Currently showing only Sustainability Resources
Page 4 of 5

The need to respect nature and its limits challenges society and conservation science

Publication date: 31/05/2016

The need to mitigate human impacts on species and natural systems has made conservation science a major multidisciplinary discipline. Society and conservation science have tried unsuccessfully to resolve this need within the growth paradigm. We show that its resolution increasingly demands profound shifts in societal values. The aim of this paper is to identify the nature of these necessary shifts and to explore how they define future paths for conservation science.

Increasing human population interacts with local and global environments to deplete biodiversity and resources humans depend on, thus challenging societal values centered on growth and relying on technology to mitigate environmental stress. Although the need to address the environmental crisis, central to conservation science, generated greener versions of the growth paradigm, we need fundamental shifts in values that ensure transition from a growth-centered society to one acknowledging biophysical limits and centered on human well-being and biodiversity conservation. We discuss the role conservation science can play in this transformation, which poses ethical challenges and obstacles.

The authors analyze how conservation and economics can achieve better consonance, the extent to which technology should be part of the solution, and difficulties the “new conservation science” has generated. An expanded ambition for conservation science should reconcile day-to-day action within the current context with uncompromising, explicit advocacy for radical transitions in core attitudes and processes that govern our interactions with the biosphere. A widening of its focus to understand better the interconnectedness between human well-being and acknowledgment of the limits of an ecologically functional and diverse planet will need to integrate ecological and social sciences better. Although ecology can highlight limits to growth and consequences of ignoring them, social sciences are necessary to diagnose societal mechanisms at work, how to correct them, and potential drivers of social change.

Resource type: Web page URL

Organic farmers are not anti-science but genetic engineers often are

Publication date: 24/05/2016

At one of the public brainstorming sessions for the New York Organic Action Plan, an organic farmer made an impassioned plea for support for “independent science” and told us that with 8.5 billion mouths to feed by 2050, we will need genetic engineering to prevent starvation.

I would like to examine these words carefully to decipher what they mean, how those words are used by this farmer and by others, and suggest how the movement for locally grown organic food in this country should respond.

What is the meaning of ‘independent science’? As co-chair of the Policy Committee for the Northeast Organic Farming Association of New York (NOFA-NY), I have been an active participant in the coalition that is campaigning to pass GMO labeling legislation in NY State. In this capacity, I have spoken at public meetings, to the press and on radio interviews. A question that I have heard from proponents of biotechnology is “why do you organic farmers oppose science, like the climate deniers?”

The first time I heard this, I was startled and felt defensive. Had I ever opposed science?  I searched back through things I had written and reviewed all the policy resolutions the members of NOFA-NY had passed over the years. I found a few places where I criticized reductionist science and defended “indigenous knowledge” (that is things like composting and crop rotations that people who practice a craft know and pass on to their children that has not been proven by research at a university). But nowhere could I find any statement opposing science.

Resource type: article: Web Page

Opinion: The complex nature of GMOs calls for a new conversation

Publication date: 07/10/2015

What are the conditions under which GMOs might work more effectively? Can they be compatible with the needs of farmers, eaters and their communities, not only with the aims of corporations and biotech scientists?

We can start by broadening the conversation around human health to include social science and natural science perspectives, and encompassing the ripple effects of technologies packaged with GMOs. we can open the floor to engaged citizens and laborers across the food system. We also need better regulatory oversight. We can bring GM research and development into the public sphere.

A nonreductionist evaluation of GMOs can push us toward thinking about effects at multiple scales and time spans. Such an evaluation can get us to think deeply about who benefits from technologies, who controls their availability and access, and who makes such decisions. We get to think about the entanglements of politics, the media and public interest in shaping scientific validity and “consensus.”

In short, we are invited to think socially and ecologically — indeed agroecologically — about the utility and value of engineered seeds. “If GMOs can survive such scrutiny and emerge as a beneficial tool, ” writes the author “I’m certainly not anti-GMO”.

Resource type: Web page URL

Seeing GMOs from a systems perspective: the need for comparative cartographies of agri/cultures for sustainability assessment

Publication date: 20/08/2015

Over the past twenty years, agricultural biotechnologies have generated chronically unresolved political controversies. The standard tool of risk assessment has proven to be highly limited in its ability to address the panoply of concerns that exist about these hybrid techno/organisms. It has also failed to account for both the conceptual and material networks of relations agricultural biotechnologies require, create and/or perform.

This paper takes as a starting point that agricultural biotechnologies cannot be usefully assessed as isolated technological entities but need to be evaluated within the context of the broader socio-ecological system that they embody and engender.

The paper then explores, compares and contrasts some of the methodological tools available for advancing this systems-based perspective. The article concludes by outlining a new synthesis approach of comparative cartographies of agri/cultures generated through multi-sited ethnographic case-studies, which is proposed as a way to generate system maps and enable the comparison of genetically modified (GM) food with both conventional and alternative agri-food networks for sustainability assessment.

The paper aims to make a unique theoretical and methodological contribution by advancing a systems-based approach to conceptualising and assessing genetically modified organisms (GMOs) and proposing a synthesised methodology for mapping networks of relations across different agri/cultures.

Link goes to full text and .pdf options.

Resource type: Web page URL

Are we ready for back-to-nature crop breeding?

Publication date: 16/12/2014

Sustainable agriculture in response to increasing demands for food depends on development of high-yielding crops with high nutritional value that require minimal intervention during growth. To date, the focus has been on changing plants by introducing genes that impart new properties, which the plants and their ancestors never possessed.

By contrast, we suggest another potentially beneficial and perhaps less controversial strategy that modern plant biotechnology may adopt.

This approach, which broadens earlier approaches to reverse breeding, aims to furnish crops with lost properties that their ancestors once possessed in order to tolerate adverse environmental conditions. What molecular techniques are available for implementing such rewilding? Are the strategies legally, socially, economically, and ethically feasible?

These are the questions addressed in this review.

Resource type: article: Web Page

Who’s afraid of GM food?

Publication date: 01/08/2014

In 2014 Royal London Asset Management produced this short report which aimed to be “a myth-buster for sustainable investors”.

It noted, as an asset manager with a specialism in Sustainable Investing we are sometimes asked what our position is on Genetically Modified or Transgenic organisms. Here, we critically examine the credibility of the arguments and defences for using genetically modified crops as a tool to get more out of less, and in a less harmful way.

The 15 page report looks at questions of yield, nutrition, environmental impact, the ‘naturalness of genetically modified food, food system pressures corporate control, ownership and power hierarchies, examines the pros and cons of genetically engineered crops against each of these and notes both problems and potential.

Resource type: Adobe Acrobat (.pdf)

SynBio politics: bringing synthetic biology into debate

Publication date: 18/02/2014

Synthetic biology (SynBio) raises a lot of interest in its potential applications and a lot of questions about risk, ownership and society’s relationship with nature.

In scientific circles, the process of opinion making around SynBio in full swing. However, as this report argues, this process also calls for engagement from society. Synthetic biology offers potential for novel drugs and vaccines, as well as for ‘greener’ chemicals and biofuels.

Nonetheless, this field also brings with it various challenges, ranging from regulatory issues of biosafety, biosecurity and intellectual property rights to potential environmental and socioeconomic risks and related ethical questions. It is thus essential to establish an open dialogue between stakeholders, including the public, concerning the technology’s potential benefits and risks and to explore possibilities for ‘collaborative shaping’ of the field.

This report published by the Dutch Rathenau Instituut summarises the Meeting of Young Minds, a 2011 meeting of ‘politicians of the future’ – representing Dutch Political outh Organizations, organised by the Rathenau Instituut and focused on the issue of SynBio.  Althoug,h originally published as a contribution to the Dutch debate, it also has relevance for the discussion in Europe and internationally.

Resource type: Adobe Acrobat (.pdf)

Late lessons from early warnings: science, precaution, innovation (vol 2)

Publication date: 22/01/2013

The 2013 Late Lessons From Early Warnings report is the second of its type produced by the European Environment Agency (EEA) in collaboration with a broad range of external authors and peer reviewers.

The case studies across both volumes of Late Lessons From Early Warnings cover a diverse range of chemical and technological innovations, and highlight a number of systemic problems.

The ‘Late Lessons Project’ illustrates how damaging and costly the misuse or neglect of the precautionary principle can be, using case studies and a synthesis of the lessons to be learned and applied to maximising innovations whilst minimising harms.

Resource type: Adobe Acrobat (.pdf)

Biotechnology as seen by Quakers: moral vision, ethical assessment and action

Publication date: 30/06/2011
Biotechnology brings up differing perspectives on science, cosmology, and on life itself and the human role in Creation (or the world, depending on one’s theology). These are important discussions for members of a faith community, but do we need to seek unity concerning them?
One of Quakerism’s characteristics is an avoidance of creedal rigidity in favour of openness to inquiry and lived experience. The resulting diversity is a source of spiritual nourishment that most Friends cherish. This is especially the case for the large philosophical and theological questions that biotechnology raises. And while some Friends may feel that certain issues have such significant implications that these become the heart of the matter for them, the wellspring for practical concern needn’t be the same for everyone. There is still room for consensus about specific issues and action to address them.
Three basic questions emerge on this issue:
  • What spiritual groundings does biotechnology, in its many applications, touch on, and do Friends need to be in agreement about these matters?
  • How should Friends go about assessing biotechnology’s ethical and moral implications?
  • If moved to take action, what could Friends do about biotechnology’s direction and management?
This 2011 fact sheet has been prepared by the Canadian Institute for Environmental Law and Policy (CIELAP) for Quaker Institute for the Future (QIF) has been developed to help Quakers and others in faith traditions to reflect and act on concerns about biotechnology.

 

Resource type: Adobe Acrobat (.pdf)

Ethical evaluation of new technologies: genetically modified organisms and plants

Publication date: 01/08/2008

One of the major lessons of the 20th century is a warning that explicit ethical evaluation of the implications of a new technology with significant potential to cause widespread social or physical harm should precede its widespread use. The leading example, not least because of the dire circumstances that prompted even worried experts to urge its development, is nuclear technology. However, several other industrial technologies had sufficient environmental or other consequences to increase demands that new technologies receive ethical as well as technical and economic scrutiny before they enter widespread use.

Genetic modification (GM) technology has inspired considerable concern since its initial development in the late 1970s and early 1980s. Genetic modification is based on the ability to produce recombinant DNA (rDNA) by “splicing” genes that trigger emergence of some desired trait (such as ability to produce particular nutrient or increased resistance to a particular disease) present in the DNA of one organism into the DNA of another to produce a new DNA sequence that will yield a plant or organism of the latter type that also has the desired trait. Since its introduction genetic modification has been touted as a major – even revolutionary – advance over earlier forms of creating new plant varieties through hybridization because it allows much more specific selection of traits. It is also seen as revolutionary because it is a “deeper” technology: hybridization works at the level of whole organisms; GM operates at the more basic level of individual genes.

Like the other forms of “biotechnology” – tissue culturing, cloning, adding synthetic ingredients or inputs to the cultivation, husbandry, or processing of feeds and foods, GM technology inspires all the main forms of ethical concern that arise with new ways of handling physical objects: about impacts on the natural environment, about impacts on human health and physical well-being, about distributional consequences, about processes of decision-making regarding whether and if so when to use the technology.

Philosophers, ethicists, and others have expressed four types of objections to GM technology. Objections of the first type are what ethicists call “intrinsic objections” and involve claims that developing and using some technology is inherently wrong regardless of the results of doing so. The others are “extrinsic objections” involving claims that the technology (or action) is not inherently wrong but can be wrong if it causes or contributes to morally unacceptable situations or outcomes.

Resource type: Adobe Acrobat (.pdf)