Siddique Bappee
Oniket Research Group
Bangladesh holds a noteworthy position in the global history of genetic engineering. In 2013, it became the first developing country in the world to commercially release a genetically engineered food crop, the insect-resistant Bt brinjal. This crop was developed through a collaboration between Bangladeshi public-sector scientists, Cornell University, and USAID. This significant milestone remains underappreciated in national discourse, underscoring the caliber of scientific talent in the country and the transformative potential of genetic engineering research if it receives the sustained institutional and financial support it merits.
A Foundation Being Built
Bangladesh has spent the past two decades constructing the institutional scaffolding for a serious biotechnology sector. The National Biotechnology Policy, established in 2012, and the National Agricultural Policy of 2018 both formally recognise the role of modern genetic techniques in national development. Universities including Dhaka University, East West University, and Shahjalal University of Science and Technology have established dedicated departments of genetic engineering and biotechnology, producing a growing cohort of trained graduates each year. The Bangladesh Jute Research Institute achieved international recognition when it successfully sequenced the jute genome, an accomplishment of both scientific and commercial significance for a country where jute remains a foundational agricultural crop.
Research institutions such as the Bangladesh Agricultural Research Institute, the Bangladesh Fisheries Research Institute, and the Bangladesh Institute of Nuclear Agriculture have active programs that apply biotechnological tools to crop improvement, aquaculture, and pest resistance. The establishment of a Medical Biotechnology Centre has been undertaken to extend these capabilities into pharmaceutical and health applications. Initiatives such as iGEM participation and the Network of Young Biotechnologists Bangladesh, driven by the students themselves, are fostering the development of the next generation of researchers. These initiatives cultivate researchers who possess a global perspective and a collaborative spirit.
The Future
The most pressing immediate application of genetic engineering in Bangladesh is in the agricultural sector. A nation that is particularly susceptible to the impacts of climate change, as evidenced by rising salinity resulting from sea level rise, intensifying floods, and increasingly erratic monsoon patterns, has a profound stake in the development of crop varieties that are engineered for resilience. CRISPR-Cas9 gene editing, a process that allows for precise modifications without the introduction of foreign DNA, has emerged as a promising avenue for developing flood-tolerant rice, salinity-resistant vegetables, and high-yield varieties. These varieties have the potential to contribute to food security in conditions that conventional breeding techniques may not be able to be addressed promptly. Researchers in Bangladesh have initiated the exploration of these tools, and the regulatory framework for genome-edited organisms, which is currently unresolved, must be developed expeditiously to enable the dissemination of this research to farmers.
In medicine, the future of genetic engineering research holds promises for locally relevant pharmaceutical production, diagnostics for endemic diseases, and eventually personalised medicine applications. The country’s large and growing pharmaceutical industry provides a natural commercial partner for research institutions willing to translate laboratory findings into production. Bangladesh’s significant disease burden from conditions including dengue, tuberculosis, and drug-resistant infections creates both the moral imperative and the market logic for domestically driven biomedical research.
Barriers That Must Be Overcome
Notwithstanding these foundational elements, the sector is confronted with challenges that an honest assessment must acknowledge. Brain drains can be defined as a structural loss, as the country’s most talented genetics graduates disproportionately pursue postgraduate training abroad and do not return. Research funding from government sources remains modest relative to the scale of ambition required. Industry-academia partnerships, which transform research into applied innovation and commercial value, are underdeveloped. Moreover, public comprehension of genetic engineering is often influenced by misinformation and ideological resistance, which have, at times, impeded the adoption of scientifically validated technologies.
The Path Forward
The future of genetic engineering research in Bangladesh will be determined by decisions made in the next few years. Increased public investment in research infrastructure, competitive grant mechanisms that reward scientific excellence, a modern biosafety regulatory framework that is evidence-based rather than precautionary by default, and deliberate policies to retain and attract talented researchers are the instruments through which potential becomes achievement. Bangladesh has already demonstrated that it can lead. The question now is whether it has the institutional will to sustain that leadership and build upon it with the ambition and rigour that science demands.
