SIREN 2015 Lecture Review: Leading and Communicating when Technology Fails Daniel Miller, Virginia Tech

Similar documents
KNOWLEDGE NOTE 5-3. Risk Communication. CLUSTER 5: Hazard and Risk Information and Decision Making. Risk Communication

How to Learn from the Experience in Japan

Robots go where workers safely cannot in Japan's nuclear power plant

This month, we observed the fourth anniversary of the Great Japan Earthquake and tsunami.

The creation of the Emergency Preparedness and Response Expert Group (EPREG) which held its second meeting last month.

The Fukushima nuclear accident

ORGANIZATIONAL DISASTERS

Nuclear Regulation: Purpose, Philosophy, Principles, Processes and Values - A View. By Mike Weightman

The Cuban Scientific Advisor's Office: Providing science advice to the government

Second explosion at Japan nuclear plant

JANSI's Activities for Self-Regulation

Six Years After Fukushima, Robots Finally Find Reactors Melted Uranium Fuel

Technical Support Organization (TSO) Roles and Responsibilities

UTILIZING RESEARCH REACTOR SIMULATORS FOR REACTOR OPERATOR TRAINING AND LICENSING ABSTRACT

ICS Security Architecture Where Worlds Collide SecureWorld September 22, 2011


38. Looking back to now from a year ahead, what will you wish you d have done now? 39. Who are you trying to please? 40. What assumptions or beliefs

Planning of Knowledge Management System for Decommissioning of Nuclear Facilities

June Phase 3 Executive Summary Pre-Project Design Review of Candu Energy Inc. Enhanced CANDU 6 Design

September Mr President

Information. Potential Civil and Scientific Applications of the CTBT Verification Technologies Page 1. Contributing to tsunami warning

Safety Culture. the core values and behaviors resulting from a collective commitment

Nuclear Safety and Security Culture Roles and Responsibilities of Individuals. Middle East Scientific Institute for Security (MESIS)

PROJECT FINAL REPORT Publishable Summary

The Nuclear Regulatory Commission s Oversight of Safety Culture

SCIENTIFIC advice and communication played a significant role in the response

I am Danius Barzdukas from the Office of Japan, Korea and Taiwan at the Department of Commerce.

THE EM LEAD LABORATORY: PROVIDING THE RESOURCES AND FRAMEWORK FOR COMPLEXWIDE ENVIRONMENTAL CLEANUP-STEWARDSHIP ACTIVITIES

The Development of the New Idea Safety Guide for Design of Instrumentation and Control Systems for Nuclear Power Plants

WMD Events and Other Catastrophes

Dr. Binod Mishra Department of Humanities & Social Sciences Indian Institute of Technology, Roorkee. Lecture 16 Negotiation Skills

Organization Outline & Present Activities of. Nuclear Decommissioning (IRID)

Radiological Protection: Old Questions Needing New Answers

ETSON: Role and activities for harmonizing safety assessment practices. Benoit De Boeck ETSON President. N2017 ETSON - Pitesti (May 2017) 1

Address by the Executive Secretary of the Preparatory Commission for the Comprehensive Nuclear-Test-Ban Treaty Organization. Mr.

Perspectives on Complex Risk Governance and Fukushima Accident

INFCIRC/57. 72/Rev.6. under. Safetyy. read in. Convention. involve. National Reports. on Nuclear 2015.

International Cooperation in Strengthening Nuclear Security Capacities within Public Company Nuclear Facilities of Serbia

Overview of the Carnegie Mellon University Robotics Institute DOE Traineeship in Environmental Management 17493

Developing a Strong Nuclear Safety Culture. Larry Weber Chief Nuclear Officer, Senior Vice President American Electric Power Cook Nuclear Plant

Nuclear Ecosystem and Safety Culture Self-Assessment at a Regulatory Body

Guide to the Requirements for Public Information and Disclosure GD-99.3

Science Impact Enhancing the Use of USGS Science

NIMS UPDATE 2017 RUPERT DENNIS, FEMA REGION IV, NIMS COORDINATOR. National Preparedness Directorate / National Integration Center.

The Advancement of Simulator Models

MORT and Organisational Failures

Masao Mukaidono Emeritus Professor, Meiji University

Engineering and Design

Safety recommendations for nuclear power source applications in outer space

Focusing Software Education on Engineering

An industrial view on Nuclear Safety Culture

In Nuclear Crisis, Crippling Mistrust By NORIMITSU ONISHI and MARTIN FACKLER

DIGITAL TRANSFORMATION IN GOVERNMENT

Introduction. Contents. Introduction 2. What does spacefaring mean?

Tom Mitchell. President and CEO Ontario Power Generation. To the Canadian Nuclear Association. February 23, 2012 Ottawa, Ontario

Chernobyl nuclear disaster 30 years on; the problem remains unfixable

Public Information and Disclosure RD/GD-99.3

Focus on Mission Success: Process Safety for the Atychiphobist

The new era of performance has begun.

Consequences of Severe Nuclear Accidents on Social Regulations in Socio-Technical Organizations

Introducing Cooperative Learning into a Fundamental Mechanical Engineering Course

Goals, progress and difficulties with regard to the development of German nuclear standards on the example of KTA 2000

LICENSING THE PALLAS-REACTOR USING THE CONCEPTUAL SAFETY DOCUMENT

Reliability Guideline: Generating Unit Operations During Complete Loss of Communications

Chernobyl: A Story From Inside a Nuclear Disaster Area From Interviews that Matter (July 24, 2013)

Hinomiyagura 2016 Team Description Paper for RoboCup 2016 Rescue Virtual Robot League

ONR Strategy 2015 to 2020

Update Implementation of IMO s e-navigation Strategy CAPT. SIMON PELLETIER

NEPIO s Role in Incorporating 3S into the Nuclear Power Programme

An Important note from the Principal Investigator Abolhassan ASTANEH-ASL on the document that follows:

North Carolina Fire and Rescue Commission. Certified Fire Investigator Board. Course Equivalency Evaluation Document

Deepening the Relationship between STI and Society

Involvement through photography

The phenomenology of environmental health risk

What We Heard Report Inspection Modernization: The Case for Change Consultation from June 1 to July 31, 2012

Reliability Guideline: Generating Unit Operations During Complete Loss of Communications

Interoperable systems that are trusted and secure

NASA s Down- To-Earth Principles Deliver Positive Strategic Outcomes

June 6 9, 2016 Alexander Glaser Princeton University. CVT Consortium for Verification Technology. Revision 2

Japanese Acceptance of Nuclear and Radiation Technologies after Fukushima Diichi Nuclear Disaster

DOWNLOAD OR READ : THE POWER OF JAPANESE CANDLESTICK CHARTS ADVANCED FILTERING TECHNIQUES FOR PDF EBOOK EPUB MOBI

White paper March UrgentLink DISASTER COMMUNICATIONS NETWORK

Introduction to the Special Section. Character and Citizenship: Towards an Emerging Strong Program? Andrea M. Maccarini *

100 Behavioral Questions You Need to Know

Glossary of Terms Black Sky Event: Blue Sky Operations: Federal Communications Commission (FCC): Grey Sky Operations:

Book Review on Chris Kraft s Flight

Risk can be identified and controlled. Therefore all industrial disasters are preventable.

CREATING RESILIENT, SUSTAINABLE COMMUNITIES: INVESTING IN CIVIL & ENVIRONMENTAL ENGINEERING EDUCATION

Sustainable Infrastructure Systems SAE 515. Organization and Governance of Large Technical Systems. September 18, 2017

CAREM25 PROJECT PROYECTO CAREM25

Weston Public Schools. Weston Public Schools TECHNOLOGY PLAN June Lee McCanne, Ed.D. Director of Technology and School Libraries

FUTURE IAEA ROLES IN SUPPORT OF SUSTAINABLE NUCLEAR ENERGY. Roberto Cirimello Argentina

CPE/CSC 580: Intelligent Agents

THE WATERTOWN ARSENAL, MASSACHUSETTS A Restoration Success Story a visit report by Lenny Siegel November, 2006

Whether in a short story or a long novel, readers want it to do three things for them:

Prospects for Nuclear Power After Fukushima

Location of Japanese Nuclear Power Plants (NPP).

Baccalaureate Program of Sustainable System Engineering Objectives and Curriculum Development

Keeping Your House in order?

15 th Annual Conference on Systems Engineering Research

Transcription:

SIREN 2015 Lecture Review: Leading and Communicating when Technology Fails Daniel Miller, Virginia Tech Sociologists and engineers call it the human factor. It s what we must depend on when all the glittering technology seems, suddenly, useless. Gene Kranz, former NASA Flight Director (2000, 12). The Seminar on Interdisciplinary Research and Education in Nuclear Emergency Response (SIREN) held its third talk on 17 March 2015 with Dr. Charles Chuck Casto presenting, Global Nuclear Leadership in the Extreme: Crisis Leadership Post- Fukushima. Hosted by Dr. Sonja Schmid of Virginia Tech in Arlington, Virginia, SIREN is part of a National Science Foundation (NSF) CAREER grant that focuses on allowing nuclear power experts to share their knowledge on nuclear emergencies. Dr. Casto has decades of nuclear system knowledge and experience with complex and hazardous sociotechnical systems. His experience and subject matter expertise covers a broad spectrum from that of an explosive ordnance disposal expert for the United States Air Force, a nuclear reactor operator and systems instructor, to a senior executive at the U.S. Nuclear Regulatory Commission (NRC). What is most distinctive about Dr. Casto s experience, and what he most effectively brings to SIREN, is that his knowledge of nuclear emergency comes not just from theory or even post event analysis, but from being a participant in the response to and recovery from a nuclear disaster. Chuck Casto was there. He was the U.S. government s technical and emergency response liaison during Japan s Fukushima Daiichi nuclear disaster. Castro set foot on site at Fukushima Daiichi just days after the tsunami had devastated the power plant system and surrounding communities. With a small American team, he set about to provide whatever assistance he could in helping his Japanese nuclear community colleagues respond to the disaster as the world watched. In the context of Dr. Casto's perspective as the senior U.S. nuclear expert what was he up against at Fukushima Daiichi? Closed System The Fukushima Daiichi nuclear power system, like all nuclear plants, was one of a closed system (Scott 2003) and supremely technical and rational world contained in concrete and steel, literally locked away behind high fences and multiple layers of security. The system s nature of operation further removed it from society s grasp since few modern technological systems are as complexly interactive and tightly coupled (Perrow 1999, 5). The complexities of safely operating and reliably maintaining a large industrial system are staggeringly compounded by the need, without fail, to control nuclear fission and protect people and the environment from radiation. Furthermore, the interactions of the system components are highly interdependent with little time gap between actions. In other words, due to this close coupling, reactor operators must continually monitor and stay ahead of the system to prevent problems and failures from rapidly escalating out of 20

control or even beyond their comprehension. Day-to-day plant operations are generally only loosely coupled with external entities such as government oversight agencies and local communities. These interactions primarily deal with inspections and reporting of compliance or non-compliance with operations, maintenance and safety standards. Before 11 March 2011, the Fukushima Daiichi power plant was just such a complex, predominately closed system isolated by protective design and the esoteric technicalities of rationalized procedure. Failed Mode System Fukushima Daiichi became unimaginably different after the earthquake and tsunami destruction, but it remained a system nonetheless. Even with massive damage it was still a system with components requiring monitoring and control. Also, in contrast to a closed organizational system, it was now suddenly more open and connected to the direct influence of outside agencies. These two areas of system functionality are where Casto brings focus. First, in its normal mode of operations, Fukushima Daiichi was operated through the use of highly structured sets of known and understood processes and procedures. The tsunami switched the Fukushima Daiichi nuclear system from operating in this normal mode to what I call a failed mode. This mode is a situation where the original system infrastructure is destroyed and the operators well-practiced rational procedures are suddenly useless; virtually nothing previously documented can be applied to the now failed and unknown system. The failed condition of the system is also invisible to the operators. At Fukushima Daiichi the tsunami had destroyed all electrical power sources, including emergency backup, that were used to power reactor monitoring and control systems and, most critically, water pumps used to cool nuclear reactor fuel Casto worked with Masao Yoshida, the Tokyo Electric Power Company (TEPCO) site superintendent at Fukushima Daiichi. Yoshida-san described the situation this way, My staff were like blindfolded pilots in the cockpit of a plane with its hydraulics and everything else shot to pieces. How were they supposed to get down safely? (Kadota 2014, 43). What the Fukushima Daiichi nuclear reactor operators did know was that to have any chance of getting down safely they had to cool the plant s reactor fuel to prevent further meltdown and catastrophic radiation release that would force abandoning the plant and the surrounding countryside. With that realization they knew that they had to rapidly begin constructing knowledge of this new failed mode system and learn how to gain some semblance of control. Second, in its normal mode of operations, the plant was only loosely coupled with the Japanese government s nuclear regulatory authorities and the public. In that normal condition, communications between TEPCO and the Japanese government and the community were generally comprised of formal inspections and reporting mechanisms. These typically would have been administrative and would have had little immediate effect on day-to-day operations of the nuclear power station. Now, as Fukushima Daiichi was transformed into a failed mode system the coupling to its societal environment 21

tightened dramatically. The system suddenly had to produce information, continuously demanded by the government, the public, and also the world nuclear community, on a system they no longer understood or controlled. Government and society moved from a loose coupling of administrative oversight to being pulled to Fukushima Daiichii in a tight coupling of operational demands for control and information. Not only did the nuclear operators face the prospect of dying if they were unable to gain understanding and control of the system, but they also had to integrate an unprecedented external demand for information on their progress to include government orders that often conflicted with their ability to successfully wrestle with the failed mode system. Response to a Failed Mode System The Fukushima Daiichi reactor operators were not indecisive in their actions. In the SIREN seminar, Casto makes it evident that effective response to disasters such as Fukushima Daiichi requires decisive implementations of what he calls "crisis leadership and crisis communications. The story of his eleven months engaged with the nuclear disaster at Fukushima Daiichi bears this out. The Japanese nuclear operators, and Casto, created emergency response actions, on the fly, and constructed extremely innovative ways to operate a complex, and tremendously dangerous sociotechnical system that had been transformed into something nearly unrecognizable and previously unimaginable. The nuclear operators not only took action to confront the immediate dangers and stabilize the system, but also created strategies and methods to communicate the results of their actions, the risks involved, hazards to the public and what the nation (and the world) was desperate to know; would their efforts to prevent total destruction of the Fukushima Daiichi power plant succeed? Casto showed how the skill and art of human leadership and a rational structure for coherent communications were key in the Fukushima Daiichi disaster response. Leadership Casto outlined a structure of varying characteristics of required leadership for crisis situations that covers the routine, extreme, and the dangerous. The routine is just that, leadership based on known procedures, exercised response activities and established formal and informal relationships among personnel. Leadership in the extreme or dangerous crisis is the stabilizing force that brings structure and coherence together more quickly. The leader, as Casto stated, must keep the big picture in view in order to effectively make sense of the situation in real time and organize activities or, at the very minimum, point personnel in the general direction of what seems to be the solution. The leader must make sense of the new system, the failed mode system, and rapidly determine, informed by the available information, the best direction to proceed. He or she must confidently communicate this to the people in the middle of the situation for they are the critical components of the new system. The human components must know their functions and their interactions with other humans and the mechanics of the 22

system. The leader becomes the initial agent of system construction and integration by force of not only expertise, but technique and personality. Casto made this clear when he describes crisis leadership in life threatening situations as being emotional leadership where individual actions are driven by instinct and intuition and require leading the emotions of the people following. The crisis leader is the emergency catalyst that brings a failed mode sociotechnical system together and enables emergency operation. Even with the nuclear operators working in emergency coordination within the disaster area of the Fukushima Daiichi power plant, this extraordinary direct effort also required their system to produce and deliver information for the outside world; a world that ranged from the local communities, to the nation and, ultimately, to the global community. Communications When Fukushima Daiichi became a failed mode system its complexity increased to a global scale and its coupling with society was tightened to the point of requiring nearly instant communication of information from TEPCO to the Japanese government and the public. In his opening comments Casto reminded us that, the earth is flat and hazards to society posed by the failure of its technologies do not simply have local effect, but often have global consequences. Thus, argued Casto, our modern world described by Ulrich Beck as a risk society (1999, 19) demands global leadership to effectively respond to technological failures. We can no longer limit ourselves to islands of response to failures of hazardous technologies since their effects cross national borders and infiltrate the natural global environment. Casto made clear that a key component, to any type of cooperative coordination for disaster response efforts, is the capability to communicate with national leaders and society as a whole. This communication cannot be merely the simple passing of technical information concerning, for example, levels of radiation and the status of efforts to cool reactor fuel. According to Casto, the leaders of the emergency response team had to function as technical interpreters for leadership, and at the same time not dumb it down, in order to find ways to communicate [the] message and [have it] resonate to get it across. Casto showed himself as a pragmatic problem solver with a nuts and bolts sense of how to communicate the rapidly unfolding events at Fukushima Daiichi to both Japanese and American national political leaders. He described how he invoked the image of goal posts, from American football, as a framing metaphor to bound the endless points of data and nebulous information being created by the disaster. What s important? What should be told? What can be ignored? Which direction is the disaster headed? At one point during the disaster response, Casto set the goal posts as the worst-worst case (Unit 2 explodes and releases a radioactive plume) and he straightforwardly set the other goal post as the best-worst case (the status-quo) since a disaster, by definition, can t have a best case. By bounding the incoming information, he could limit the amount of turbulent data chasing, and subsequent erratic reporting of the disaster s status. Casto 23

offered bluntly that you have to avoid chasing the irrelevant to keep from doing stupid things that squander critical resources and that potentially send a message to leaders and the public that the situation is getting worse when it may not be. Castro emphasized that the wrong messages can precipitate what he calls social amplification of risk perception where, with tight system coupling, governments and the public can directly affect, and potentially interfere with, the system's disaster response operations. He argued that when social amplification takes over, in an emergency situation, wrong decisions are generally made. Casto s perspective is one that if there is a tight coupling between a failed mode system, and external national governance agencies, it requires a controlling communications strategy (such as his goal-post framework). Conclusion With his SIREN lecture, Dr. Chuck Casto provided nuclear professionals, governments and the public with an invaluable perspective on nuclear emergency response. His knowledge and working experience was directly constructed and informed by being within shouting distance of the destroyed Fukushima Daiichi reactors at a time when it was far from certain if even heroic response efforts would succeed. Casto shifted our view of disaster response knowledge creation from a focus upon hard-constructed technical artifacts of reactors, cooling heat-sinks, radiation doses and potential contamination plumes to the very human space of control in a life threatening situation. He presented us an authentic story of what it really takes to be a leader and technical manager, with the world looking over your shoulder, when one of society s modern systems fails and threatens that society. Contact details: millerdp@vt.edu References Beck, Ulrich. World Risk Society. Malden, MA: Polity Press, 1999. Kadota, Ryusho. On the Brink: The Inside Story of Fukushima Daiichi. Fukuoka: Kurodahan Press, 2014. Kranz, Gene. Failure Is Not an Option: Mission Control from Mercury to Apollo 13 and Beyond. New York: Simon & Schuster, 2000. Perrow, Charles. Normal Accidents: Living with High-Risk Technologies. Princeton Paperbacks. Princeton, N.J.: Princeton University Press, 1999. Scott, W. Richard. Organizations: Rational, Natural, and Open Systems. 5th ed. Upper Saddle River, N.J.: Prentice Hall, 2003. 24