Emerging Technologies: What Have We Learned About Governing the Risks?

Similar documents
Design principles for global commons: natural resources and emerging technologies

ORNL/TM-2009/114 GENERIC LESSONS LEARNED ABOUT SOCIETAL RESPONSES TO EMERGING TECHNOLOGIES PERCEIVED AS INVOLVING RISKS

Science Impact Enhancing the Use of USGS Science

Societal Issues arising from Synthetic Biology: What Lies Ahead. A Department of Energy & Alfred P. Sloan Foundation Workshop Report

17.181/ SUSTAINABLE DEVELOPMENT Theory and Policy

GUIDE TO SPEAKING POINTS:

Tren ds i n Nuclear Security Assessm ents

Disasters and the continental shelf: Exploring new frontiers of risk

Welcome to the Next Industrial Revolution

UKRI Artificial Intelligence Centres for Doctoral Training: Priority Area Descriptions

Communication and participation:

Participatory backcasting: A tool for involving stakeholders in long term local development planning

Refining foresight approaches to crisis, inertia and transition

Latin-American non-state actor dialogue on Article 6 of the Paris Agreement

Correlations to NATIONAL SOCIAL STUDIES STANDARDS

Usability vs. user experience

ty of solutions to the societal needs and problems. This perspective links the knowledge-base of the society with its problem-suite and may help

Comments of Shared Spectrum Company

Reduction of complexity by means of indicators

Supporting Consumers Facilitating Behaviour that Reduces Risky Behaviours. Professor Lynn J. Frewer. Food and Society Group

STATE REGULATORS PERSPECTIVES ON LTS IMPLEMENTATION AND TECHNOLOGIES Results of an ITRC State Regulators Survey. Thomas A Schneider

Extending Safety Culture through Improved Communication: Lessons from Russian Norwegian Regulatory Cooperation

Communicating Risk at Waste Site Cleanups. Social, Psychological, and Economic Considerations and a Paradigm for Moving Forward

Emerging biotechnologies. Nuffield Council on Bioethics Response from The Royal Academy of Engineering

Mining, Minerals and Sustainable Development Project PROJECT BULLETIN. Special Issue

Dublin City Schools Science Graded Course of Study Environmental Science

The Role of Co-production in RCOFS: Toward Usable Climate Services

Patent portfolio audits. Cost-effective IP management. Vashe Kanesarajah Manager, Europe & Asia Clarivate Analytics

Concept of Periodic Synthesis Report

Happiness, Wellbeing and the Role of Government: the case of the UK

DOE-NE Perspective on Proliferation Risk and Nuclear Fuel Cycles

Evaluation. n Scale and. Specificc Talent Aptitude: Music, Dance, Psychomotor, Creativity, Leadership. to identification. criterion or available to

Evidence-based Management of R&D Projects Intending Market Deployment

Food Product Standards to Support Exports

Technology Readiness Assessment of Department of Energy Waste Processing Facilities: When is a Technology Ready for Insertion?

Risk governance and CCS: methodological approaches for integrating experts, stakeholders and the public

Robin Mansell and Brian S. Collins Introduction: Trust and crime in information societies

INTERNATIONAL SOCIO- TECHNICAL CHALLENGES TO IMPLEMENTING GD PROJECT OVERVIEW

Human Factors Points to Consider for IDE Devices

Social marketing - insight driven approaches to vaccination confidence building for all

Introduction to Foresight

The role of evidence in forest-related policy making: Power, politics and learning in sciencepolicy

Maldives: Strengthening Capacity for Operations Management

Conflicts of Interest in Gambling and Video Gaming Product Reviews

Kohta Juraku Department of Nuclear Engineering and Management

Improving Education, Training and Communication with the Public on Ionizing Radiation

Radiological Protection: Old Questions Needing New Answers

Governance of Nanomaterials as Laboratory for RRI

Getting the most out of smart homes & buildings: Measuring Value. Dr Martin Ganley Director, Smart Homes and Buildings BRE. Part of the BRE Trust

WORKSHOP ON BASIC RESEARCH: POLICY RELEVANT DEFINITIONS AND MEASUREMENT ISSUES PAPER. Holmenkollen Park Hotel, Oslo, Norway October 2001

K.1 Structure and Function: The natural world includes living and non-living things.

Effective Data Protection Governance An Approach to Information Governance in an Information Age. OECD Expert Consultation Boston October 2016

Office for Nuclear Regulation

SKILLS FORESIGHT. Systematic involving a welldesigned approach based on a number of phases and using appropriate tools

HUMAN FACTORS FOR TECHNICAL COMMUNICATORS By Marlana Coe (Wiley Technical Communication Library) Lecture 6

Scenario Development Process

Emerging and Readily Available Technologies and National Security: A Framework for Addressing Ethical, Legal, and Societal Issues

Technology Assessment. Global challenges and European prospects. Ortwin Renn June, 18, 2012 Copenhagen

Linking Knowledge with Action

Characterizing long term technological change

Revista Economică 68:5 (2016) PUBLIC PERCEPTION OF THE ROLE OF SCIENCE AND INNOVATION IN SOLVING THE PROBLEMS EXPERIENCED BY CONTEMPORARY ECONOMY

Patterns allow us to see relationships and develop generalizations.

The Implications of 21st Century Transitions for Government Policy

Department of Energy s Legacy Management Program Development

Masao Mukaidono Emeritus Professor, Meiji University

Prentice Hall. Environmental Science: Your World, Your Turn (Withgott) 2011 (SE: , TE: ) Grades 11-12

Communication and social aspects in D&WM program

TRANSFORMATIVE (INNOVATION) POLICY

Social sciences, user engagement and co-production of climate services

Table of Contents. Two Cultures of Ecology...0 RESPONSES TO THIS ARTICLE...3

Stakeholder Involvement. Nuclear Issues. INSAG and IAEA perspective BASIS FOR KNOWN PUBLIC CONCERN. INSAG-20 Stakeholder Involvement in

Intro to Systems Theory and STAMP John Thomas and Nancy Leveson. All rights reserved.

CRS Report for Congress

in the New Zealand Curriculum

Your degree program, institution and (expected) graduation date: PhD in Public Policy, Harvard University, June 2009 (awarded)

SOCIAL ACCEPTANCE FOR ENERGY EFFICIENT SOLUTIONS IN RENOVATION PROCESSES

Key elements of meaningful human control

AIEDAM Special Issue: Sketching, and Pen-based Design Interaction Edited by: Maria C. Yang and Levent Burak Kara

Project Libra. Optimizing Individual and Public Interests in Information Technology

National Policy Implications

Report. RRI National Workshop Germany. Karlsruhe, Feb 17, 2017

Standards for High-Quality Research and Analysis C O R P O R A T I O N

MEDIA ARTS FOR DANCE. Georgia Standards of Excellence (GSE) HIGH SCHOOL Grade 9 Grade 12

Implementing Quality Systems

Tuning-CALOHEE Assessment Frameworks for the Subject Area of CIVIL ENGINEERING The Tuning-CALOHEE Assessment Frameworks for Civil Engineering offers

WMD Events and Other Catastrophes

Contribution of civil society to industrial safety and safety culture: lessons from the ECCSSafe European research project

Introduction. Data Source

How machines learn in healthcare

Towards a Global Systems Science

Governing energy transitions towards a low-carbon society: the role of reflexive regulation and strategic experiments

Fairfield Public Schools Science Curriculum. Draft Forensics I: Never Gone Without a Trace Forensics II: You Can t Fake the Prints.

Exploring elements for a transformative biodiversity agenda post-2020

General Education Rubrics

Our position. ICDPPC declaration on ethics and data protection in artificial intelligence

OECD WORK ON ARTIFICIAL INTELLIGENCE

The impacts and added value of research infrastructures Identification, Estimation, Determinants

IN USE: CABLE AGING MANAGEMENT

A transition perspective on the Convention on Biological Diversity: Towards transformation?

Horizon Scanning. Why & how to launch it in Lithuania? Prof. Dr. Rafael Popper

Transcription:

Emerging Technologies: What Have We Learned About Governing the Risks? Paul C. Stern, National Research Council, USA Norwegian University of Science and Technology Presentation to Science and Technology Innovation Program Woodrow Wilson Center for Scholars Washington, DC December 15, 2011 1

The Emerging Technologies Project Started with NRC committee; completed at ORNL Objective: identify ways to address risks of emerging technologies, drawing on Experience with technologies now in place (nuclear power, radioactive waste management, DNA manipulation, etc.) Early experience with currently emerging technologies (nano-, bio-, and info- ) Deduction from fundamental knowledge of social processes (risk perception and assessment; commons management, international institutions and networks; science communication and utilization) 2

Some Insights from the Nuclear Power Case Scientists tend to focus on distinguishing large vs. small risks; the public, on zero vs. non-zero risks Scientists tend to focus on the probability of a hazard; the public on the consequences Public concerns are strongly influenced by trust in risk management institutions Public concerns are related to whether or not the consequences are known from experience

Some Insights from Radioactive Waste Management Public perceptions matter in technology acceptance, regardless of whether technical experts think the judgments are wrong Public judgments are related to whether a possible consequence is dreaded, especially if the effects are potentially unbounded Population segments differ in risk judgments (white, male, affluent people see radioactive waste as less risky than other people do) Public participation can promote confidence in institutions and technologies

Some Insights from DNA Manipulation Risks should be analyzed and assessed not only as scientists view them but also as society is likely to view them It is easier to discuss risk issues before positions become hardened In many cases, risk assessment needs to be case-specific because consequences can depend on subtle differences in substance composition or use

Some Insights from Research on Risk Perception, Assessment, and Management Qualitative aspects of hazards are important (e.g., dread, controllability); there are multiple metrics of risk Different parties have different value priorities and even different understandings of a risk situation Usefulness of analytic-deliberative processes that include the spectrum of interested and affected parties (NRC, Understanding Risk, 1996)

Some additional, generic lessons Technology acceptance is fundamentally a social process Social impediments are more likely to arise if risk communication comes late Building trust through public participation can increase the likelihood of acceptance Boundary organizations that link producers and users of information about risk are important Information about benefits often developed more aggressively than about risks, leading to governance challenges later Non-governmental policy networks can perform important risk governance functions Reference: P.C. Stern, T.J. Wilbanks, S. Cozzens, and E.A. Rosa, Generic lessons learned about societal responses to emerging technologies perceived as involving risks. ORNL/TM-2009/114. Oak Ridge National Laboratory, 2009. 7

Some Implications for Emerging Technologies Deliberation is especially important for problem formulation and if risks are not yet identified and cannot therefore be quantified, BUT In that situation, it may be hard to get meaningful input from the spectrum of interested and affected parties Established regulatory bodies may not be appropriately tasked because hazards are different or applications are global, SO Research on commons management may be relevant

Commons Governance/Management Elinor Ostrom, Nobel laureate in economics The problem: limiting damage to resource bases by private appropriation of depletable resources accessible to all What she studied: local resource bases (e.g., forests, fisheries, water sources) institutions created by resource users Conclusions: Eight design principles for managing commons

Identifying Governance Principles for Risks of Emerging Technologies Can the Ostrom governance principles be applied outside the domain of the kinds of commons she studied? Can they be extended to: Global natural resources Risks of technology New paper addresses these questions Reference: P.C. Stern, Design principles for global commons: natural resources and emerging technologies. International Journal of the Commons, 2011, 5:213-232. 10

Characteristics of Local Resource Commons: Why the Theory Might not Generalize Geographic extent: tens to thousands of km2 Number of appropriators: tens to thousands Commons are degraded intentionally Appropriators share an interest in preserving the commons Appropriators share common institutional and cultural context Resources regenerate on a human time scale, so learning is a feasible management strategy 11

How Global Resources are Different Geog scale Local Resouces Global Resources # of users Thousands Billions Salience Dirstribution of interests, power Resouce use is conscious purpose Benefits and costs internal among users Resource use is a byproduct of intent Significant externalities; interest and power differentials Cultures, institutions Homogeneous Heterogeneous Feasibility of learning Good Limited Regeneration time Less than a generation More than a generation Ease of understanding resource Feasible without scientific training Scientifically complex, limited predictive ability Resource dynamics Stable rules Changing rules Learning transfer across places Possible Difficult 12

Applicability of Ostrom s 8 Design Principles Define boundaries for appropriators and resource: Not applicable Define rules congruent with ecological conditions: Difficult to identify the conditions, enforce global rules Allow most users to participate: Size of group, need to understand science make this difficult Hold monitors accountable: Challenges include need for global monitoring, uncertainty about what to monitor, and diversity of those monitors should account to Apply graduated sanctions: Sanctioning authority is limited Low-cost conflict resolution: Disconnects between parties and generations makes difficult External authorities permit local control: Need to facilitate local control and learning; also limit externalization Nested layers of organization: same as above 13

How Emerging Technologies are Different from Resource Commons Some are integrated global systems, but some are global only in distribution Irreversible processes are endemic Scientific complexity, uncertainty, and ignorance are rife Strong conflicts of values between developers and affected parties Strong conflicts of interest, too Nature of the risks incompletely known (including an expectation of surprises) 14

Implications of the Differences Need for science is critical Need for anticipating risks (not only managing them) is also critical Strong interests imply need to insulate science from policy (Red Book model) Interests and value differences make that infeasible, calling for analytic deliberation 15

A Revised Set of Design Principles 1. Invest in science to understand resource/technology and its interactions with users and those affected 2. Establish independent monitoring, accountable to the interested and affected parties 3. Ensure meaningful participation of parties in framing questions, interpreting science, and developing rules 4. Integrate scientific analysis and broadly based deliberation 5. Higher-level actors should facilitate participation of lower-level actors 6. Engage and connect a variety of institutional forms, global to local, in making rules, monitoring, and sanctioning 7. Plan for instituional adaptation and change (iterative risk management) 16

Additional Principles Suggested by Global Commons Problems and Emerging Technologies Invest in science Integrate scientific analysis with broadly based deliberation Plan for institutionalized adaptation and change (iterative risk management) Engage a variety of institutional forms (not only levels of organization) Source: Dietz, Ostrom, and Stern, The struggle to govern the commons, Science, 302:1907-1912. 17

Risk Governance Challenges and Synthetic Biology Identifying the risks before hazards are experienced Integrating the spectrum of interested and affected parties with cutting-edge science and unclear risks Coping with surprises (e.g., unexpected hazards) Developing rules and governance mechanisms that can adapt as risks become clearer Developing institutional forms that can meet the above challenges