Tuesday, April 15, 2014

Final Report of Dr.H.S.Sen, Chairman, NICRA-II Monitoring Team for three drought prone areas in Jhargram and Bihar during Oct-Nov, 2013

Report of the Zonal Monitoring Committee of KVK-NICRA of Zone II
(30 Oct - 1 Nov, 2013)

The KVK-NICRA Monitoring team of Zone II (vide ZPD II letter no. No.F.ZPD/II/NICRA/ZMC/2013, Date: 31.08.2013) comprised of (1) Dr. H. S. Sen (Chairman), (2) Dr. A. K. Singh (Vice Chairman), (3) Dr. U. S. Jaiswal (DEE-BAU nominee) (4) Dr. Sammi Reddy (CRIDA, Director CRIDA nominee), and (5) Dr. F. H. Rahman (Member Secretary, ZPD-II). The team visited three drought prone areas (Aurangabad & Nawada) in Bihar, and Koderma in Jharkhand. The visits were well organized and well attended by large number of farmers including women participants, members of VCRMC, and representatives of the respective KVK. Inputs were invited freely from all followed by opinions offered by the Monitoring Committee members. Field visits were also arranged (Village Harigaon, Aurangabad; Village Manjhila, Nawada; and Village Chopnadi, Koderma) for site inspection of the interventions practised.  Dr. A. K. Singh (Vice Chairman) and Dr. U. S. Jaiswal (DEE-BAU nominee) were present with the team only upto Aurangabad KVK village Harigaon. Following were the discussions and salient recommendations emanating there from.
The general impressions of different stakeholders during the course of discussion in different areas were that:
(i)         Water and soil are the primary resources for improving crop productivity, and need to be attended in the first instance
(ii)       Each area had a vast majority from either marginal land holding or landless category  
(iii)      It was accepted by the farmers in each area that climate change has taken place over the last few decades very perceptively, resulting in delayed and uncertain monsoon
(iv)     Marketing is a great constraint felt by the farmers in each area
(v)       Critical inputs like lack of timely supply of inputs have been felt by many in general cultivation
(vi)     It was invariably felt by the farmers in each area that the NICRA scheme has made a striking impact on the farmers resulting in economic benefit  mainly through improvement of crop productivity and allied activities
(vii)    It was also encouraging to find at each site farmers from the adjoining villages (outside the periphery of NICRA village) joining the meeting and urging for adoption of improved interventions 
(viii)  The guidelines formulated for the formation of VCRMC and their functioning may kindly be placed before the monitoring team during its future meet. The enthusiasm and impact of the members of the team were praiseworthy.
Intervention-wise observations and discussions are as follows for necessary actions to be taken under each:
Water resource
The annual rainfall throughout the belt covered varied between 1000-1150 mm, although occasionally there were scarcities n certain years. It was the right approach to store the excess rainwater either on community basis or at individual farmers’ holdings in any of the following forms: (i) Ahar, (ii) renovated pond, (iii) excavated pond.

Although commendable efforts were made by the NICRA team to ensure maximum storing of water, notably at Nawada and Koderma Centres, it was urged by the Monitoring Team that this particular intervention be followed up more scientifically using the softwares available for this purpose for rainfed farming. The exercise may start with probability analysis of rainfall and evaporation to make an estimate on the amount of excess rainfall likely be available.

Further, it is advisable to planting, preferably, of perennial or semi-perennial crops of farmers’ choice on the raised bunds around the excavated ponds, and pisciculture (preferably composite culture) in the ponds after proper testing of its quality.  Appropriate steps should also be taken stop grazing of the plantation crops or select such crops which are not likely to be grazed, also stop poaching of the fishes. This will fetch the farmers round the year high additional return.      

At Koderma it was very interesting to find a kind of recharge well developed at hardly 10-15 feet depth from the surface (locally known as ‘Nadi kund’). Recharge takes place sufficiently fast from the adjoining water stream. Water is lifted by a small diesel pump to hardly 10 feet height to irrigate crops continuously for 6-8 hours, as reported. Detailed study including analysis of the water for its usefulness for irrigation should be conducted on this technique round the year.

Other bore wells being used for irrigation at each site should subjected to water analysis for its usefulness for irrigation, and recharge capacity to be tested. All open bore wells should be covered with wire mesh to avoid any accident.  
Minimizing irrigation requirement
This is recognized as one of the important methods to mitigate gas emission and consequently climate change. Water is a scarce commodity at each site visited.  It is strongly recommended to ensure water availability during critical crop growth period through the above techniques and develop appropriate irrigation method for irrigation. SRI is one such efficient technique recognized for rice crop provided water is assured for this purpose. Appropriate planning is necessary for this purpose using such water saving techniques during non-rainy season.  Although sprinkler irrigation is reported to be in practice at few locations, attempts may be made to use at the appropriate locations such techniques as trickle or pitcher (earthen) irrigation. While trickle irrigation may be tried for seasonal or perennial crops like chilli, tomato, brinjal, other fruit crops, pitcher irrigation, which is highly cost effective, is useful for vegetables crops.    

Ground water and other water sources should be checked in respect of water quality and heavy metal contamination at an interval of 3-5 years.
Climate change, crop planning, and availability of weather data
It has been reported to the monitoring team that necessary data on relevant meteorological data have been collated from the nearby IMD stations for sufficient period of time.

Attempt may be made to predict the weather (aberrations) for the coming years, keeping in view the climate change predictions based on the climate data referred above, with as much dependability as possible, for which technology is available, and finally the crop diversification along with contingency planning, depending on water requirement of crops, farmers’ choice and market demand of crops. It was interesting to find a few drought tolerant rice varieties have been tried, one of which is Sahbhagi (110 days duration), developed by CRRI, at Koderma. More attention should be paid in identifying suitable low water requiring crop varieties of both rice and non-rice. The cropping intensity, which is at present low to very low, understandably due to less and uncertain rainfall, should be invariably improved in phases.

In general there appeared to be lack of adequate fodder for the animals. It is necessary to include fodder having minimum water requirement in the crop planning.

Scope for including NIFTD at each place may be explored. Seed bank of the cultivable cereals, to start with, may be established at each location. 

Another approach to reduce water requirement is to introduce paira cropping under residual soil moisture following rice harvest for which suitable crop(s) should be identified. One of such crops tried and found successful in large areas is lathyrus (low toxin contens, viz. var. Nirmal).

In at least one station (Nawada) it was observed that to ensure safety of the equipments the weather station was located on the roof top. As per accepted guidelines of the IMD, all meteorological equipments should be stationed at the ground level under normal field situation. This needs to be rectified at the earliest.
Soil resource
There are lack of appropriate soil data observed at almost each site. Even the texture of the soils could not be reported properly at any site, although soil major nutrient status are being analysed from the farmers’ fields as per reports received. This may be ensured,  and urgent necessary steps taken as per suggestions below:
(i)         Each centre should have portable soil testing kit along with portable pH metre in the first hand. At Koderma however mobile soil testing van was reported to be available, functioning of which should be regularly monitored by the ZPD.
(ii)       All fertilizer recommendations should be made on soil test basis.
(iii)      It may be appreciated that other minimum soil parameters (physical, biological, soil organic C, and relevant micronutrients status field-wise are also necessary to assess soil health, which may be monitored at every 5 years interval.
(iv)     CRIDA  may identify the minimum set of parameters to be analysed as inputs to soil health assessment, develop simple protocol for each, and ZPD may ensure training through deployment of appropriate staff at each centre.
(v)       It has been reported that the benchmark soil survey has been conducted at each site, which may please be collated and placed before the monitoring team in future for their understanding.

At Koderma, it was found that although major equipments were available at their KVK laboratory, there were no staff available to do the analyses, which is sheer waste of money spent on this.    

It is suggested to take up ‘biochar’, a highly C-rich resource, as pilot studies at a few locations only representing various soil textures and C levels. ZPD may initiate such programme in order to enrich soil C level. Economics of such practices may also be monitored. 
Conservation tillage
It is widely recognized as a major practice to mitigate climate change phenomenon. Zero tillage has been accepted by farmers at each site, mainly for their understanding that (i) it advances the date of rabi sowing following kharif rice harvest, and (ii) decreases irrigation requirement of the rabi crop, (iii) increases the yield of rabi crop. Residual mulching of the kharif harvest along with non-burning of the crop residues following the harvest of kharif harvest, resulting in less toxic gas emission , as well as faster re-building of the deteriorated soil structure, caused due to puddling of kharif soil, and lower energy inputs required for the cultivation, are also other scientific reasons for popularization of conservation tillage.

It is recommended to spread this technology along with manufacturing of zero tillage equipment at lower cost and make these available more abundantly for custom hiring along with other agricultural equipments through district level machinery hubs.   

It was very encouraging to hear some farmers in Koderma suggesting development of solar energy operated pumps. The ZPD may give appropriate attention towards this.   
Agricultural machineries
At each site it was proposed to make tractors of higher capacities (say, 45HP) available since the present facilities are unable to operate efficiently with disc and mould board ploughs, etc. particularly in heavy soils common at these sites.

Shelters may be provided to protect and maintain the farm implements at each site against corrosion against rains and heat. 
Alternate farming vis-à-vis land holding
Generally, the land holdings are very small in each area visited, and about 70-80 % farmers are either marginal holders or landless farmers. It appears that much more emphasis needs to be given on alternate farming especially for these group of farmers to ensure continuous flow of income. The alternate farming may include nurseries for flower & fruit plants (preferably under artificial/ protected system , apiary, ornamental fish culture, mushroom, etc. it has been observed that arrangements have been made for periodical health check-up for domestic animals including cattle & buffaloes, goats, poultry birds, etc., which are praiseworthy. But this exercise may be given much more emphasis with supply of improved breeds, more scientific arrangements for their rearing including housing, preparation and supply of artificial feeds, and more frequent health check-ups. Ducks and pigs may also be added to the list. In order to mitigate climate change it is suggested to add N-inhibitors to the feed supplement .

It was heartening to observe at least one farmer (Jai Pal Prasad) at Nawada following scientific nurseries under polyhouse. This should a model for all others to follow. Sri Prasad may be encouraged more for scientific practice through training, supply of improved varieties, saplings, etc.          
VCRMC
The VCRMC in general at all places are doing good jobs, and the members are highly enthusiastic. The assets are growing, and it is time to think of registering the Committee with carefully drawn bye-laws and compositions. A minimum of 20 % may be reserved for the ladies, and all category of farmers should be represented in the committee.  
Marketing strategy
The Monitoring Team opines that adoption of better marketing strategy so as to minimize the role of middlemen to absorb bulk of the profit may be given due attention. Formation of farmers’ cooperative may be the starting point towards this for which a sub-committee under VCRMC may be formed. ZPD may discuss this aspect with all sections of farming community.   
Transfer of technology
It was heartening to observe in all the three NICRA adopted villages farmers from the adjoining villages showing significant interest to come under the fold of NICRA. This is encouraging, and appropriate studies may be taken up by the NICRA team to monitor as far objectively as possible the diffusion of technology from the present sites where the studies are underway.

Finally, it is very important that the farmers in the study areas should undergo awareness/ training of the climate change phenomenon and its impact on farming in long run, and possible strategies to be taken to mitigate such effects. 

(H.S.Sen), Chairman
.





Recommendations submitted by Dr.H.S.Sen in the second year (April, 2014) as a Member of RAC_DOR on Crop Production & AKMU

Salient research recommendations on Crop Production & AKMU (HSSen)
1.. Large proportion of oilseed grown areas are marginal lands having poor natural resource base especially with respect to soil moisture availability under normal circumstances. .Besides, El Nino might have adverse influence on rainfall distribution leading to more of drought and flood occurrence across India in the ensuing year. Probability analysis on drought occurrence may preferably be worked out using the rainfall and other parameters  of the past nearly 30 years as well as the climate change models for planning for short & long term droughts to occur in future. This warrants a strong need for more attention in the ensuing year on studies on droughts due to climatic reasons. Besides, salinity may also come up to a greater degree in certain areas.
2. Following steps are suggested to obviate the moisture & salinity stress particularly at critical growth stages.
   (a) identify the critical growth stages for a few oilseed crops and study their physiological tolerance mechanism  under the prevailing climatic situations
   (b) it is important to study rhizosphere-moisture interactions genotype-wise, the role of microbial consortia, and their effects on nutrient dynamics.
   (c) along with crop phenology it is also important to study the root characteristics of the sress tolerant genotypes
   (d) it should be of fundamental interest to work out irrigation/water requirement and suggest irrigation strategies to minimize irrigation requirement. The study should also take into consideration the available water resource and water quality with minimum stress on underground water sources.
   (e) conservation tillage practices with zero tillage may be standardized particularly useful for areas having drought situations in order to conserve soil moisture and minimize irrigation requirement.
3.  An exercise may be undertaken to map location-wise suitability of growing different mandated oilseed crops depending on the prevailing agroclimates and market demand/access.
4.  Soil health mapping should be done for all areas suitable for oilseed crops, and suggest cropping systems along with cultural practices in order to arrest or reverse the declining trend of productivity observed at present.
5.  For soil health evaluation it is necessary that the methodologies for soil physical, biological and chemical properties, particularly the former two, be standardized first. This will necessitate discussion with ICAR institutes like IISS, CRIDA, etc. for uniform techniques as well as the approach towards soil health evaluation .
6. Steps should be undertaken to explore the value addition of different oils and their derivatives. Instead of competing with major crops like mustard and groundnut, value addition in respect of minor oilseed crops should be explored in consultation with the concerned  industries.
7. Efforts should be made to work out cropping system(s) location-wise involving the suitable oilseed crops for the areas with the aim to achieve higher harvest index.
8. Attention may also be given for Integrated Farming System research with allied farming activities  to ensure higher and sustainable return to the farming communities. 
9. It is a welcome approach to implement or advance our knowledge on AKMU. It is suggested inthis respect to get in touch with BCKV (attention: Pro-VC) who has developed an effective protocol, which has earned international recognition of late.



Prospects of biotechnology in rural Bengal

HSSen
Former Director, Central Research Institute for Jute & Allied Fibres, WB (ICAR, DARE, GoI)
Present address: 2/74 Naktala, Kolkata 700 047
Blog: hssen-coastalmanagement.blogspot.com  


1.       Introduction

In relation to poverty, the paper acknowledges that around 70% of the poor in India live in rural areas, mainly in areas weakly integrated into mainstream economic, political and social infrastructures, and over 70% of these rely mainly on agriculture, more than half being primarily agricultural labourers. Poverty has important structural dimensions – of age, gender and caste. The use of biotechnology in rural areas should come handy if properly planned through a holistic approach for employment generation, alternative income generation, poverty alleviation, food security, nutrition, ecological balance, etc. fostering sustainable development.

2.       Objectives

The Department of Biotechnology is the apex body at the State level to govern and formulate the policies for biotechnology research and its applications. Their objectives encompassing all spheres of application are as follows. 

·        To conserve, map and sustainably use bioresources
·        To spread general awareness for the optimum utilization of biotechnology in the different sectors
·        To optimally focus resources for R&D in biotechnology
·        To encourage and facilitate introduction of biotechnology at the grass-root level to strengthen the economy of the state
____________________________________________________________
Key Note Lecture presented during the UGC sponsored National Seminar at the School of Biological Sciences, Uluberia College, West Bengal on 17 January, 2014
·       To encourage rural biotechnological activities for the promotion of village level industries in the state
·        To facilitate energy security and self-sustainability through promotion of biofuels
·        To support employment generating schemes in the field of biotechnology
·      To create centers of excellence as high quality support services to biotech industries
·     To serve as catalyst for the creation of infrastructure for biotech industries, e.g., biotechnology parks
·     To develop competent human resources at different levels in the field of biotechnology
·     To promote the field of bioinformatics which draws support from information technology
·     To suitably address highly pertinent issues like intellectual property rights (IPR) protection, biosafety and bioethics
·     To coordinate and consolidate efforts by the various departments and government undertakings having potential in the area of biotechnology
·     To create congenial environment of biotech industry through process simplification in the clearance of the commercial biotechnology projects
·     To attract private investment for perceptible growth in biotechnological industries
·     To facilitate the flow of venture capital funds and bank credit to biotech companies
·     To extend fiscal incentives and concessions to biotechnology industry
·     To provide an appropriate institutional framework to achieve the above objectives

2.1 The aim at grass root level in rural sector

It should be emphasized that the strengths of West Bengal lie in its highly successful agriculture sector. It also has untapped unique resources in the mangroves unlike any other country in the country. Focusing on these strengths, a biotechnology vision statement for West Bengal may be prepared with focus on rural sector, which will further enhance and organize the existing strengths and also strengthen the weaker sections of the society.

2.1.1 General focus

·     Awareness of biotechnology in the rural sector for the upliftment of the weaker sections of society and to incorporate modern technologies in rural society
·     Developing biotechnology programmes for participation of women in the rural sector
·     Developing biotechnology programmes involving SC/ST/OBC and other minorities
·        Developing of large scale manufacture of bio-fertilizers, bio-pesticide, food processing and packaging at the rural sites

2.1.2 Specific target areas

·        Major initiative to prepare an inventory and mapping of the bioresources within the state
·        To identify specific biosphere zones and maintain ecological balance and conservation of biodiversity
·        Natural and unique reserves in the mangroves, forests, marine life, fresh water resources may be highlighted and further developed using biotechnology for maximal benefit
·        Product & process development: Specialized technologies for enhancing sericulture and improving silk and tussar quality, as well as other vegetable fibres from cotton, jute, ramie, flax (linen),, etc.; value addition to various agricultural & allied  produces using biotechnological interventions, primarily for income generation, without affecting the ecological balance
·        Employment generation for young folks belonging to different literacy classes through small & medium scale entrepreneurs in order to ensure food security coupled with nutritional enrichment and thereby alleviate poverty level in the rural sector
·        Bioremediation of polluted systems



3.           Different application areas

3.1        Agriculture

With nearly 72 percent of the population living in the rural areas, agriculture is the predominant occupation in the State. The index number of agricultural area, production and productivity during 2007-08 with 1981-82 as the base year was 116, 252 and 218, respectively. The total reporting area of the State is 86.84 lakh ha, of which 52.96 lakh ha is the Net Sown Area (61 percent of the total reporting area). The Gross Cropped Area is 97.52 lakh ha with a cropping intensity of 184 percent. Agriculture in the State is small farmer centric with 90 percent of the cultivators being small and marginal farmers. Small and marginal farming communities hold 84% of the State’s agricultural lands. Marginal operational holding (less than 1 ha) accounts for 88.8 percent of the total operational holdings as against 69.8 percent at all India level. Cropping pattern in the  State is dominated by food crops which account for about 78 percent of the area under principal crops. Rice is cultivated in 58.48 lakh hectares (production of 161.48 lakh MT) followed by cereals (all combined) in 63.49 lakh hectares and oilseeds in 7.14 lakh hectares, jute in 6.09 lakh hectares, and potato in 3.67 lakh hectares. The  State is second largest producer of potato after Uttar Pradesh and one of the highest producers of vegetables in the country. Traditionally, West Bengal has been the highest producer of jute. The  State also accounts for 25 percent of tea production in the country, next only to Assam. Against the ultimate irrigation potential of 67.43 lakh hectares, the gross irrigation potential created through major, medium and minor irrigation in the  State till the end of March 2009 was 55.01 lakh hectares. The percentage utilization of potential created is 81.73 percent in major and medium irrigation structures and 81.64 percent in minor irrigation.

The State has immense potential for development in horticulture sector both through horizontal (area expansion) and vertical integration (productivity improvement). With the implementation of National Horticulture Mission, the  State Government contemplates doubling the production under horticulture crops by the year 2011. It may be mentioned that McKinsey, in its vision document for West Bengal, has said that the State should aspire to be ‘the food bowl of India’. The potential for cultivation of horticulture crops such as banana, mango, pineapple, etc, tea plantations and floriculture amongst other crops is estimated at Rs.385.89 crore. The area coverage under fruits increased marginally by 3.80 percent during 2007-08 over the preceding year and production increased by 4.78 percent. The area under vegetables increased marginally to 9.12 lakh hectares in 2007-08 from 9.04 lakh hectares in 2006-07. Area under flowers increased by 5.55% in 2007-08 over 2006-07 and production of loose flowers increased by about 11 percent during 2007-08 over 2006-07. Production of cut flowers, however, increased by 52 percent during the same period. The production of major fruits like, mango, banana, papaya in the State has been increasing steadily over the last few years, however pineapple production has declined. Among the vegetables production, tomato, cabbage, brinjal, cucurbits, lady’s finger are increasing.

In West Bengal, the diverse agro-climatic and physiographic conditions in the plains and hilly zone offer scope for cultivation of a variety of high value medicinal and aromatic plants. The total area under medicinal plants is estimated to be around 550 ha. However, the crop wise area coverage details are not available. Keeping in view the agro-climate and the demand from herbal-based industry in the State, the Medicinal Plant Board, West Bengal has identified 37 medicinal and aromatic plant species for commercial promotion in the State.

Agricultural biotechnology is a collection of scientific techniques used to improve plants, animals and microorganisms. Based on an understanding of DNA, scientists have developed solutions to increase agricultural productivity. Starting from the ability to identify genes that may confer advantages on certain crops, and the ability to work with such characteristics very precisely, biotechnology enhances breeders’ ability to make improvements in crops and livestock. Biotechnology enables improvements that are not possible with traditional crossing of related species alone. Thus the biotechnological programmes in agriculture centres around (a) tissue culture application in order to capitalize upon the totipotency of cells; (b) culture of plant cells for the production of desirable and beneficial compounds; (c) the use of DNA vectors to overcome barriers of sexual union; (d) Production of biofertilizer for the increase of efficiency of high production; and (e) production of substances against the natural calamities including the attack of insects.

·        Transgenic of cereal crops like rice, Brassica, chickpea, potato, tomato, other  vegetables, Large scale seed production. Development of hybrid seeds, nutritionally enhanced vegetables (more protein content, higher lysine content) with higher yields.
·        Development of edible vaccines in plants and fruits such as banana.
·        Improving Cotton, Jute/ Other Vegetable crops  and Tea cultivation
·        Planting of trees of economic importance which will grow easily in West Bengal’s climatic and soil conditions but which may not be growing on a mass scale at present due to lack of technology or incentives.
·        Development of Agro-Forestry plantation (bamboo, teak, eucalyptus, pine etc.) to replace denude forests and to increase economic value by inter cropping.
·        Development of horticulture plants according to economic importance.
·        Enhancement of floriculture using tissue culture, micro-propagation and macropropagation.
·        Regional hardening facilities to provide benefit of tissue culture facilities at the grass roots level.
·        Agriculture in the Himalayan and sub-Himalayan regions including cereals like barley, sorghum, millet, etc.
·        Medicinal and aromatic plants in high altitudes and plains.
·        Establishment of gene-banks, germplasam for maintenance and propagation of superior quality crops and plants of special value.

3.2        Biofertilizer and Biopesticides

Biofertilizer: The fertilizers are nitrogen containing materials which help the crop plant in higher yield. The industrial production of these fertilizers in different industry is based on energy source, the cost of which goes higher and higher day by day and becomes out of the reach of majority of cultivators.  This is the first phase for the search of alternative source. From the study of leguminous crops, it has been deduced that some microbes are capable of fixing atmospheric nitrogen and the necessity for nitrogen for leguminous  crops is fulfilled. Thus the attention on microbes for artificial manures came seriously to the mind of technologists. It has been observed that the microbes can fix nitrogen which produces energy 25 30% less than normally done in chemical process. Moreover, the pollution problem and hazardous situation experienced by the use of chemical fertilizer may be overcome by the use of microbes. Thus the beneficial effect for the use of microbes as fertilizer is twofold - increased crop productivity and no damage to land and no problem of pollution. The use of microbes as fertilizer (known as biofertilizer) came in the field of agriculture and its different development aspects have changed the pattern of the world. Biofertilizer may be defined as biologically active materials used for the nutrient input for the benefit of the plant. The material may be produced through the microbial inoculation and its synthesis of complex organic compounds in the medium which again taken up by plants. Biofertilizers or the microbial inoculants may include Rhizobium sp. (Symbiotic nitrogen fixing microbe), Azotobacter sp. (asymbiotic free nitrogen fixing microbes), and cyanobacteria and Azolla. There are some species of phosphate solubilising bacteria and mycorrhizon forming fungus which take part in the production of biofertilizer.

Green manuring: This type of farming practice and the cultivation of leguminous plants is done in the field to achieve the benefit of nitrogen fixation done by microbes (Rhizobium) associated with leguminous roots. The leguminous crops are Crotalaria juncea, Cassia mimosoides, Sesbania rostrata, Vigna radiata (annual crop). The leguminous crops can accumulate 80 kg., N/ha. The fix nitrogen leaves a fair .amount of nitrogen in the cultivated field which benefits the subsequent crops.

·        Development of biofertilizers such as blue green algae to enhance soil fertility and decrease dependence on chemical fertilizers.
·        Identification of indigenous micro-flora for the development of bacterial consortium useful as biofertilizers, biopesticides.
·        Development of bio-pesticides and bio-control agents against specific indigenous targets in rural areas in the plans and mountainous agricultural lands.

3.3        Animal Biotechnology

·       To develop/apply methods for enhancing milk yields in cattle.
·       To develop better strains of livestock species using known or new methods of biotechnology (Transgenic cattle).
·       Use biotechnology for developing diagnosis and vaccines for major live stock disease such as foot and mouth disease, rabies, haemorrhage, septicaemia, anthrax, etc.
·       Use of transgenic animals as bio –factories for the production of economically viable nutraceuticals and pharmaceuticals.
·       Establishment of cell lines and sperm banking facilities for maintenance and propagation of superior quality livestock.
·       Use of animals as living models for the study of human disease and evaluation of pharmaceuticals.


3.4        Fisheries

·      Develop better methods for pisci-culture to cultivate commercially viable fish such as catla, rohu, mugur, etc.
·      Scientific methods of cultivation of fresh water and sea water Prawn culture farms for higher yields and better quality, especially useful for exports.
·      Diagnostics for bacterial and viral diseases affecting local edible fishes and prawns.

3.5        Bioprospecting and bioresource mapping

·      Developing of a database documenting economically and ecologically important sports such as the Sundarbans region (mangrove), Himalayan and sub-Himalayan regions, plains of Purulia, Birbhum, Bankura and Midnapore.
·      Identification of novel biologically important natural compounds from these unique bioreserves to be used for development of drugs, vaccines, therapeutics, biofertlizers and biocontrol agents.
·      Inventory of ethno-botanical flora and fauna of different areas of West Bengal.
·      Developing agro-forestry database and prediction of natural disasters using remote sensing methods.
·      Developments of genetic markers for plant and animal breeding programmes.

3.6        Environmental protection and ecosphere management

·     Bio-remediation and waste recycling in specific location by new microbial consortia. Some examples:

Biodegradation
                                 i.        Use of microbes viz,, detoxification by mineralizing pollutants to CO2, H2O & inorganic salts
                                ii.        Reduction/ removal of hazardous waste/ removal of nitrogenous & phosphorus compounds, heavy metals, etc.
                               iii.        Reclamation and purification of waste water for re-use
                              iv.        Soil & land treatment: In situ & Ex situ methods viz., bioaugmentation and biostimulation
                               v.        Microbial biosensors: Light emitting bacteria in contact with specific pollutant, a US experience on detection of polyhalogenerated aromatic hydrocarbons
                              vi.        Phyto-remediation: Plants, microbes, and combination of both   

·        Development of biofertilizers and bio-sensors for pollution control.
·        Biotechnological interventions for pollution and waste management for specific eco-systems.
·        Development of efficient waste disposal strategies using biotechnological methods.

3.7        Alternative energy resources

·        Identification and development of crops for bioengineering , bio-fuels and bioenergy.
·        Use of extremophiles as a source for bio-energy.



3.8        Biomass Development

·        Use of lingo-cellulose material for development of economically viable animal feed.
·        Conversion of waste materials for the development of biomass.
·        Cultivation of Spirulina as a high value low cost nutrient for rural and tribal areas.
·        Fish feed formulation and development using cheap and locally available material is with the help of biotechnological intervention.
·        Process improvement: Development of novel enzymes active at high temperatures
·        Product innovation: Development of products with less impact on environment viz., biopesticides
·        GM crops: Recombinant DNA technology viz., Golden rice
·        Elite production & multiplication 
·        Biodiversity conservation & gene pool utilization for novel products

3.9       Few other specific biotechnological solutions

·        Reduce more than 30 % phosphate excretion in pigs and chicken by using phytase in feed
·        Indigo production: Use of genetically modified bacterium containing right enzymes 

4   Status of progress and future suggestions
As per 12th plan recommendations programmes were continued for socio-economic upliftment of target population by sanctioning the projects with the recommendation of Task Force and Biotechnology Based Programme Promotion Committee (BPPC) in different areas of India. R&D institutions, universities, colleges and NGOs were supported in sanctioning and implementation of these projects. More than 25,000 farmers have been benefited through various projects on biotechnological programmes. Few major projects were supported in an integrated manner utilizing the bio-resources available as ‘Biovillage’.
4.1 Future suggestions: value addition to agricultural & allied    field produces
The dwindling growth of agriculture and allied sectors has been a major concern keeping in view of continued decrease of its contribution to the country’s overall GDP. The evidence strongly suggest need for increasing productivity at a rate seemingly very difficult to attain with the help of improved practices at hand. It is, therefore, imperative in this context to exploit value-addition of all agricultural commodities.
Indian agriculture enjoyed the privilege of being the largest industry in India, both in terms of contribution to nation’s GDP as well as manpower involvement, in not-so-distant past; but the indifferent and decrepit outlook towards agriculture as supplier of means for living instead of an effective mean of livelihood is pegging it back and presently, GDP-contribution wise, agriculture has been pushed to 2nd spot after services sector. It requires therefore a systematic approach on value-addition which could revamp and redeem the argi-economy scenario of the country through large scale rural entrepreneurial development in value-added agriculture.

The indispensability of small agricultural cooperatives in the form of SHGs towards holistic socio-economic development is a well-established fact around which a plan proposed by the author revolves. This is basically a SHG mediated farm-to-fork policy in which each step is facilitated by some public or private agencies. As has been mentioned earlier, there are copious SHGs across the country under aegis of NABARD, ICAR (Krishi Vigyan Kendras, especially), and NGOs which are either active or dormant for want of fund. All these dormant groups and selected active groups can be mobilized in the said plan. Apart from these, more SHGs are to be formed, whenever and wherever necessary, by these agencies towards broad basing of the model.


4.2 Conclusion


The author strongly believes that the future of rural Bengal, which is primarily agriculture based, lies in its prospect for value addition to the produces, and ecology friendly biotechnological interventions remain as the path breaking means on which a systematic master plan needs to be prepared. Further, development of rural industries, i.e. both agro-based and non-farm industries have an important role in development of the sector. Around 80% of Small and Medium (SMEs) industries fall under Rural Industries segment in the State. Thus, the biotechnological interventions will not only boost the economy of the farmers through higher return but also is possibly the largest means of employment generation in the rural sector.