Consumption of Genetically Modified Foods
Roberts Tag |
IEEE Tech. and Society: ESEM paper, Allenby, 2000 |
Reconstructing Earth, Allenby, 2005 |
Environmental Science & Technology: ESEM Manifesto, Allenby, 2007 |
Theory and Practice of Sustainable Engineering, Allenby, 2011 |
Techno-Human Condition, Allenby & Sarewitz, 2011 |
1. Targeted Intervention |
Interventions should be taken by consumers where necessary (p. 58) |
Interventions should be taken by consumers where necessary |
Interventions should be taken by consumers where necessary |
Interventions should be taken by consumers where necessary (p. 60) |
Clients ought to chose between consuming the GMO foods or not |
2. Evaluate Technological Fix |
Consumption of genetically Modified foods should be encouraged |
Consumption of genetically Modified foods should be encouraged |
Consumption of genetically Modified foods should be encouraged |
Consumption of genetically Modified foods should be encouraged |
The safety of GMO foods should be evaluated |
3. Real World Boundaries |
Boundaries around initiatives of ESEM should depict actual linkages and couplings through time instead of ideological simplicity or disciplinary |
The systems involved are defined by the way in which the problems are stated |
One should become aware of the boundaries |
One should become aware of the set boundaries and be alert from avoid failure. |
Predictions should be questioned. |
4. Multi dimensional dialogue |
Projects and programs at ESEM table are not just scientific and technical in nature but have powerful economic, cultural and political dimensions |
The importance of the ESEM programs and projects should be well integrated in the ESEM approaches |
Macro ethical and value implications should be inherent in all the activities of ESEM |
Worldview and macro ethical implications should be given priority |
Productive conflicts should be nourished and accepted. |
5. Techno-Social Differentiation |
Unnecessary Conflicts around ESEM programs and projects should be minimized. |
To change behavior, ESEM projects can combine both scientific and engineering efforts and issues. |
Sustainable engineers should respect differences between technical and social engineering and understand them. |
There should be no confusion between social efficiency and economic efficiency. |
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6. Transparent Governance |
Governance models raised by ESEM Initiatives should be transparent, democratic and accountable. |
Transparency and consensus are required through transparent, open and democratic governance |
Pluralistic decision making and accountable governance should be applied |
Anthropogenic earth conditions need transparent, accountable and democratic governance. |
Pluralism is better than expertise. |
7. Multicultural Dialogue |
All inclusive dialogue. should be encouraged among all stakeholders to achieve social legitimacy and public acceptance |
Dialog and Multiculturalism (p. 158) |
Productive conflicts should be nourished and accepted. |
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8. Part of the Problem |
Instead of being exogenous towards a system, the earth systems engineer sees himself or herself to be an integral part of the system. |
The system engineer should be quick in response and be flexible towards changes in dynamics and the system instead of being an outsider. |
Designers and actors are part of the system and should be responsible for its flaws |
Sustainable engineers are part of the problems of the system |
The human itself is part of the increasing changes shaped by technology |
9. Systems and Artifacts |
Artifacts should be designed in themselves as ESEM arguments instead of traditional engineering activities. |
People should learn to manage and engineer complex systems and not just artifacts. |
Embrace principled and rigorous muddle instead of seeking for ultimately dysfunctional and false simplicity. |
The human element is responsible for the creation of complex earth and technological systems. |
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10. Continuous Learning |
Continual learning at the institutional and persona levels must be included in the process. |
ESEM Processes should include continual learning, both institutional and personal |
Continuous learning should be ensured |
Ensure continuous learning |
Ensure continuous learning |
11. Long Term Investment |
Adequate resources must be availed to ensure understanding of the relevant responses |
Adequate resources should be available to support all programs |
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12. Quantitative metrics |
Suitable quantitative metrics should be established and possible problematic system responses should be predicted. |
Quantitative metrics through which progress can be tracked should be established. |
Metrics to ascertain if the system is moving well should be established in order to achieve desired outcomes. |
There is easy measurement of performance and failure from feedbacks are clear. |
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13. No explicit control |
Unlike well known and simple systems the unpredictable and dense systems cannot be explicitly or centrally be controlled. |
Unlike well known and simple systems the unpredictable and dense systems cannot be explicitly or centrally be controlled. |
Unlike well known and simple systems the unpredictable and dense systems cannot be explicitly or centrally be controlled. |
No one knows how to take interventions |
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14.Expect emergence |
In complex systems, high levels of system organization, emergent characteristics and scale up should be given room for emergent characteristics and the inevitable discontinuities. |
Focus should be placed on option spaces. |
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15. Incremental and Reversible |
Instead of engineering changes being irreversible and fundamental, they should be whenever possible be reversible and incremental. |
In ESEM systems, design, policy and engineering initiatives should be reversible and incremental instead of being irreversible and fundamental. |
In ESEM systems, design, policy and engineering initiatives should be reversible and incremental instead of being irreversible and fundamental. |
In ESEM systems, design, policy and engineering initiatives should be reversible and incremental instead of being irreversible and fundamental. |
Scenarios should be played with and focus placed on option spaces. |
16. Resilient not Redundant |
Support of evolution resilience instead of redundancy in the system should be a major goal in earth systems engineering |
ESEM should attempt at fostering resilience and not redundancy. |
Resiliency should be aimed at in designing rather than redundancy |
Resiliency should be aimed at in designing rather than redundancy |
Focus on option spaces |