September 2009
Update on EBFM for Chesapeake Bay
Update on Species and
Quantitative Ecosystem Teams
The Striped Bass Species Team is moving forward with
compiling options for pursuing formal publication of the Striped Bass
Biological Background and Issues Briefs.
The Menhaden Species Team completed their work on their Briefs; these
were sent out to the Quantitative Ecosystem Teams (QETs) where they will be
used as a foundation for identifying performance measures and development of
reference points. The Blue Crab Species
Team is currently submitting briefs and MD Sea Grant is starting the editing
and packaging process before they will be distributed to the QETs for use in
their work. The Alosines Species Team
met in College Park, MD on September 17th & 18th for
a very productive workshop. The Team
formulated a work plan for completing the Biological Background and Issues
Briefs and has started working toward draft outlines to discuss during their
next call on November 6, 2009.
The Socioeconomics Quantitative Ecosystem Team (QET) met on
September 15th where they began discussing possibilities for moving
the Human Ecology Maps they created forward through developing an inventory of
existing work on valuation of fisheries in the Chesapeake Bay. A product such
as this would help in identifying gaps where valuation information is needed
and would be a useful tool for managers in making decisions which inevitably
involve difficult and complex tradeoffs.
The Socioeconomics QET also produced an eco-labeling report for the
focal species in the Chesapeake Bay (click here for a pdf). Additionally, the team’s stakeholder
interview project is underway. This effort will canvass stakeholder views on
the status of the Bay ecosystem. The
Foodwebs QET met on September 28th to discuss progress to date on
their team work plan, they are compiling proposals (due Oct 27) to identify
staff, funding, and data needs for accomplishing tasks within their work
plans. The Habitat Suitability QET will
meet on October 5th to discuss work plan development and team
assignments.
This month’s perspective, submitted by Troy Hartley and
Alesia Read, provides an introduction to social network analysis and its
potential for moving EBFM forward. Troy
Hartley is the Virginia Sea Grant Director and a member of the Socioeconomics
QET. Alesia Read is Troy Hartley’s PhD
student at the University of New Hampshire but is also serving as the Interim
Fisheries Coordinator for Maryland Sea Grant.
Perspective - Social
Network Analysis and its Potential for Ecosystem Based Fisheries Management in
the Chesapeake Bay
Troy Hartley, Virginia Sea Grant and Alesia Read, Maryland Sea Grant
Social Network Analysis (SNA) is not a new concept; network
theory has been used for many years in the fields of Business and Marketing
(Borgatti et al. 2009). What is new is
how it is being applied and used in the natural resource and public
administration fields to assess stakeholder interactions, institutional
landscapes, and governance network dynamics, including features of integration,
coordination, and synchronization of government activities that are important
in ecosystem-based fisheries management (EBFM). Governance networks are not strict organizational
hierarchies; but rather are voluntary.
These networks pursue some common objectives (e.g., development of a
fishery management plan), use coordinating tools such as meetings,
communication rules and procedures to make decisions, and have discrete divisions
of labor and responsibilities (Agranoff 2007).
Social network analysis, and the network approach, views
social relationships as interconnected actors (individuals or
organizations)—also called nodes—through links within a network structure and
function that can be graphically mapped and measured with increasingly
user-friendly software based upon graph theory (Tichy et al. 1979; Marsden
1990). With regard to EBFM, network
analysis could be used to visualize and measure the informal and formal structures
(comprised of individuals and organizations) that are involved in EBFM planning
in the Chesapeake Bay, exploring the pathways of information flow, the bridging
function served by individuals or organizations in mitigating information flow,
the resilience of networks to alteration, and the potential for new connections
that can enhance coordination and integration.
Network maps are created through survey, interview, and/or other
measures of communication actions (e.g., email, web site visits, wiki use,
etc.) Many different characteristics of
links between actors can be examined, e.g., communication frequency,
perceptions (e.g., trustworthiness, credibility), importance of information,
etc. Networks can be analyzed
quantitatively to assess connectivity of individuals or groups of individuals
(e.g., section within an organization, stakeholder group, etc.). Connectivity measures include assessments of
the bridging roles individuals might be playing, how close individuals are to
others, how dense the overall network is, who is serving equivalent network
functional roles, etc. .
Examples of Network Maps:
Network maps depict (A.) a traditional hierarchical
organization of a department Krebs 2007 – (www.orgnet.com)
and (B.) how work actually is done within the department.
Taken from recent coastal and marine research using network
analysis, (C.) illustrates a communication network among commercial fishermen
in one state, and the position of a Sea Grant fisheries extension staff member (Hartley and LaValley forthcoming),
while (D.) depicts multiple stakeholders participating in Atlantic herring
fishery management planning (Hartley and Glass 2009).
The scientific consensus statement on EBM (McLeod et al.
2005) provides a definition for what the scientific community envisions when it
recommends EBM for the oceans, outlining how current scientific understanding
of marine ecosystems shapes the call for a new management approach; the recent
Presidential Executive Order on the Chesapeake Bay and the Interim Report of
the Interagency Ocean Policy Task Force both call for increased communication,
coordination, and integration across all levels of government. Network analysis enables the analysis and the
governance performance monitoring to achieve these integrated, ecosystem-based
management objectives. For example:
1.
Multiple stakeholder, ecosystem-level planning – Use of SNA to identify the different
stakeholder groups involved in the Chesapeake Bay, you may ask which
stakeholders are missing or which stakeholders are most (or least) involved, or
are most well connected?
2. Cross-jurisdictional management goals – What cross-jurisdictional connections are already
occurring, where is there potential for greater integration, potentially
identifying where duplication of effort is occurring.
3.
Human use mapping – Developing a network map adds the institutional landscape to a human
use map and thus aids in identifying jurisdictional gaps and needs for
coordination.
4.
Habitat
restoration in coastal ecosystems –
Network maps including habitat restoration organizations will illustrate the
relationship between restoration, regulated human uses, and jurisdictional
authorities; are habitat restoration activities being informed
by fisheries management, what new partnership opportunities might exist?
5.
Co-management strategies – Measuring existing relationships through
SNA will facilitate discussions for potential co-management opportunities.
6.
Adaptive management as an approach to learning from management actions – Monitoring network function and structure
over time provides feedback on governance network performance. Network structure ebbs and flows dependent in
part on the activities underway; however monitoring the network enables more
active management to build additional network connections and capacity to meet
emerging needs.
In sum, there are many areas where social network analysis
tools could potentially be used to move forward EBFM planning efforts,
particularly in the Chesapeake Bay. It
is a new empirical tool for coastal and marine resource management, and as such
the field and its specific applications are evolving rapidly. This perspective was meant to provide a brief
overview of SNA and its potential. Are
there specific ways that you see social network analysis could be used in EBFM
planning in the Chesapeake Bay?
References
Agranoff, Robert.
2007. Managing Within Networks:
Adding Value to Public Organizations.
Washington, DC: Georgetown University Press.
Borgatti, S.P., A. Mehra, D. J. Brass, and G. Labianca. 2009. Network Analysis in the Social
Sciences. Science. Vol 323. 892-895.
Hartley, Troy, and Christopher Glass. 2009.
Science-to-management pathways for collaborative herring stock survey
data: Using network analysis to track information flow and potential influence
in fishery management. In press. ICES CM
2009/L:04:1-26. International
Council for the Exploration of the Seas (ICES) Annual Science Conference. Sept 21-25, 2009. Berlin, Germany.
Hartley, Troy W., and Kenneth J. LaValley. 2009. Who do
the people you know know? Assessing the
effectiveness of your reach and network in Sea Grant fisheries extension. Under
review. Journal of Higher Education
Outreach and Engagement.
Krebs, Valdis. 2007.
Managing the 21st Century Organization. International Human
Resource Information Management Journal. Vol 11(4):2-8.
Marsden, P.V.
1990. Network Data and
Measurement. Annual Reviews in
Sociology. Vol 16. 435-463.
McLeod, K. L., J. Lubchenco,
S. R. Palumbi, and A. A. Rosenberg. 2005. Scientific Consensus Statement on
Marine Ecosystem-Based Management. Signed by 221 academic scientists and policy
experts with relevant expertise and published by the Communication Partnership
for Science and the Sea at http://compassonline.org/?q=EBM.
Tichy, N. M., M.L. Tushman, and C. Fombrun.
1979.
Social Network Analysis for Organizations.
Academy of Management Review.
Vol 4(4). 507-519.
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