofce, 2009).
It also has the advantage of contributing to the solution of envi-
ronmental problems, because it substitutes fossil fuels (Lora and
Aandrade, 2009).
Cowdung as energy resource:
Shortage of fuel wood is a major problem which forces the rural
people to use a cowdung for their fuel purpose, which eects on
the productivity status of cultivated land. Cowdung is a good re-
source for maintaining the productivity status and enhance the
benecial microbial population of soil. e share of the Indian
population relying on traditional biomass for cooking stands at
72% per cent (IEA, 2011b). In the states of Bihar, Haryana, and
Punjab, the percentage distribution of rural households using
dung cakes as the primary cooking fuel is reaching 22%–33% per
cent (TERI, 2010). is practice has a negative eect on the soil
nutrient balance and consequently aects agricultural produc-
tivity. As per Bekele et al. (2013) annually 1999, 943, 11, 34 and
229 metric tonnes of wood, dung, charcoal, crop residue and
tree residues, respectively were used by the studied households.
As a result, 17.3, 4.3, 20.6, 15.6, 5.4, and 10.2 tonnes of N, P, K,
Ca, Mg and Fe nutrients were lost per year in burning dung and
crop residue. is improper use of cowdung should be stopped
and use as organic manure for maintaining productivity and
health of soil.
Cowdung and disease prevention:
Cowdung is very eective’s manures for reducing the bacterial
and fungal pathogenic disease. It showed positive response in
suppression of mycelial growth of plant pathogenic fungi like
Fusarium solani, F. oxysporum and Sclerotinia sclerotiorum (Ba-
sak and Lee, 2002). Similarly as per Mary et al. (1986) cowdung
extract spray was also reported to be eective for the control
of bacterial blight disease of rice and was as eective as peni-
cillin, paushamycin and streptomycin. As per Pammel (1889)
cowdung as organic manure increase vigour of plant and reduce
the disease incidence of root rots in cotton caused by Phyma-
totrichum omnivorum. Similar investigation was done by Abawi
and Widmer (2000), Akhtar and Malik (2000) and Gamiliel et
al. (2000) and reported that organic manure reduce disease in-
cidence caused by a wide range of plant pathogens including
bacteria, fungi, and nematode species. erefore, application of
cowdung in proper and sustainable way can enhance not only
productivity of yield but also minimizing the chances of disease.
Conclusion:
Due to increasing prices of chemical fertilizer and non-ecient
role in long term to sustainable production, there is a need of
application of organic manure including cowdung for enhanc-
ing maximum productivity in sustainable way with better soil
health. It is a eective tools to improves physico-chemical and
biological properties of the soil with higher yield of plants in
sustained basis without deleting the fertility of soil. Cow dung
is of similar importance due to its use as primary source of en-
ergy notably for cooking. Rural farmers are keen to use dung as
a source of energy due to unavailability of other sources which
aect the productivity. It can be also productively used for basic
energy, biogas, electricity and fertilizer and has a strong socio-
economic dimension. e eective use of dung would contribute
to increase energy security and reduce environmental degrada-
tion and greenhouse gases.
... The atmospheric concentration of such gases influences the earth's climate change and causes global warming (Meaza, 2010). Livestock animals can play a vital role in providing energy either in negative way where livestock keeping contributes to deforestation in large parts of forested area or in positive manner, by transforming plant energy into useful work or by providing dung used for fuel through dung cakes or biogas to replace charcoal and firewood (Raj, 2014). Cattle dung is the undigested residue of consumed food material excreted by bovine animal species. ...
... It also contains 24 different minerals like nitrogen, potassium, along with trace amounts of sulphur, iron, magnesium, copper, cobalt and manganese (Gupta et al., 2016). Cattle dung, urine, horn, and unslaughtered carcasses can be used for preparing bio-fertilizer (Raj, 2014). (Martínez-Gutiérrez, 2018). ...
... Funtua, a town in Katsina State is home to some 100,000 full time farmers, some being agropastoralists that keep cattle, sheep and goats (Labaran and Idris, 2016). The cattle produce large quantities of faecal matter that have been used as manure, but could be used as source of energy when combusted or anaerobically digested (Raj, 2014). The aim of the study was to assess cattle dung availability and its energy potentials in Funtua. ...
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Cattle dung is one of the potential causes for environmental pollution if it is not managed properly. One of the ways to manage the waste is to convert it into energy in the form of biogas. This study assessed cattle dung availability and its energy potentials in Funtua, Katsina State, Nigeria. A renaissance survey was conducted in the 11 Wards in Funtua Local Government Area. Four Wards were selected purposively for cattle population enumeration and dung production. These were Maigamji, Maska, Sabon Gari, and Tudun Iya. The Global Positioning System was used to obtain absolute locations of the cattle ranches. The quantity of cattle dung was determined with a weighing balance. ArcGis was used to produce spatial distribution maps of the cattle steads. Inferential statistics was used to analyse the cattle population, while the quantity of dung was analysed using descriptive statistics. A total of 4467 cattle was enumerated in the four Wards. There was a significant difference (P < 0.027) in the population of cattle between Wards. A Tukey post hoc showed it was between Maigamji and Maska Wards. The average dung produced per cattle per day was 5.4 kg. A total of 24,228kg of cattle dung translates to 947.004m 3 of biogas with the potential of generating 5,114.2kWh of electric power daily. The cattle dung produced in Funtua has great potential for alternative renewable energy source. It is recommended that an investigative study on the impact of feeding system (stall fed or open grazing) on dung production be conducted.
... Basically, biogas is a mixture of methane, carbon dioxide and hydrogen sulphide and it is used as a renewable energy source [8] and is produced by anaerobic digestion [9]. Biogas production from cow dung is very useful because the effluent after digestion can be used as a natural fertilizer and it is also economic [10]. In this research, the kinetics of biogas production from cow dung has been studied and also the analysis of effluents has been investigated to be used as a natural fertilizer by using a special inoculum mixture of Miscanthus fuscus, E. coli, S. aureus in nutrient broth medium. ...
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Biogas is an alternative and eco-friendly renewable power source and biogas effluent is used as a bio-fertilizer. In this research, the kinetic of biogas formation was studied and also the acceptance of biogas effluent as a bio-fertilizer was evaluated. 8000 g of cow dung and 600 ml of inoculum were fed to the digester. The volume of biogas production was observed for 50 days by using Orsat Apparatus and gas chromatography was used to analyze the gas. From the data, it was found that the formation of methane gas didn’t depend upon the concentration of cow-dung hydrocarbon and it followed the mechanism of the zero-order reaction. On the other hand, the elementary analysis of biogas effluent by AAS ensured the property of effluent as a bio-fertilizer. Utilization of Miscanthus fuscus with E. coli and S. aureus ensured a higher degree of biodegradation.
... Peels are most effective when composted to blend with nitrogen-rich materials (Swain and Ray, 2019). Cow dung contains three major plant nutrients N, P, and K, and many essential nutrients such as Ca, Mg, S, Zn, B, Cu, Mn, etc. (Raj, 2014 206 improve the beneficial microflora which helps a healthier root system that can fight diseases and maintain effectiveness in adverse conditions (Kulkarni and Gargelwar, 2019). The foliage of Gliricidia sepium is used for green manuring and to produce other kinds of organic manure due to its higher nutritional composition. ...
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Cowpea is an important annual grain legume in Sri Lanka and other countries. Weeds cause roughly about 53 to 60% of the yield losses in cowpea cultivation. One method for controlling weeds in cowpea is chemical weed control (herbicide). Herbicide importation has been restricted since recent past due to the country's economic crises and government policy. Therefore, the identification of alternate substitutes for herbicides are important. Accordingly, the study investigated the effect of aqueous extracts of wild sunflower and sorghum on weed parameters of cowpea cultivation. This experiment was carried out in the Crop farm of Eastern University, Sri Lanka from September to November 2022. The field experiment was laid out in a Randomized Complete Block Design (RCBD) with five treatments and four replications. The treatments were T1(Wild sunflower aqueous extract - 12 L ha-1), T2 (Sorghum aqueous extract -12 L ha-1), T3 (Combined application of wild sunflower and sorghum aqueous extract with the ratio of 1:1 - 6+6 L ha-1), T4 (Hand weeding) and T5 (Unweeded check-control). Cowpea variety Waruni was sown in 1.125 m2 size of 20 beds with a spacing of 30cm×15cm. Aqueous extracts were applied 2,21 and 35 DAS and hand weeding was done 21 and 42 DAS. Weed parameters such as weed dry weight at 50 DAS and weed control index at 35 and 50 DAS were collected. Collected data were statistically analyzed by using Mini tab software and the mean comparison within treatments was performed by Turkey’s test at α=0.05. The experiment revealed that weed dry weight and weed control index were significantly (P<0.05) influenced by different weed control methods. Among the treatments, hand weeding proved to be more effective than the other treatments when compared with the control (unweeded check). After hand weeding, a combined application of wild sunflower and sorghum aqueous extracts was more effective at controlling weeds than the control (an unweeded check). The study concluded that the combined application of wild sunflower and sorghum aqueous extract could be substituted for hand weeding in cowpea cultivation to suppress the emergence of weeds in cowpea which is environmentally friendly for Sustainable Agriculture in Sri Lanka. Keywords: Allelochemicals, aqueous extract, cowpea, hand weeding, sorghum and wild sunflower
... Using cattle dung as household energy has serious socio-economic and environmental implications which was pre-dominantly used by the families primarily rely on the agriculture particularly from Madhesh Province (Saptari district). This strategy negatively affects the sustainable organic production and food security system (Raj et al., 2014), in one hand, and more likely to prone human health issues (produce deleterious smoke) and contribute climate change through relatively high production of greenhouse gases (Sfez et al., 2017) and require chemical fertilizers to supplement the nutrient deficit in the farmland in lieu of cow dung. This is also a worrisome situation across Nepal, particularly in lowland, that about 10 % of the population still rely on cattle dung for household energy sources (CBS, 2021) despite the country harbors >45 % of forested areas (DFRS, 2015) of which 50 % forests are believed to be accessible. ...
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Incidences of failure of sustainable ecosystem management policies, especially in the developing world are partly attributable due to a lack of political will and inadequate understanding of ecosystem dynamics (ED) at the local levels. In this study, we endeavor to comprehend the dynamics of two ecosystems-forest and agriculture-by employing a resource-friendly participatory approach based on stake-taking the experiences of indigenous and forest-dependent local stakeholders in three lowland provinces of Nepal and is guided by the theory of socio-ecological concept. An in-depth survey (n = 136) was conducted using semi-structured questionnaires, key in-formant interviews (n = 9), and focus group discussions (n = 4) for data generation, and generalized linear models were used to test whether understanding of ED is uniform across the socio-ecological landscape. We identified that various attributes of forests and agricultural ecosystems have altered substantially earlier than 30 years (hereafter, earlier decade) relative to the present (hereafter, later decade). Apart from the natural processes including anthropogenic and climatic factors, technological innovations played a significant role in altering ecosystems in the later decade. Understanding of ED among forest-dependent stakeholders significantly varied with respect to gender, occupation, age group, gender-based water fetching responsibility, and water-fetching duration, however, no significant correlation was observed with their level of education across the landscape. The studied ecosystem attributes significantly correlate with water regime changes, signifying that water-centric ecosystem management is crucial. The attributes that observed significant dynamics in the forest ecosystem include changes in forest cover, structure and species composition, the severity of invasive species, wildfires, water regimes, and abundance and behavioral changes in mammals and avifauna. The alteration of crop cultivation and harvesting season which results in a decrease in yield, increased use of chemicals (fertilizers and pesticides), an increase in fallow land, and the proliferation of hybrid variety cultivation in the later decade are significant disparities in the dynamics of the agriculture ecosystem. To withstand the accelerated ED, stakeholders adopt various strategies, however, these strategies are either obtained from unsustainable sources entail high costs and technology, or are detrimental to the ecosystems. In relation, we present specific examples of ecosystem attributes that have significantly experienced changes in the later decade compared to the earlier decades along with plausible future pathways for policy decisions sustaining and stewardship of dynamic ecosystems across the socio-ecological landscape.
... "Cow urine contains iron, urea, uric acid, estrogens and progesterone which affect the inhibitory responses to seed germination, shoot growth and seedling vigour" [7]. "Cow dung slurry also contains some growth promoting substances (auxin), N, P, K, micronutrients and biodigestable enzymes which have been cause for softening of seed coat and thereby enhances seed germination and growth of seedlings" [8]. "Water soaking of seeds is done to modify hard seed coats, remove inhibitors, soften seeds and reduce the time of germination" [9]. ...
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