M2L2: Challenges for the development of Biotech. in India
1.
Biotechnology
is an extremely cutting-edge technology. It requires knowledge, skills,
technology, capital, budget & proper training. NBDS doesn’t mention the
microscopic details of it. Furthermore, there is no indication of financial
outlay in it. Moreover, the existing financial support by the central
government to this sector to the Department of Biotechnology is also very
meagre (max 2.90% of total 49% funding in Gross expenditure on R&D).
2.
Biotechnology
requires collaborative research that spans many different fields like
agriculture, environment, stem cell, cancer, pest resistance & antibiotic
resistance, biomaterials etc. This requires specialization with deep
understanding of core subjects to cater an interdisciplinary research of this
type. Our academic institutions lack the attitude to develop the curriculum,
knowledge & the technical capacity of this type. The crude reality is they
even lack an attitude to develop a culture to promote industry relevant
research.
3.
Since
Biotechnology is an interdisciplinary research, it requires an infrastructure
built upon cluster-based approach to minimize communication gap between the lab
& the field. For e.g., the institution working on antibiotic resistance
& pest resistance should be located close to a hospital & cropland.
4.
While
NBDS focusses upon developing the potential of existing institutions to achieve
clean energy targets & processing of waste (electronic, industrial,
plastic, urban solid waste, biomedical), it fails to address the structural
challenges in India that impede the transition of knowledge into an end-use
product.
5.
The
entry 66 of Union list mentions that co-ordination and determination of
standards in institutions for higher education or research and scientific and
technical institutions, is the responsibility of the central government.
Entry 14 of State list
mentions that Agriculture, including agricultural education and research;
protection against pests and prevention of plant diseases.
The entry 25 of
Concurrent list mentions that Education, including technical education, medical
education and universities is a joint responsibility of the union & the
state government. Lack of coherence in the approach by both the state and the
union government results into lack of clarity among investors and businesses.
6.
Hence
the need of the hour, is to do a micro-planning of this strategy that covers
the issues & challenges faced by each stakeholder like academia, industry,
R&D labs, markets etc.
The transmission &
distribution of knowledge can’t be left upon market forces, whose sole purpose
if making profits. It needs government intervention to promote grassroots
innovation in social sectors like healthcare, food processing, clean energy
& other technology intensive sectors like sanitation, water, electricity,
sanitation, telecommunication, urban planning etc.
India is rapidly
urbanizing so is the problem of urban solid waste, that is taking a toll on
existing institutions to tackle it. Environmental biotechnology is an absolutely
new branch of biotechnology that addresses such environmental problems, such as
the removal of pollution, renewable energy generation or biomass production, by
exploiting biological processes. This offers us low cost, low capital-intensive
techniques that can be carried out on site. This can also be used during mining
process to reduce the immense damage that the conventional techniques do to the
environment. India has an immense opportunity to take leadership and act as a
knowledge exporter in this field.
Way forward: The government should adopt the
following steps
§ Develop infrastructure
& undergo technology upgradation in research institutions
§ Credit & CSR,
Relaxing regulations & taxes to promote R&D in Private sector
§ Develop an entrepreneurship
culture in schools & colleges through educational other kinds of support
programs.
§ Increase awareness
& better information infrastructure in public domain regarding the access
to market & raw materials
§ Developing skills set
§ Increase sources for
market capitalization & funding, venture capital etc.
§ Improve investment
climate
§ Promote best practices
in MSMEs
§ Support/promote &
facilitate technology transfer to promote the best & advanced production
techniques from developed countries in our institutions
§ Improve diffusion of
knowledge by expansion of ICT.
§ Faster clearance of
IPR.
§ Adopt cluster-based
approach for R&D among academia, industry, R&D labs, markets etc.
Considering all these issues, we need an
integrated & a coherent framework that ensures homogeneity, technology
transfer & coordination among states. Furthermore, since India is a
signatory to Cartagena protocol, adequate safeguards should be in place to
prevent these technologies falling into wrong hands. Only then it would be possible
to achieve the targets mentioned under the NBDS 2015-2020.
The cons of Biotechnology
There
is also a dark side to this technology. This technology is very new & we
haven’t compiled the data of each & every gene in a library or an
encyclopedia. Efforts are still going on means this is a very grey area. India
being a member of Cartagena protocol on Biosafety should increase transparency
& speed in biosafety clearing mechanism through GEAC (unlike wait &
watch that happened during the case of Bt Brinjal & GM Mustard (DMH-11)
wherein the government never announced if they had done a detailed
transcriptome analysis or not.)
This
technology can also be used to make Biological weapons (Bioterrorism that can
poison water supply, Anti-crop warfare that can kill all the crops,
Bio-warfare, Bio-crimes etc.) Thus, we need an institutional framework or
architecture to make sure it doesn’t slip out & create a havoc for the
society like Anthrax.
Need
of the hour: augment the capacity of existing educational & academic
institutions in terms of expert human resource to train & deliver the
knowledge to the students, create industry academia linkage, promote skill
development, promote R&D & IPR, build an infrastructure to convert
ideas registered as IP in biotechnology into marketable products etc.
Conclusion:
Biotechnology has enormous applications. However, much more need to be done to
tap the unlocked potential of this sector in promoting development &
creating jobs.
|
Bioremediation
technologies to clean up oil spills
These
techniques can be divided into two parts
in-situ
and ex-situ
When
microbes that are natural or genetically engineered are used to clean up the
site, it will be categorized as in-situ.
In
the year 2011, during Mumbai oil spills, the technique known as ‘Oil zapper’
was used. It is developed by TERI and supported by the DBT (Department of
Biotechnology, Ministry of Science and Technology, Government of India). Much as its savvy name suggests, the
Oilzapper feeds on hydrocarbon compounds present in crude oil and oily sludge
(a hazardous hydrocarbon waste generated by oil refineries) and converts them
into harmless CO2 and water.
TERI
then has developed one more oil sludge degrading consortia of microbes known
as ‘Oilivorous-S’. This contains one additional bacterial strain that makes
the former more effective against sludge and crude oil with high-sulphur
content. (Oil Zapper had five bacterial strains). This was used to clean oil
spill that happened in the year 2016 at Chennai, Ennore coast.
Ex-situ
technique involves Bio-piling
Also
referred to as Eco-piling, it is a bioremediation technology in which
excavated soils are mixed with soil amendments, the compost is then formed
into layers, and enclosed for treatment. The basic bio-pile system includes a
treatment bed, an aeration system, an irrigation/nutrient system and a
leachate collection system. Moisture, heat, nutrients, oxygen, and pH are
controlled to enhance biodegradation. An irrigation/nutrient system is buried
under the soil to pass air and nutrients through the soil. Soil piles can be
up to 20 feet high. They may be covered with plastic to control runoff,
evaporation, and volatilization, as well as to promote solar heating.
|



Comments
Post a Comment