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Biotechnology Regulation And Uneven Acceptance Of Genetic Engineering

Context
  • The article examines why societies accept genetic engineering in human medicine and synthetic biology but resist similar interventions in agriculture.
  • Source: Societies embrace gene therapy but resist genetic change in crops, The Hindu, April 23

Biotechnology as a Transformative Field

  • Beyond AI: Biotechnology is advancing rapidly but receives less public attention than artificial intelligence.
  • Long History of Biological Change: Humans have modified plants, animals and microbes for thousands of years through breeding and domestication.
  • Modern Shift: Laboratory-based genome engineering allows faster and more precise biological modification than traditional breeding.

Genome Engineering Across Sectors

  • Three Broad Areas: Genome engineering can be understood across humans, plants and microbes.
  • Different Public Responses: Acceptance varies across sectors due to science, culture, market, politics and risk perception.
  • Germ-Line Editing: Editing sperm or egg cells to transmit genetic changes to future generations is not legally permitted in most countries.
  • Somatic Cell Editing: Editing body cells that do not pass changes to offspring is regulated and allowed in medical treatment.

Acceptance in Human Health

  • Gene Therapy Use: Somatic cell engineering is used in cases such as cancer treatment, where immune cells may be modified to attack cancer cells.
  • Risk-Benefit Logic: Public acceptance is higher when patients face severe illness and potential benefits outweigh risks.
  • Inherited Diseases: Gene therapies are demanded for conditions such as sickle-cell disease, thalassemia and potentially muscular dystrophies, Huntington’s disease and other familial disorders.
  • Main Constraints: Cost, safety, efficacy, research timelines and market forces limit wider access.

Resistance in Agriculture

  • GM Crop Use: In the U.S. and Canada, maize, soybean, cotton and canola are widely grown using genetically engineered varieties.
  • Uneven Global Acceptance: These crops are exported globally, including to regions where cultivation is restricted.
  • Major Concerns: Opposition focuses on food safety, environmental release, monoculture, loss of diversity and corporate control over seeds.
  • Author’s Distinction: Monoculture and seed-company dominance are not unique to genetic engineering and existed even with conventional high-yielding varieties.
  • Core Point: Societies accept genetic innovation quickly in some domains but slowly or not at all in closely related domains.

Synthetic Biology and Biotechnology Applications

  • Recombinant DNA Products: Insulin and several other drugs are produced through recombinant DNA technology.
  • Microbial Production: Artemisinin can be produced using engineered microbes instead of extraction from plants.
  • Biologics: Genetically engineered antibodies and proteins are used in cancer and other disease treatment.
  • Semaglutide Example: Synthetic biology enables production of long-acting versions of biological molecules used in drugs such as Ozempic and Wegovy.
  • Public Response: Opposition is limited in medical use, though cost and access remain concerns.

Regulation, Innovation and Scientific Ideas

  • Ideas and Innovation Link: Transformative innovation requires freedom to generate, test, challenge and discard ideas.
  • Risk of Suppression: Blocking scientific ideas can damage innovation, as shown by the Lysenko episode in Soviet agriculture.
  • Risk-Averse Regulation: Excessively cautious regulation permits only technologies already tested elsewhere, encouraging imitation rather than original innovation.
  • Under-Regulation Risk: Weak regulation may allow unsafe or poorly directed technological use.
  • Required Approach: Biotechnology needs rigorous but enabling regulation that balances safety with space for new ideas.

Research and Policy Direction

  • Fundamental and Applied Research: Both are necessary; weakening either limits the innovation system.
  • Computational Biology: Genome sequencing, environmental data and advanced analysis can generate new biological insights and applications.
  • Avoid Narrow Application Pressure: Demanding only immediate applications can discourage bold scientific thinking.
  • Wise Regulation: Regulation should address present risks while enabling preparedness for uncertain future challenges.

Quick Concept Box: Biotechnology and Genetic Technologies

Gene Therapy

  • Definition: Gene therapy treats or prevents disease by inserting, altering or replacing genetic material within a patient’s cells.
  • Delivery Method: Viral vectors are commonly used to deliver therapeutic genes, while non-viral delivery methods are also used.
  • CRISPR Therapy: Casgevy became the first approved CRISPR-based therapy for sickle cell disease.
  • Indian Context: India launched NexCAR19 in 2024 as its first indigenous CAR-T cell therapy for cancer treatment.
  • Key Linkage: CAR-T cell therapy is a gene-modified immunotherapy in which a patient’s T cells are engineered to attack cancer cells.

Genome Engineering

  • Definition: Genome engineering involves inserting, deleting or replacing DNA at specific locations in the genome.
  • Core Tool: CRISPR-Cas9 is a leading genome-editing tool often described as genetic scissors.
  • Prime Editing: Prime editing enables precise DNA changes without requiring double-strand DNA breaks.
  • Indian Regulation: India has eased regulatory requirements for SDN1 and SDN2 genome-edited plants when they are free from exogenous introduced DNA.
  • GMO Distinction: SDN1 and SDN2 plants are treated differently from transgenic GMOs because they do not necessarily contain foreign DNA.

Genetically Modified Crops

  • Definition: GM crops are agricultural plants whose DNA has been modified through genetic engineering.
  • Purpose: They are developed for traits such as pest resistance, herbicide tolerance, improved yield or nutritional enhancement.
  • Biofortification Link: A newer focus is biofortification, which increases vitamins or minerals within crops.
  • Indian Context: Bt cotton remains India’s only GM crop approved for commercial cultivation.
  • DMH-11 Status: Dhara Mustard Hybrid-11 has received regulatory attention for environmental release, but commercial cultivation remains legally contested.

Synthetic Biology

  • Definition: Synthetic biology redesigns organisms for useful purposes by engineering them to acquire new biological functions.
  • Application Areas: It is used in engineered microbes, synthetic cells, biofuels, sustainable chemicals and alternative protein systems.
  • Indian Policy Context: The Department of Biotechnology prepared a Foresight Paper on Synthetic Biology.
  • Policy Focus: The paper examined India’s status, trends, applications, policy needs and regulatory aspects in synthetic biology.

Recombinant DNA Technology

  • Definition: Recombinant DNA technology joins DNA molecules from different sources to create new genetic combinations.
  • Foundational Role: It is a core biotechnology tool used in medicine, agriculture and industrial biotechnology.
  • Medical Use: It is used in products such as recombinant hepatitis B vaccine and human insulin.
  • Biosimilar Link: Recombinant DNA methods are central to producing several biologics and biosimilars.
  • Indian Context: India has a strong biosimilars ecosystem supported by policies for cost-effective and safe biosimilar development.

Biologics

  • Definition: Biologics are complex medical products derived from biological sources or produced through living systems.
  • Composition: They may include proteins, nucleic acids, sugars, cells, tissues, vaccines, gene therapies and recombinant therapeutic proteins.
  • Medical Use: Biologics are important in treating cancers, autoimmune diseases and other serious conditions.
  • Biosimilars: Biosimilars are highly similar versions of approved biologics and help improve access to costly therapies.
  • National Biopharma Mission: The mission is a Department of Biotechnology-led industry-academia programme implemented by BIRAC.
  • Mission Support: It supports the development of biosimilars, monoclonal antibodies and other therapeutic proteins.

Genetic Engineering in Agriculture

  • Definition: Genetic engineering in agriculture applies genetic tools to improve crop traits.
  • Main Objectives: It aims to improve yield, reduce chemical use, improve nutrition and enhance climate resilience.
  • Climate-Smart Focus: Research increasingly focuses on crops that tolerate heat, drought, salinity and other climate stresses.
  • Indian Wheat Research: ICAR-linked research has identified heat-tolerant wheat varieties such as DBW187 and DBW222.
  • North India Relevance: Heat-tolerant wheat is important because rising temperatures affect wheat productivity in north India.

Genome Sequencing

  • Definition: Genome sequencing determines the complete or selected DNA sequence of an organism’s genome.
  • Long-Read Sequencing: Long-read sequencing helps map complex genomic regions that earlier sequencing methods could not read easily.
  • Genome India Project: The project completed whole-genome sequencing of 10,000 samples to catalogue India’s genetic diversity.
  • Population Coverage: It covers 83 diverse Indian populations and supports creation of a representative Indian reference genome.
  • Biobank Component: The project also collected 20,000 samples to establish a biobank for future genomics research.

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