This document discusses technology assessment and its evolution. It began as a way for experts to evaluate new technologies but now involves stakeholders and the public. Technology assessment aims to anticipate impacts, identify winners and losers, consider alternatives, and resist locking in to a single technological trajectory. It examines costs, benefits, and risks while balancing economic, social and environmental factors. Uncertainty is also a major consideration.
1. Strategic Technology
Assessment
Assessing the Impact of Technology:
Where is Technology Taking Us?
Where are We Taking Technology?
2. Up to Now We Have Discussed the
Internal Dynamic of Technology:
Technology as a Driver of Economic and
Social Change
Response of Technology to External Forces
But Can Humans Guide Technological
Change?
3. Origins of Technology
Assessment for Policy Makers:
First Disenchantment with „Better Things for
Technological Progress in Better Living
1960s-70s after 1950s Through Chemistry‟
Optimism IS REPLACED BY
Thalidomide N
Taconite Tailings in Lake
Superior
I
Diethyl Stilbestrol M
Urban Renewal B
Airport Noise Y!
Tuskegee Experiment [Not in My Back Yard!]
4. Technology Assessment is an Effort to
Anticipate Impacts
Project Diffusion and Advance of Technology
Assess Overall Costs and Benefits
Identify Winners, Losers, and Risk Bearers
“Anticipatory Ethics”
Technology Assessment (at least in government) has Evolved
into a Multi-Disciplinary Process that Involves Stakeholders
and the Public in Addition to Expert Analysts
Resist Technological Trajectory: Consider
Alternatives Before You are Locked In
(This Allows Precaution at an Earlier Stage of the Decision-
Making Process and Makes „Train Wrecks‟ Less Likely)
5. Technology Assessment can be Applied
To Any New Product or Process
More Usually, to a Major Anticipated Advance
Nanotechnology – Environmental and Health Risks
Neurotechnology – e.g., Truth Detection
Gene Therapy – Apply to Germ Cells?
Synthetic Biology – e.g., Synthesized Polio Virus
Public Health – e.g., Cervical Cancer Vaccine
Xenotransplants – Risk of new human diseases?
6. The Asilomar Conference (1975)
on Genetic Engineering:
The Classic Historical Precedent
Scientists Meet to Assess the Hazards of New
Technology:
Could an an Engineered Virus Escape from the Lab
to Wreak Havoc?
A Genetically Engineered Organism would be Self-
Replicating:
Recommendations:
Ensure that Engineered Organisms Cannot Survive in the
Wild
Stop Progress for Key Experiments to Make Sure this is
Possible
7. Asilomar was a Closed
Meeting of Scientists
„Boundary Work‟ to Establish this Issue as the
Domain of Experts:
Public and Congress, Stay Out! We‟ll Handle This!
Rolling Stone Published the Main Journalistic Account
But the Issues Addressed Affect Everyone and Involve
Value Judgments
Technology Assessment Today is not Just an Analytic
Process. It is a Social and Political Undertaking that
Involves the Public in Addition to Experts.
8. Classic Debate: Technological
Optimists vs. Pessimists
Malthus: Geometric Population Growth Inevitably
Outstrips Linear Growth in Agricultural Production
9. So Far, Increased Productivity through
Improved Technology has Allowed
Production and Jobs to Increase Faster than
Population
e.g., Uncompetitive Small Farmers Become
Truck Drivers to Transport Increased
Agricultural Production, or get Industrial Jobs
as the Economy Grows.
But Technological Progress Generates Losers
(„Buggy Whip Makers‟), Some of Whom Cannot
Adapt – a Big Equity Issue for Policy Makers
10. The Debate Continues: Can This
Go On Forever?
Will Machines Only Make the Rich
Richer? Will They Put Us All Out of
Work Some Day?
12. Who Stands to Gain?
Users, Manufacturers and Beneficiaries of the New
Technology
Their Employees, Suppliers, Maintenance and Repair People
Inventors, Suppliers and Users of Successor
Technologies that Build on this Success
Their Grocers, Barbers, and Tax Collectors
The Region in which These People Live – Property
Owners and Workers
13. Who Stands to Lose?
Who Stands to Bear the Risk?
The Analogous Stakeholders in
the Replaced Technology --
Especially Those Who Cannot
Respond to the Change and
Protect their Interests
14. Employment: The Most Prominent
Economic and Social Impact
Will the Economic Expansion Induced by the
Innovation Absorb the Unemployment Created by
the New Technology? [Up to Now, It Always Has]
But the Losers May Well Have to Move and Retrain
(for which they may be too old or under-educated)
And the Losing Regions Must Attract or Develop
New Industry – e.g., US „Rust Belt‟ of 1980s, and All
„Emerging Markets‟ in Developing Countries
15. “Orphan” Technology:
A Need But No Market
Customers Poor or Powerless
Adoption Blocked by Policy
Regulations Block Adoption
Subsidies to Competing Technology
Class Exercise will Address the
Launching of an Orphan „Invention‟ to
which you have Title
16. An Aside: The “Orphan Drug Act” is
a Special Incentive to Drug
Companies (Fewer Regulatory
Hurdles, Longer Patent Duration) to
Encourage them to Develop
Therapies for Rare Diseases
17. Social, Cultural and Ethical
Acceptability
Does Anyone Find Basic
Philosophical, Ethical or Cultural
Objections to the Technology or its
Function? [Recall Stem Cells, Genetically
Modified Foods]
Is there a „Yuk‟ Factor?
These Involve Value Judgments on
which People will Disagree
18. Environmental and Public
Health Impacts
(An Issue on whose Importance
We all can Agree, though we may have
Different Tolerance for Risk)
Pollution and Waste
Ecological Impact
Potential for Accident or Misuse
Effect on Climate or Other Global Commons
Worker Health and Safety
A Major Issue for Nanotechnology, Since
Immune Systems Didn’t Evolve to
Defend Against Nanoparticles
19. “Industrial Ecology”
Research, Design and
Development
An Engineering and Raw Materials
Policy Approach Manufacturing
Intended to Minimize Use
Environmental Impact Maintenance and
over the Life Cycle of Repair
the Product Disposal and
Recycling
Take-Back Regulations Obsolescence and
Force Attention to this Close-Down or
Life-Cycle ‘Footprint’ Decommissioning
20. Biotechnology Presents
Special Equity Risks
Are We in Danger of Creating
a Permanent Division between
Techno-Haves and Have-Nots?
(e.g., by Enhancements of
Brains or Bodies)
21. Cost-Benefit Analysis:
A Basic Tool in Organizing the Analysis
of the Impact of any Intervention by
Distinguishing between Costs, Benefits and
Risks, and then
Asking: On Balance,
Will the World Be Better Off?
(Economic and Social Analysis)
Will the Investor be Better Off?
(Financial Analysis)
Who will Gain and Who will Lose?
Who will Bear the Risks?
This Framework is More Important than
the Actual Calculation.
22. Begin by Defining the Intervention
and its Area of Impact
A Project?
A Policy?
What‟s Inside and What‟s
Outside?
23. Then List its
Costs and Benefits
Financial Benefits and Costs are Those Felt
Directly by the Investor, In and Out of Pocket
Economic (also Called Social) Costs and
Benefits are Felt by the Society at
Large, Including Externalities – Measured by
Gain or loss in GNP or Other Measure of
Public Welfare
In Principle, Risks and Uncertainties can be
Treated by Applying Percentage Probabilities
24. Cost/ Benefit vs. Precaution
Precaution Addresses Risks, Not Benefits:
How Much am I Willing to Pay (or How
Much Benefit am I Willing to Forego) to
Avoid Risk?
Cost/Benefit Analysis Could be Recast as
Precaution if Risks and Benefits were
Expressed as a Function of the Chance
that the Feared Danger is Real
[this is a longer discussion]
25. In Practice, Cost/Benefit Does
Not Always Include
Who Bears the Costs, Who Gets the Benefits
Risks and Who Will Bear them
Externalities (Although there are Ways to
Quantify Some of these, such as Hedonic
Pricing)
Long-Term and Irreversible Effects
These are Essential to Sustainability and
Require Special Treatment
26. Key Concepts of Cost-Benefit
Compare an Honest Projection of the Situation
With and Without the Project
With: Don‟t be Too Optimistic
Without: Don‟t be Too Pessimistic
NOT: With Project vs. Do Nothing
(Discretion is Often Abused to Ensure a Desired
Outcome)
Costs and Benefits that Cannot be Quantified
Should Nevertheless be Included in the Analysis
Sunk Costs are Sunk
27. Approach: Consider the Introduction of a
Technology (or of a Policy) as a Project = A
Bounded Set of Activities
This May be Anticipated to Have Costs and
Benefits on a Time Schedule
These Refer to Overall Costs and Benefits. Later
We Think about Who Gains and Loses
Externalities: Costs and Benefits Outside the
“Project”
Benefits: Training, Technology Spin-
Off, Employment Creation, Community Benefits
Costs: Congestion, Environment, Social Disruption,
28. The Discount Rate: A Tool for
Comparing the Impact of Events
that Occur at Different Times
29. Discounting Principles -- Important
Benefits Today (Whether Financial or Non-
Financial) are More Desirable than Benefits later
Costs Today are Less Desirable than Costs Later
Discount Rate: The „Interest‟ Rate Used for this
Comparison
Higher Discount Rate Means Less Concern for
Future Costs and Benefits.
(This Applies to Non-Monetizable Benefits as well, since the money can be
invested so as to realize more benefits later.)
Any Positive Discount Rate Results in Neglect of
Future Generations
30. Definitions
Rate of Return: The Interest Rate at which Discounted
Costs = Discounted Benefits: i.e., the Interest Rate
Equivalent to what you‟d get from a Bank
Benefit/Cost Ratio = Discounted Benefits/Discounted
Costs
Net Present Value = Discounted Value Today of Future
(Benefits – Costs) at a Given Interest Rate.
[Used to Compare Investments of Different Sizes]
31. “The Copenhagen Consensus” Shows
Both the Strengths and Limitations
of Cost/Benefit Analysis
Asks What Interventions in Global Problems
Have the Highest Cost/Benefit
Winners Favor Existing Technology with Rapid
Payoff:
Nutritional Interventions
Bednets for Malaria
Climate Change Gets Short Shrift Because of
Uncertainty and Long Time Horizon, Despite its
Potentially Catastrophic Dimensions
32. „Neuroeconomics‟ and the
Hyperbolic Time Function
Experiments Show that People Don‟t Discount the
Future the Way Economists Think they Should
They Use a Hyperbolic Function Instead of an
Exponential
Demand Immediate Short-Term Gratification
Short Payback on Conservation Investments
But Also Value the Very Long-Term
The Public Does Show Concern about Global
Warming, Extinctions, and the Harm they will do to our Great-
Grandchildren
34. RISK: Exposure to the Possibility
of Unfortunate Consequences
Nothing is Risk-Free!
Almost Any Decision is a Choice Between Risks
In a Risk, The Danger is Known -- But to
Whom?
A Statistical Association -- Roll Dice
Equity: Who Bears Extra Risk?
Especially Vulnerable Populations
People or Countries w/o Clout or Capacity
Priority: Can Risks Be Compared?
35. Risk Assessment vs.
Risk Management
Risk Assessment: An „Objective‟
Assessment of the Magnitude of a
Risk and of Who Will Bear it
Risk Management: the Management
and Policy Response
36. Philosophies of Risk
Management
Utility Based (Overall Cost/Benefit)
Rights-Based (They Can‟t Do That to
Me Without my OK)
Technology Based (Use the Best
Technology and Go Ahead and Do It)
37. Approaches to Risk
Management
Prevent the Cause?
Reduce Exposure?
Mitigate the Risk?
Change Public Perceptions or
Expectations?
Compensate Those Who Bear the
Risk?
38. Risk Assessment Assumes that
Probabilities of Damage are
Known, at Least Within a
Reasonable Range. It is Based on
Empirical Analysis of the Statistical
Relationship Between Exposure and Effect
When Data are Available
Fault Analysis in Situations that Haven‟t
Happened Yet
Rasmussen Report on Nuclear Power Shows Both the
Potential and the Hazards of this Method
Risk Assessment is a Predictive Technique;
Precaution is an Attitude.
39. UNCERTAINTY:
We Don’t Know What Will Happen
Scientific Uncertainty: Scientific Basis for
Prediction is Lacking
Technological Uncertainty: We Don‟t Know
Whether a Technology Can be Developed or
Will Work
Uncertainty in Impact of Technology -- We
Don‟t Know Who Will be Helped or Hurt. It
Depends on Many Factors External to the
Technology
40. Rumsfeld Classes of Uncertainty
Things we Know
Things We Know that We Don‟t Know
Things We Don‟t Know that We Don‟t
Know
41. Technology Assessment as Now
Practiced Involves
Broad Expertise
Involvement of Stakeholders
Transparency
Respect for Local and Traditional
Knowledge
The Office of Technology Assessment was
Abolished by Congress in 1995 – a Great Loss to
the Country
42. The Environmental Impact
Statement: The Most Common
Form of Technology Assessment
Environmental Impact Assessments are
Environmentally Oriented Risk Assessments.
They are the Basic Instrument for Assessing the
Environmental Costs and Benefits of Proposed
Policies and Projects.
Too Often, Environmental Impact Assessments
Required by Law have become Sales Documents
for Projects Carried out After the Project is a
Done Deal. Consulting Firms Need the Repeat
Business.
43. The Public‟s Understanding
of Science is Limited
Noone Can Know All the Science that May Affect
Policy
When Something Affects Them, People Learn
NGOs and Epistemic Communities May be Key
Intermediaries
Many are Highly Professional and
Responsible, Others Less So
But Policy Issues Involve Values, not Just Science
44. Risk Communication
Scientists Typically Assume that the Problem
Lies in a Lack of Public Understanding, and
Seek to Overcome this through „Education‟ –
i.e., Attractively Packaged Information.
NOT THE RIGHT APPROACH
Instead, Start with What People Care About and
What They Already Know – or Think They
Know. Capture their Attention, Overcome any
Common Misconceptions Respectfully and Then
Add Information, Respecting the Range of
Values in the Population.
45. Public and Expert Attitudes
Towards Risk Often Differ
Public is Less Likely to Accept
Risk Outside their Choice or
Control
Risks that Produce Minor Benefit
Risks, However Small, of Major
Catastrophe
Dreaded Risks, esp. Nuclear
Accident, Especially When
Promised Benefits are Small
Public Attitudes May Not
Change with More Information