Our aim was to assess potential activity in organisms that could be exposed to genome editing in uncontrolled environments. We developed three scenarios, using irrigation, fumigation and fertilization as delivery methods, based on outdoor uses in agriculture, namely pest and disease control. Using publicly available software , off-target effects were predicted in multiple species commonly found in the agroecosystem, including humans (16 of 38 (42 %) sampled). Metabolic enrichment analysis (gene IDs), by connecting off-target genes into a physiological network, predicted effects on the development of nervous and respiratory systems. Our findings emphasize the importance of exercising caution when considering the use of this genome editing in uncontrolled environments. Unintended genomic alterations may occur in unintended organisms, underscoring the significance of understanding potential hazards and implementing safety measures to protect human health and the environment.
Abstracts, Papers &
Resources:
Plant & Animal Breeding
We’ve scanned the web to bring together a library of interesting, thought-provoking articles, blogs, reports and academic papers that explore the issue of genetic engineering in food and farming from broader and deeper perspectives. Browse for inspiration or search by theme.
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Gene editing in animals: What does the public want to know and what information do stakeholder organizations provide?
Simulation of dual-purpose chicken breeding programs implementing gene editing
The paper considered the possibility of using gene editing to accelerate progress towards dual purpose chickens, thus eliminating the need for male culling. Our simulation demonstrated a general increase in genetic gain when genomic selection is used together with GE. The overall benefit of GE erased after some generations because the large-effect alleles became fixed. Hence, GE could be beneficial only when alleles with reasonable effect sizes are segregating and detectable. When the consumer preference and the price difference between the genome-edited chicken and the other chickens were to be considered, the findings from this study might not be sufficient to recommend the use of GE in breeding programs for quantitative traits.”
Genetic modification can improve crop yields — but stop overselling it
Gene Editing: the Ethical Questions
This blog employs a food ethics lens to delve into some of the ethical issues surrounding gene-editing, assessing intended and unintended consequences. Issues discussed include patents, herbicide-tolerant traits, gene drives and food safety.
Identifying sustainability assessment parameters for genetically engineered agrifoods
This Opinion article argues that to achieve a more sustainable agrifood production that relies on genetic engineering, governance systems related to new agrifood biotechnologies should incorporate a broader array of environmental, health, ethical, and societal factors to ensure their sustainability in the long-term. To facilitate this process, we propose a set of parameters to help evaluate the sustainability of agrifoods that rely on genetic engineering. We then discuss major challenges and opportunities for formalizing sustainability parameters in US governance policy and decision-making systems. Overall, this work contributes to further developing a more comprehensive assessment framework that aims to minimize potential risks and maximize potential benefits of agrifood biotechnology while also fostering sustainability.
Unintended Genomic Outcomes in Current and Next Generation GM Techniques: A Systematic Review
Here, we systematically review the scientific literature for studies that have investigated unintended genomic alterations in plants modified by the following GM techniques: Agrobacterium tumefaciens-mediated gene transfer, biolistic bombardment, and CRISPR-Cas9 delivered via Agrobacterium-mediated gene transfer (DNA-based), biolistic bombardment (DNA-based) and as ribonucleoprotein complexes (RNPs). The results of our literature review show that the impact of such techniques in host genomes varies from small nucleotide polymorphisms to large genomic variation, such as segmental duplication, chromosome truncation, trisomy, chromothripsis, breakage fusion bridge, including large rearrangements of DNA vector-backbone sequences. We have also reviewed the type of analytical method applied to investigate the genomic alterations and found that only five articles used whole genome sequencing in their analysis methods. In addition, larger structural variations detected in some studies would not be possible without long-read sequencing strategies, which shows a potential underestimation of such effects in the literature. As new technologies are constantly evolving, a more thorough examination of prospective analytical methods should be conducted in the future.
Genetic engineering, nature conservation and biological diversity: boundaries of design
Germany’s Federal Agency for Nature Conservation (BfN) presents its position on an international discussion surrounding research approaches to the genetic modification of wild organisms. Conclusions include:
- Due to the complexity of biological diversity – from the molecular to the ecosystem level – the effects of genetically engineering wild organisms cannot be sufficiently assessed with the methods currently available.
- The fundamental and necessary discussions on the compatibility of genetically engineering wild organisms with the requirements and the objectives laid down in section 1 of the German Federal Nature Conservation Act must be conducted.
- Global biodiversity loss is progressing with tangible consequences. We need suitable instruments to stop it. Nevertheless, wild organisms must not be genetically modified solely based on the assumption of a potential benefit to nature conservation and with uncertainty about possible harm.
- Along with its diversity, beauty and utility, nature’s uniqueness is a protected good in nature conservation that is firmly embedded in society and in legislation. Its intrinsic value imposes limits on the extent to which humans can intervene in nature to protect it. I
Imagined futures for livestock gene editing: Public engagement in the Netherlands
While gene editing is commonly represented as offering unbounded possibilities and societal benefit, it remains unclear how to characterise public views and the process through which responses are developed. Rather than simply being about individual attitudes, beliefs or preferences, we explicate an interpretative approach that seeks to understand how people make sense of the technology in the form of shared cultural idioms and stories. Based on five anticipatory focus group discussions with Dutch publics, we found the prevalence of five narratives shaping public talk, namely, technological fix, the market rules, in pursuit of perfection, finding the golden mean and governance through care. We explore the implications of these findings for governance and reflect on the virtues of sophrosyne and phronesis as offering ways to reconfigure the practice and politics of gene editing.
How to Do What Is Right, Not What Is Easy: Requirements for Assessment of Genome-Edited and Genetically Modified Organisms under Ethical Guidelines
An ethical assessment is a complex, dynamic and comprehensive process that requires both ethical expertise and practical knowledge. An ethical assessment of a genetically modified organism (GMO, including genome edited organisms) must follow accepted and transparent methods and be based in relevant considerations. In addition, the Ethical guidelines must include a broad and adequate range of values, so that no groups, stakeholders, agents or areas are left out.
We recommend that ethical assessments of GMOs (including genome-edited organisms) are performed by professionals with competence and practical knowledge of ethical judgements, and that users, non-users, stakeholders and interest groups are actively involved. In addition, we recommend that the Ethical guidelines include a wide range of ethical values.