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Map
helps small Montana utility develop vulnerability assessment, emergency
response plan
By Ann Murray, NETCSC Contributing Writer
Editor's Note: The “Public Health Security and Bioterrorism
Preparedness and Response Act of 2002” passed by Congress last year requires
all community water systems serving more than 3,300 people to conduct
an assessment of the system’s vulnerability to a terrorist or other intentional
act, submit a copy of the assessment to the U.S. Environmental Protection
Agency (EPA), and prepare or revise an emergency response plan that incorporates
results of the vulnerability assessment. Under this new law, communities
with fewer than 3,300 people are not required to perform vulnerability
assessments or create emergency response plans, but EPA encourages them
to
do so and is providing guidance to help smaller
communities undertake these challenging tasks. This article details how
a small drinking water utility in Montana performed a vulnerability assessment
and created an emergency response plan with the help of an assistance
agency.
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| A Security camera enables
the system operator to monitor activity at the plant. Photo
by Sandra Fallon. |
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Human nature explains the scarcity of updated emergency
response plans found among small water utilities, according to Paul Torok,
a rural development specialist with Midwest Assistance Program (MAP), a
regional affiliate of the Rural Community Assistance Program. “People like
to put things off until they’re in a situation when it’s forced on them,”
he says. Torok would know considering he has 24 years experience managing
water and wastewater facilities and has spent the past three years providing
rural systems with onsite technical assistance through his work with MAP.
Like most water professionals, Torok believes that the terrorist events
of September 2001 have forced communities to re-examine the vulnerability
of their infrastructure to unanticipated events. For small communities,
the litany of possible emergency scenarios includes not only terrorism but
vandalism and natural disasters as well.
Small communities are now seizing the opportunity to obtain funding to perform
vulnerability assessments and to update or, in some cases, to create an
emergency response plan (ERP) for their water systems. A vulnerability assessment
helps water systems evaluate susceptibility to potential threats and identify
corrective actions that can reduce or mitigate the risk of serious consequences
from adversarial actions (e.g., vandalism, insider sabotage, terrorist attack,
etc.). An emergency response plan is a written document that spells out
a water system’s plan of action for responding to potential emergencies
or disasters.
With a lack of time and resources to devote to security planning, some small
systems have turned to assistance agencies like MAP for help in dealing
with security issues. Over the past year, Torok helped a Montana community
of 1,200 perform a vulnerability assessment and develop a water facility
ERP from scratch. This utility, like other small utilities serving fewer
than 3,300 people, is not legally required to assess its vulnerabilities,
but it chose to follow the guidelines set forth in the “Public Health Security
and Bioterrorism Preparedness and Response Act of 2002.” The utility, however,
will not submit the vulnerability assessment or the certifications stating
that it has completed a vulnerability assessment and emergency response
plan to the U.S. Environmental Protection Agency (EPA), as larger communities
are required to do under the law.
Security important for small systems
Although a thorough and effective security effort is critical in this
post-September 11 era, the Montana community that Torok worked with—like
many other small communities—was not thinking only about terrorist attacks
when town council members contacted MAP for help.
“Small systems do not define security as the ability to prevent acts of
terrorism, but rather the ability to prevent vandalism and loss of service
to customers,” says Torok. He also points out that there are broader implications
to man-made or natural disasters than just physical damage to facilities
and service interruption. The health of system employees, the public,
and the environment are potentially at stake during and after emergencies,
he notes.
Small communities, says Torok, must also consider the effects of nature
on their systems. Fire, floods, high winds, and extreme temperatures can
wreak havoc on new and aging components. Therefore, a system’s ability
to respond to many kinds of unforeseen events is critical.
But even with such high stakes in the offing, small communities often
do not have the staff, the time, or the experience to route through governmental
requirements, conduct evaluations, and prepare emergency response plans.
Torok recommends that small utilities with limited resources follow the
example of the Montana community and get help from an experienced third
party. Assistance organizations, such as MAP, can help small communities
with their security issues often at no charge.
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Overcoming barriers to security planning
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In his work as a rural development specialist with
the Midwest Assistance Program, Paul Torok helps small water facilities
perform vulnerability assessments and develop emergency response
plans. Although each community he has worked with has its own set
of circumstances, common issues have surfaced.
Torok finds that small communities must overcome barriers
to getting emergency response plans in place. Common roadblocks
they face include limited time and available resources, a lack of
policies to addresss security issues, and an inablilty to prioritize
security because of other pressing concerns, such as water quality
and customer service. Torok says that these competing interests
can take a toll on the local decision makers who must implement
a security plan.
But Torok reiterates that while emergency response
planning is a difficult and time consuming job, it must be done
to safeguard the facility, staff, community, and environment.
Torok offers these suggestions for small communities
that are about to create or revise thier ERP.
1. Contact a qualified third party to do the evaluation
and assist in the development of the plan.
2. Create a team to work on the project.
3. Promote community spirit and the willingness to
improve and safeguard the utility.
4. Evaluate and test the new plan.
5. Be willing to periodically revise the ERP because
emergency response is a fluid, dynamic proposition. Staff, resources,
and the environment change over time.
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The first step: assess vulnerabilities
To help the Montana community, Torok began the process by assessing what
was needed to secure the water system from vandalism, natural disasters,
and terrorism. The evaluation started with a walking tour of system components.
Torok and the system operator looked at storage, conveyance, treatment,
and operations facilities.
Torok asked very specific questions while examining the water utility.
“The idea was to ask questions that would provide answers to things that
are often overlooked,” says Torok. “‘Is the wellhead locked?’ ‘If not,
how do we lock it with an inexpensive device?’ ‘Are the pumps and motor
controls secure?’ ‘Are controls equipped with a password?’”
Following the walking tour, Torok and community members took questions
and observations back to the town hall where they met for in-depth discussions.
These discussions provided what Torok calls “basic background information”—details
about inventory of equipment, staff, and mutual aid agreements with adjacent
communities.
According to Torok, participants understood the importance of keeping
this type of information inside the meeting. “Everyone involved was very
willing to share and discuss any of the issues in the assessment,” he
says. “However, it was made clear—and all persons involved agreed prior
to meeting—that any matters that were discussed were considered confidential
and would not be discussed in any way with persons outside of the group.”
Background information and the initial tour of the facility led to a discussion
of which vulnerability assessment method the community would use.
Under Torok’s guidance, the community chose to use the Security Vulnerability
Self-Assessment Guide for Small Drinking Water Systems developed by the
National Rural Water Association (NRWA) and the Association of State Drinking
Water Administrators (ASDWA). (The self-assessment guide is available
through ASDWA’s Web site at www.asdwa.org.)
The NRWA/ASDWA vulnerability self-assessment is designed to address likely
threats to small systems. The guide poses a series of questions that look
at the condition, operation, and maintenance of pipes and conveyances;
physical barriers such as fences; water collection, pretreatment, treatment,
storage, and distribution systems; electronic, computer or other automated
systems; and the use, storage, or handling of various chemicals. Answers
to the assessment are indicated as “Yes” or “No” and space is available
to identify actions needed to improve security.
Torok also emphasizes that anyone doing an assessment needs to take the
time to do the actual walk-through of the facilities. “The point is that
you can’t do the security analysis using the instrument while sitting
in the office,” he says. “You have to get out and actually check to see
what’s in place and what’s not.”
Torok offers fencing as a good example. He says it is easy to answer the
question “Are facilities fenced?” with a “Yes,” but an onsite inspection
might find any number of problems with the fence or its location. For
example, the ground level might drop below the fence level, there might
be trees or buildings near the fence that someone could climb to get over
the fence, or the fence itself could be damaged.
Clearly this type of detailed site evaluation takes time, says Torok.
But deficiencies in security are often brought to light and low-cost alternatives
can be implemented and incorporated into the ERP. In this case, Torok
offered simple suggestions to the Montana utility about protecting its
wellhead without fencing it and securing windows with available materials.
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| External buildings, such as this
outbuilding that houses an air compressor, should be locked and secured
to prevent access. Photo by Sandra Fallon. |
| Systems should prepare Emergency
Contact List |
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To be adequately prepared to respond to a potential emergency situation,
emergency response expers recommend that water systems' emergency
response plan include an Emergency Contact List. This list should
include the name, phone number, back-up phone number, fax number,
e-mail address, and mailing address for internal and external contacts,
including the following:
- Local law enforcement, emergency, fire, and medical contacts
- Appropriate state and federal agencies
- Local government contacts
- Chlorine hazardous materials contacts
- State drinking water agencies
- Board members
- Staff members
- Professionals affiliated with the system
- Technical assistance contacts
- Other utilities
- News media contacts
- Insurance carriers
- Critical customers
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Putting the ERP together
Torok considers the vulnerability assessment to be just part of the prep
work in putting together an effective emergency response plan. He says
it was important for the Montana community to get the local department
of emergency services, the police department, and the fire department
to the table when the utility’s plan was created.
These local officials, along with representatives of other facilities
subject to emergency planning requirements, community groups, and the
media, are part of a Local Emergency Planning Committee (LEPC), one of
about 3,500 such committees in the country. LEPCs are designated by State
Emergency Response Commissions (SERCs) to prepare for and respond to emergencies
involving hazardous materials. Because water and wastewater systems use,
store, or handle hazardous materials such as chlorine, these utilities
fall under the comprehensive emergency response plan of LEPCs. SERCs and
LEPCs are mandated under the federal “Emergency Planning and Com-munity
Right-to-Know Act.” (Systems may be able to find their local LEPC by
accessing EPA’s Emergency Planning Committee Database on the Web at www.epa.gov/ceppo/lepclist.htm.)
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| Unsecured chlorine tanks can
pose a major security risk. Photo by Sandra Fallon. |
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Not only are systems required to coordinate their emergency
response plans with LEPCs, they depend upon them during and after an emergency.
Torok says it is imperative that all entities know that the safety of
the utility is a collaborative effort. The Montana utility’s
completed ERP will fold into an existing county-wide disaster mitigation
plan. To that end, Torok emphasized the need for good communication between
the water utility and the community.
"Create a team to work on the project and stay in touch," says
Torok. "The team should include every entity that can play a role
in emergency response, including the schools, civic groups, police and
fire departments, the media, and other water systems."
| Basic Components of a vulnerability
assessment |
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According to guidelines issued by the US Environmental Protection
Agency, a satisfactory vulnerability assessment should include the
following elements:
1. Characterization of the water system, including its mission
and objectives.
2.Identification and prioritization of adverse consequences to
avoid.
3. Determination of critical assets that might be subject to malevolent
acts that culd result in undesired consequences.
4. Assessment of the likelihood of such malevolent acts from adversaries.
5. Evaluation of existing countermeasures.
6. Analysis of current risk and development of a prioritized plan
for risk reduction.
Source: Instructions to Assist Community Water Systems in Complying
with the Public Health Security and Bioterrorism Preparedness and
Response Act of 2002, Water Protection Task Force, US Environmental
Protection Agency, January 2003
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After Torok and community members sat down with local first-responders,
government contacts, and other local representatives, the utility’s ERP
began to take shape. The ERP was tailored to address specific types of
emergencies common to the utility’s geographic location, the resulting
problems, and the parts of the system that would be affected. Infor-mation
obtained through the vulnerability assessment proved to be useful in developing
the ERP. According to Torok, the final ERP addressed the security weaknesses
that became apparent during the vulnerability assessment.
Torok and the community expect the town council to officially adopt the
ERP in March or April. After that, the utility will test and evaluate
its new plan to make sure it works. The best way to do that, says Torok,
will be through practice drills and evaluation. This way system personnel
and the community will be aware of the plan’s strengths and weaknesses
and will be able to make adjustments
to the ERP.
| Basic Components of an emergency
response plan |
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Rather than developing an emergency response plan (ERP) from scratch,
systems may be able to obtain a sample ERP or template from their
state drinking water agency. A completed ERP should incorporate
the following basic components:
1. Specific goals and objectives for responding to an emergency.
2. A stategy for activating emergency plans
3. Personal assignments
4. Communication strategies and updated contact list.
5. Agreements with other organizations
6. Specific plans for handling specific disasters, pecific system
components, security vreaches, or hazardous material releases/spills.
7. A distibution list of individuals possessing copies of the ERP
for tracking all plan updates and modifications.
8. A legal and administrative basis
9. A classification of emergency conditions
10. Provisions for command and control, communications, emergency
supplies and distribution, threat management, and plan review and
revision.
Please note that the contents of an ERP may be dictated by state
or local regulations or guidelines.
This information is adapted from the following sources: Emergency
Planning for Water Utilitities: Manual for Water Works Association,
2001, Security Analysis & Response for Water Utilities, American
Water Works Association, 2001.
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