CRITICAL QUESTIONS FOR THE SIERRA NEVADA:
RECOMMENDED RESEARCH PRIORITIES
AND ADMINISTRATION
A Report from the
Sierra Nevada Research Planning Team
CENTERS FOR WATER AND WILDLAND RESOURCES
WILDLAND RESOURCES CENTER
DIVISION OF AGRICULTURE AND NATURAL RESOURCES
UNIVERSITY OF CALIFORNIA
Report 34
CRITICAL QUESTIONS FOR THE SIERRA NEVADA:
RECOMMENDED RESEARCH PRIORITIES
AND ADMINISTRATION
Sierra Nevada Research Planning Team
Janet L. Parrish
Program Coordinator
Don C. Erman
Director
CENTERS FOR WATER AND WILDLAND RESOURCES
WILDLAND RESOURCES CENTER
Division of Agriculture and Natural Resources
University of California
1323 Academic Surge
Davis, California 95616-8750
(916) 752-8070
Report 34
October 1994
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TABLE OF CONTENTS
EXECUTIVE SUMMARY. . . . . . . . . . . . . . . . . . . .iii
I. BACKGROUND. . . . . . . . . . . . . . . . . . . . . .1
Introduction. . . . . . . . . . . . . . . . . . . . .1
Purpose of the Sierra Nevada Research Planning Team .1
Project Scope and Process . . . . . . . . . . . . . . . . 2
Purpose of this Document. . . . . . . . . . . . . . . . . 2
Report Organization . . . . . . . . . . . . . . . . . . . 3
Description of Research Categories. . . . . . . . . .3
General Guidelines for Research Approaches . . . . .3
II. CRITICAL RESEARCH QUESTIONS: SUMMARY . . . . . . . .5
Planning and Management Decision Making . . . . . . .5
Socioeconomic Structure and Function. . . . . . . . .5
Ecosystem Structure and Function. . . . . . . . . . .5
Impact Assessment and Monitoring. . . . . . . . . . .6
III. RESEARCH ADMINISTRATION . . . . . . . . . . . . . . .7
Figure 1. Potential Research Administration Facilities in the
Sierra Nevada. 8
IV. CRITICAL RESEARCH QUESTIONS: BACKGROUND. . . . . . 11
Planning and Management Decision Making . . . . . . 11
Socioeconomic Structure and Function. . . . . . . . 14
Ecosystem Structure and Function. . . . . . . . . . 20
Impact Assessment and Monitoring. . . . . . . . . . 24
BIBLIOGRAPHY . . . . . . . . . . . . . . . . . . . . . . 35
APPENDIX . . . . . . . . . . . . . . . . . . . . . . . . 39
A. Sierra Nevada Research Planning Team Members. . 41
B. Comparison of SNRP and SNEP . . . . . . . . . . 43
C. Individuals Contacted During Development of Research
Questions. . . . . .45
D. Sierra Summit Bibliography. . . . . . . . . . . 48
E. Case Studies and Inventories. . . . . . . . . . 57
i
ACKNOWLEDGEMENTS
The members of the Sierra Nevada Research Planning Team contributed
the bulk of the work in this report. Comments that greatly added to
the report's depth were provided by many of the individuals listed in
Appendix A.
Staff of the University of California's Centers for Water and Wildland
Resources assisted with many aspects of the project administration.
Elizabeth Frey and Jeff Woled assisted with meeting arrangements,
correspondence, and editing. Sue Enos undertook the financial
management.
Michelle Watanabe completed a variety of tasks, including typing,
office assistance, and producing the map that accompanies the report.
Lori Pottinger and Lisa Micheli both reviewed drafts of the report,
contributing valuable editorial and style suggestions.
This project was funded by a grant from the California Department of
Forestry and Fire Protection under contract number DFFP 6CA27879.
ii
EXECUTIVE SUMMARY
The Sierra Nevada is one of California's most vital ecological assets,
and supplies critical extractive, environmental, and scenic wealth.
Decision-makers are faced with the challenge of managing the Sierra
Nevada without a complete understanding of its resources. The Sierra
Nevada Research Planning Team addressed this challenge by identifying
the most pressing resource management issues and information needs,
and outlining a plan to administer a research program responsive to
those needs. The diverse members of the team included local Sierra
representatives, scientists knowledgeable about the Sierra, and
statewide interests.
This report is a follow-up from the Sierra Summit, which consisted of
a major conference, a series of workshops, and working groups
addressing Sierra Nevada resource issues. One of the key findings of
the Sierra Summit was the need for better information to improve
management decision-making, conflict resolution, consensus-building,
and coordination among the numerous governmental and non- governmental
organizations, private landowners, and interest groups.
The Sierra Nevada Research Planning Team was not charged with
resolving policy conflicts, but it reached consensus in the
identification of priority research topics, many of which underlie the
current policy conflicts. A great deal of research has already been
undertaken on the Sierra Nevada and its management problems, but no
single organization oversees or coordinates the interrelated
information-gathering and planning processes throughout the range. In
short, while we have an understanding of some components of ecosystem
function, we have not successfully made the leap from gaining an
understanding of scientific processes to adequately communicating that
understanding to decision-makers and translating it into effective
planning and management actions. The planning team's efforts were a
step toward identifying information gaps and institutional barriers
that keep critical information from reaching decision-makers.
This report represents the team's work, which began in the fall of
1993 and concluded in the spring of 1994. The bulk of the report is a
list of critical research questions, including background statements
for each question. The questions are presented in four categories:
Planning and Management Decision- Making, Socioeconomic Structure and
Function, Ecosystem Structure and Function, and Impact Assessment and
Monitoring.
The questions in this report, identified by the team as the highest
priority research needs, will provide a framework for a coordinated
Sierra Nevada research program. Potential researchers would not
necessarily be limited to the specific research suggested within each
question if their proposals suggest an alternate approach that can
clearly lead toward resolution of the question or issue.
A quick review of the questions will reveal many of the obvious links
between questions, and the fact that neither the categories nor the
questions can be considered in isolation. An interdisciplinary
approach to virtually all research in the Sierra is essential.
The report also outlines a proposed research administration program,
and suggests a structure for the next step in the process. This
process will include establishing a policy board charged with
identifying funding sources, identifying future research priorities,
developing criteria for proposal solicitation and grant selection,
disseminating the information gained through the research, and
maintaining a public input process. Other important elements of the
recommendations specify that the center operate independently and
objectively, maintain scientific integrity and, if possible, be
accessible both in person and electronically. The center can provide
a forum for researchers to work directly with resource managers,
decision-makers, and the public in identifying and resolving Sierra
Nevada management issues. A facility or facilities should be centered
in the Sierra to coordinate this research.
iii
I. BACKGROUND
INTRODUCTION
Decision-makers in the Sierra Nevada are faced with the challenge of
managing Sierra resources without a complete understanding of the
consequences of their decisions. Contradictory information and
competing pressures among interest groups broaden that challenge.
Protecting the Sierra ecosystem, which is essential to maintain the
integrity of its unique natural resources and the economic future of
its communities, is not a simple responsibility; resources are
limited, individual stakeholders hold different goals, and in many
cases we simply cannot predict the effects of management decisions.
The Sierra Nevada is one of California's most vital ecological assets,
and provides critical extractive, environmental, and scenic wealth.
It is also important to the nation. The Sierra's resources are so
vast and abundant that we have tended to think of them as
inexhaustible. Recent scrutiny of the Sierra Nevada has caused
serious concern for the long-term sustainability of communities and
resources. For example, in 1991 The Sacramento Bee published a
Pulitzer Prize-winning series of articles by Tom Knudson highlighting
existing damage and increased development pressures.
In recent years, there has been a number of calls for increased
research to address these issues. Among these were the Sierra Summit,
sponsored by the Resources Agency of California, which consisted of a
major conference, a series of workshops, and follow- up working groups
addressing management challenges for the Sierra Nevada. This report
is a further product of the Sierra Summit process.
Responsibility for assessing the condition of the Sierra and
determining its future is shared by scores of agencies, private
landowners, tribal governments, universities, and nongovernmental
organizations. No single organization is equipped to oversee the
interrelated processes throughout the range. One of the key findings
of the Sierra Summit was that better information is needed to
facilitate improved management decision making, conflict resolution,
consensus-building, and coordination among these entities. We now
have an understanding of some ecosystem functions and processes in the
Sierra, but we still lack full comprehension of how the region's
environmental and economic issues are linked.
Federal lands occupy most of the Sierra, and local communities
frequently feel that they cannot play a satisfactory role in planning
their own futures as a result. Moreover, many agencies with
overlapping jurisdictions are not aware of each other's planning and
research efforts, or if similar efforts have been undertaken in other
geographical regions of the Sierra. In short, we have not
successfully made the leap from gaining an understanding of scientific
processes to translating those processes into effective planning and
management actions. Furthermore, a lack of consen- sus about
management goals can limit effective action.
Coordination of information and management actions throughout the
400-mile range is a difficult but necessary task. Actions taken in
one area of the Sierra can affect the region as a whole. Changes in
the Sierra also affect the rest of the state, which depends heavily on
Sierran resources, particularly its water and recreation
opportunities. Likewise, increases in population and air pollution in
the rest of the state, such as in urban centers and in the Central
Valley, present formidable management challenges for Sierra
communities.
PURPOSE OF THE SIERRA NEVADA RESEARCH PLANNING TEAM
The Sierra Nevada Research Planning Team (SNRP) was assembled to
identify the most pressing Sierra Nevada resource management
information needs and issues, and to develop a plan to administer a
research program responsive to those needs. The broadly
representative team was assembled from local representatives of Sierra
counties, scientists knowl- edgeable about the Sierra, and individuals
having statewide interests. The full team met four times over a
six-month period to develop a research agenda and communicate the
findings.
The team was chosen to represent a wide range of interests and
expertise. Local representatives, who comprised the majority of the
team (see Appendix A), were selected by the Regional Council of Rural
Counties (RCRC) to ensure a major role for public involvement in the
process. Scientists and statewide representatives were selected based
on their recognized knowledge of the Sierra, and were recommended by
university and state agency representatives. Members of the team were
asked to work both independently and among themselves between meetings
to solicit comments from colleagues and the public, in order to gain
as wide a representation of Sierran interests as possible.
PROJECT SCOPE AND PROCESS
This program was not designed to resolve policy conflicts, but it
reached consensus in the identification of priority research topics,
many of which underlie the current policy conflicts. The planning
team's initial task was to identify the critical resource issues that
underlie policy conflicts. This step was accomplished in the first
meeting. The team then translated those issues into the most critical
research questions. Many of the same issues raised by the planning
team had been raised at the Sierra Summit and later activities.
Team members worked together and with the program coordinator to
refine the questions. In addition, the coordinator sought further
input from outside sources. The refinement of those questions, along
with background statements on the existing state of knowledge and the
need for research on the issues that were raised, comprises the bulk
of this report.
Much research has already been undertaken on the Sierra Nevada and its
management problems. The planning team's effort was a step toward
identifying information gaps and institutional barriers that keep
critical information from reaching decision-makers. This effort is
the beginning of a continual process that should include: keeping
abreast of ongoing research and research needs, disseminating
information to re- source managers and decision-makers, translating
the knowledge into effective policies and actions, de- veloping new
planning and resource management tools, and regularly reviewing
information and actions.
It is hoped that research undertaken as a result of this program will
lead to innovative resource management techniques and resolution of
policy conflicts by decision-makers. The team merely began the
process of defining ways to merge or connect scientific data systems
(including the processing and disseminating of new information as it
develops) with legal and regulatory systems governing land ownership,
land use activities, and public infrastructure and services. The
primary limitations of the process were time constraints: the team
completed its work over an eight- month period.
Relationship to the Sierra Nevada Ecosystem Project. The Sierra
Nevada Research Planning Team (SNRP) was a state-funded program to
delineate research priorities for the Sierra Nevada. The Sierra
Nevada Ecosystem Project (SNEP), which is federally funded, is much
larger in scale, but overlapped SNRP in geographic scope and, to some
degree, in the issues that were addressed (see Appendix B). SNRP
respon- sibilities were accomplished over approximately eight months,
concluding with a recommendation to revisit the process once a
research program is established. SNEP responsibilities, extending
over approximately three years, include a thorough assessment of
existing ecosystem information, development of a database and
geographic information system (GIS), and evaluation of alternative
management strategies. Four members of SNEP were members of SNRP, to
ensure that the efforts of the two programs were complementary.
PURPOSE OF THIS DOCUMENT
This document provides a framework for coordinated research in the
Sierra Nevada. It is available to the public, in anticipation of the
establishment of a research administration program. It will be
presented formally to the Sierra Summit Steering Committee, the
Executive Council on Biodiversity, and the public.
The questions presented in this document represent the topics
currently identified by the team as those having the highest priority
for research. There is no hierarchy to the questions within the
document. The research administration program is currently in a
conceptual stage (see Chapter III). Funding sources have not been
secured, and the research administration process has not been
formalized. At this stage, responses to this report will be directed
to the Sierra Summit Steering Committee. Changes may be incorporated
into the research program development.
Research proposals ultimately will be solicited and evaluated based on
their scientific merit as well as their consistency with the
information needs and criteria identified in this document. Potential
researchers would not necessarily be limited to the specific research
suggested within each question if their proposals suggest an alternate
approach that can clearly lead toward resolution of the question or
issue, and falls within the spirit of the original question. The
background and specific research suggestions may be used as a guide
for defining and assessing research proposals.
REPORT ORGANIZATION
The following pages contain the critical research questions identified
by the team. They are grouped in four categories: (1) Planning and
Management Decision Making, (2) Socioeconomic Structure and Function,
(3) Ecosystem Structure and Function, and (4) Impact Assessment and
Monitoring. A summary of the research questions follows in Chapter II
of this report. Chapter III describes the team's recommen- dations
for carrying out a research program. In Chapter IV, the research
questions are presented in an expanded format, with a short background
description and specific research needs identified for each question.
A bibliography of potential source materials compiled by the team
through this process is also included. The Appendix contains a list of
SNRP team members, a comparison of SNRP and SNEP, a list of the
individuals outside of the team who were contacted during the process,
the Sierra Summit bibliography, and case studies and inventories.
DESCRIPTION OF RESEARCH CATEGORIES
A quick review of the questions will reveal many of the obvious links
between questions. Neither the cate- gories nor the questions can be
considered in isolation. The questions are fundamentally intertwined,
and the reader is cautioned against compartmentalizing the issues or
research questions. The categories were de- lineated primarily to
provide a sense of order to the questions. An interdisciplinary
approach to virtually all research in the Sierra is essential.
The first category, Planning and Management Decision Making, contains
questions related to land use, information sharing, decision-making
processes, interagency coordination, land use incentives and conflict
resolution. The questions in this category serve both as an objective
of the research program and as an umbrella over the technical issues.
Questions related to economic development and diversification,
demographics, infrastructure needs, and mechanisms that influence
resource investment are included in the Socioeconomic Structure and
Function category. The issues in this category are heavily influenced
by planning and management decisions.
The Ecosystem Structure and Function category addresses questions of
biodiversity, ecosystem structure and integrity, historical
conditions, and surface and ground water management. Many of these
issues inform the planning and management decision-making process, and
many are intricately linked to those in the Impact Assessment and
Monitoring category. This category includes monitoring needs and
questions related to the effects of land use and resource management
activities, external demands and uses, fire management, and
infrastructure development. In a broader sense, it also addresses the
effects of the planning and decision- making process, and it is
therefore linked with that category.
GENERAL GUIDELINES FOR RESEARCH APPROACHES
The team felt that two general approaches to scientific research -
analyzing case studies and establishing inventories and monitoring
systems - deserve special mention. Case study analyses, resource
inventories, and monitoring can provide extremely valuable information
to researchers, but even these tools can lead to the pursuit of
unnecessary data if improperly applied. Thus, they should be
undertaken only in response to specific research questions. The team
agreed on the importance of maintaining a genuine sense of purpose for
any research that is carried out, and specifically stated a desire to
avoid unnecessary data collecting.
Researchers should carefully select methodologies and establish a
feasible data management program. Monitoring and case study databases
must be scientifically defensible and accessible in a "user- friendly"
format. For each database, researchers should present all examples,
provide selected case studies, and summarize reasons for success in a
document intended for wide distribution.
Case Studies. During the discussion of potential research topics, the
team agreed on the importance of identifying management approaches
that have been employed in the Sierra, the state, other parts of the
nation, and other countries. This approach can lead to an
understanding of the components of previous studies or experimental
management techniques that would be technically and politically
feasible for the Sierra. Assessment of environmental quality, manage-
ment strategies, and policy directives in the Sierra Nevada would be
incomplete without an identification and evaluation of existing
"success stories." These successes take many forms, including: (1)
scientific research and monitoring that has identified important
environmental trends and the processes that drive these trends; (2)
land use management programs that have either restored or improved
habitat (such as riparian and stream restoration, erosion control,
innovative timber harvest management scenarios or building practices);
and (3) political processes that have resulted in interagency
agreements or private-public cooperation and collaboration.
"Process" case studies can be reviewed including cooperative planning
and physical projects such as stream restoration. Processes that
solved difficult management issues and foresaw consequences that
transcended single parcels or land use types will be particularly
valuable. Lessons can be learned from previous failures as well as
successes. These types of lessons can help us predict the level of
expected success for various management options, provide tech- nical
details of implementation that can be applied elsewhere, and allow us
to build upon past experience. Examples of many of these types of
projects are mentioned in the text of individual research questions.
Several case studies that were specifically identified by the team are
summarized in Appendix E. Lessons from case studies can be applied
directly to impact assessments, and can also inform the planning
process.
Inventory and Monitoring. In some cases, the answer to a research
question will involve identifying baseline conditions and tracking
changes over time, to facilitate an assessment of likely future
conditions. Scientific studies in the Sierra Nevada clearly show that
long-term monitoring is essential to identify changes before they
become problems, and while mitigation can still be effective.
Comprehensive and accurate long-term databases are sometimes
fundamental to our ability to assess natural and social resources,
detect ecological and demographic change over time, assess current
environmental health, and understand the factors that regulate
ecosystem function. Maps and other data summaries form the basis for
much of the proposed research and current planning decisions. If the
concepts of environmental indicators, thresholds and sustainability
are to be successfully applied to resource and ecosystem management,
monitoring must be a priority.
II. CRITICAL RESEARCH QUESTIONS: SUMMARY
PLANNING AND MANAGEMENT DECISION MAKING
Integrated Planning Information. How can the analysis and flow of
information be adequately integrated among federal, state, county, and
local levels; governmental and non-governmental organiza- tions; and
urban and rural areas to resolve manage- ment issues?
Planning Process and Institutional Structure. What changes are needed
to planning processes or institutional structures to resolve
management and land use conflicts? How can existing decision-making
pro- cesses be coordinated to reduce overlap and conflict while
reducing negative consequences to Sierra ecosystems?
Private Property, Land Use and Community Values. What tools can be
devised to assist com- munities in achieving a balance of land uses
that contribute beneficially to community character? What tools can
achieve complementary use and management of private and public lands
to maintain community character and value? How can communities better
define choices and tradeoffs in competing land uses?
Incentives. What kinds of incentives can be es- tablished and
employed to facilitate effective com- prehensive planning, adequate
resource management, appropriate infrastructure development, and
economic diversification?
SOCIOECONOMIC STRUCTURE AND FUNCTION
Socioeconomic Conditions and Changes. How is the population base
changing in the Sierra Nevada? Where is growth coming from? Where is
it concentrating? What are the policy implications?
Economic and Ecological Analysis. How can the economic and other
values of ecological resources be assessed in a consistent and
systematic manner? How can cost-benefit models for land management
and land use decisions accurately reflect choices, including external
costs and mitigation costs?
Financing Rural Services. How are service and infrastructure needs
currently funded in Sierra com- munities? Are revenues and methods
for generating revenues adequate for meeting projected service and
infrastructure needs? What alternatives exist for fund- ing rural
services and infrastructure?
Economic Diversification. What opportunities exist for economic
diversification within the changing economic base? How can the public
and private sectors facilitate, promote, and support sustainable
economic development? What opportunities exist for cooperative
enterprise, joint ventures, and partner- ships?
Resource Extraction/Exports. How and why do economic values of water
and other commodities in the forest vary throughout the Sierra? What
are the upstream and downstream values and costs of water? What are
the values and costs of other commodities?
ECOSYSTEM STRUCTURE AND FUNCTION
Biodiversity and Disturbance. How do biodiversity, ecosystem
structure, and ecological processes con- tribute to the health or
decline of Sierra Nevada ecosystems? What parameters can serve as
indicators? What is the role of disturbance in ecosystem structure,
function, and sustainability? What are the ranges of natural
variation of thresholds and carrying capacity? What is the
appropriate balance between reserves or corridors of protected lands
versus lands managed for use or resource extraction, to ensure
maintenance of biodiversity?
Historical Assessments. How do natural processes change the ecosystem
over time? What are the im- plications of long-term environmental
variability for management policies? Develop an historical, archeo-
logical, and paleoecological assessment of baseline versus current
conditions in the Sierra Nevada to improve understanding of ecosystem
evolution.
Watershed Function. How do urbanization, land disturbance, and
erosion affect watershed function and the hydrologic system?
Ground water. What is the condition of ground water quantity and
quality in the Sierra Nevada? What are the relationships between
surface and ground water in the protection of aquifers for present and
future uses?
IMPACT ASSESSMENT AND MONITORING
Land Classification. Identify locations and extent of management
problems, high-risk hazard areas, public and private ownership, and
land management policies. Develop a usable land classification and
assessment system from the data that is linked to a computerized
database or geographic information system.
Surface Water Management. How do our management activities affect
quantity and quality of surface water? What changes need to be made
in surface water management to ensure the integrity of the resource?
How can cumulative watershed impacts be assessed?
Air Quality. What are the impacts of local and transported air
pollution including acid precipitation, fog, ozone, and smoke, on the
hydrologic system, vegetation, and wildlife? How can the existing
monitoring system be improved?
Vegetation Monitoring and Assessment. Develop a system for evaluating
vegetation conditions, both for project level planning and for
assessing overall changes to the resource.
Wildlife Monitoring and Assessment. Evaluate the current wildlife
habitat modelling and monitoring database, Wildlife Habitat
Relationships (WHR), to improve the model or suggest alternative
approaches.
Road Density and Landscape Fragmentation. What are the impacts of
road density and landscape frag- mentation resulting from road
construction, urban development, logging, and water development, as
well as human population pressures on wildlife, watersheds,
vegetation, riparian systems, and water quality?
External Factors/Commodity Production. How do external use of and/or
demands for Sierra Nevada resources influence commodity production
pressures? What are the ecological effects of commodity resource
production in the Sierra Nevada? Can the impacts of external demand
be predicted or modeled, and can they be mitigated?
Fire Management. What are the environmental, economic, and social
impacts of natural and managed fire in the ecosystem? What are the
costs of fire management? How can we model its effects to lead us to
effective management decisions?
Infrastructure Development. What are the en- vironmental and
growth-inducing impacts of infrastructure development such as roads,
schools, water, and other utilities? How and where should
infrastructure be developed?
III. RESEARCH ADMINISTRATION
New issues, new management concerns, and the need for new and better
information will continue for the Sierra Nevada region in the
foreseeable future. In order to take advantage of current management
and data collection efforts, and to plan for future needs, a permanent
institutional framework must be created to support studies of direct
relevance to the Sierra. An element of that framework is the need for
a research center that:
* is independent in its conduct of activities;
* responds to identified information needs in
the Sierra region;
* maintains knowledge of information that has
already been developed, in order to avoid
duplication;
* supports research that is relevant to local,
regional, tribal, state, and national decision-
makers and is readily available to them;
* develops new and continuing funding
sources; and
* is located in the Sierra Nevada.
In recognition of the importance and value of this resource to the
residents of the state, the research center should include legislative
assistance, and it could be created by legislative action. However,
local support and visibility are critical to its success.
The primary purpose of such a center should be to facilitate the
filling of information needs that will lead to better resource
management. It should have physical facilities, a director, staff,
and a budget sufficient to administer a program of information
assessment, development, and dissemination. The center can serve as a
permanent repository for all collected data, research findings, and
case studies.
To some extent, the center can be composed of widely scattered,
electronically-linked institutions located both within and outside of
the Sierra. For example, research units from universities, the U.S.
Forest Service, and state agencies can quickly share information. It
should be sustained by wide participation of many levels of
government, private industry, foundations, and local residents. This
is both to ensure its success, and to avoid duplication with existing
programs.
The physical facilities may be either a single entity at one location
or a network of up to four units at different locations in the Sierra.
Because its primary function should be to identify and support
research, a single location may be sufficient. However, the work
undertaken through the program should be dispersed throughout the
Sierra, and should address geographic variations in information needs
and data, as well as overlaps in jurisdiction and ownership.
The nature of the research center's interactions with existing
institutions must still be evaluated. These institutions are the
University of California (UC); UC reserves and facilities that already
exist in the Sierra; the University of Nevada-Reno (UNR) and the UNR
Desert Research Institute, which currently supports research in the
Sierra; non-governmental organizations (NGOs) such as the Sierra
Biodiversity Institute; community colleges such as the Feather River
College and Sierra College; and local, state, and federal agencies
charged with management responsibility. In the interim prior to
establishment of a permanent facility, the center could occupy the
existing office space of an institution where research programs are
already being undertaken (see figure 1). Ultimately, however, the
center must operate independently of existing institutions even if the
space is shared.
Figure 1. Potential Research Administration Facilities in the Sierra
Nevada
The center should be guided by a policy board representing the broad
range of interests, concerns, talents, and ownerships throughout the
Sierra. This board would set the overall policy of the center and
provide direction to the center director. Board members should have
overlapping terms of up to three years.
The board's responsibilities would include: developing and
administering funding sources; identifying and revising research
priorities; developing and revising criteria for proposal
solicitation, review and grant selection; disseminating information;
and obtaining public input to guide their decisions. The board would
also assist the director in encouraging research approaches, and in
locating the best possible investigators from the public and private
sectors.
The center should provide a forum for researchers to work directly
with resource managers, decision- makers, and the public in
identifying and resolving Sierra Nevada management issues. An ongoing
task of the policy board would be periodic review (at least once every
four years) and revision of critical research needs. In addition, the
board would be charged with assessing program success and making
operational and policy changes.
The center director, with approval from the policy board, would
administer the programs of information assessment, development, and
dissemination. Among other duties, the director would: (1) appoint
technical teams to assist in a peer-reviewed, sponsored research
program; (2) manage center funds; (3) hire and supervise a staff; (4)
form and maintain ongoing linkages with supporting agencies, funding
sources, and users; and (5) involve various interests as partners in
the center enterprise.
Interim Management.
Until the Sierra Nevada research center has been established
permanently, the program should be managed cooperatively between the
state and a systemwide unit of the University of California, along the
principles described above. Initial financial support may be
developed from the State Resources Agency, cooperating federal
agencies, private enterprise, the University of California, and
private foundations. However, no funding has been secured at this
time.
A model for this approach exists through the University of
California's Centers for Water and Wildland Resources, which
administers research grants from a variety of sources. However, other
models should be investigated, including the Center for Plant
Conservation (CPC), which is a consortium of research branches and
designated field research institutes across the country. It operates
these field research units from its headquarters at the Missouri
Botanical Garden in St. Louis, with field offices located in each
bioregion in the nation. Research occurs through the field
institutes, but is coordinated, directed and funded through the Center
for Plant Conservation. Member organizations generally fill a gap in
the program, which takes advantage of pre- existing programs.
A central principle for the recommended research administration
program is that an independent center represent the coalescing
research interests and needs in the Sierra, providing a venue for
improving coordination among resource managers, existing research
facilities (figure 1), universities, private organizations, and the
public. It should be accessible to a range of users in both the
public and private sectors.
IV. CRITICAL RESEARCH QUESTIONS: BACKGROUND
PLANNING AND MANAGEMENT DECISION MAKING
Research Topic INTEGRATED PLANNING INFORMATION. How can the analysis
and flow of
information be adequately integrated among federal,
state, county, and local levels;
governmental and non-governmental organizations; and
urban and rural areas to
resolve management issues?
Background In addition to local community and county agencies, most
Sierra communities are
influenced by state and federal agencies, special
districts, tribal governments, private
landowners and non-governmental organizations (NGOs).
Information sharing among
the different institutions is sometimes inefficient
or nonexistent. This is particularly
true for environmental and economic impact
assessments. Improved agency
coordination is needed to avoid costly duplication of
efforts, omission of critical data,
and contradictory decisions resulting from analysis
of different data sets for the same
issue. Furthermore, agencies with adjacent or
overlapping jurisdictions or parcels
need to consider the cumulative effects of decisions
(see also Planning Process and
Institutional Structure, below, and Impact Assessment
and Monitoring, pages 24-34).
Sierra Summit recommendations to address this issue
included: conducting an
ecological and socioeconomic inventory to determine
information gaps (see
Socioeconomic Conditions and Changes, page 14),
establishing an information
clearinghouse, and developing a GIS basemap (see also
Land Classification, page 24).
Putting available information into a readily usable
format and/or adopting a process
to facilitate the analysis and flow of information
could help planners and decision-
makers assess the impacts of land use and management
options beyond their agency's
jurisdictional boundaries.
Specific Research Needs Determine what information is already being
collected, by which agencies and in what
form. Identify opportunities to eliminate
duplication.
Develop methods to inform planning agencies about
existing data from other sources.
Investigate affordable systems to transfer
information electronically.
Research Topic PLANNING PROCESS AND INSTITUTIONAL STRUCTURE. What
changes are
needed to planning processes or institutional
structures to resolve management and land
use conflicts? How can existing decision-making
processes be coordinated to reduce
overlap and conflict while reducing negative
consequences to Sierra ecosystems?
Background Continued growth will cause additional stresses to the
Sierra ecosystem without
necessarily resolving the economic difficulties of
Sierra Nevada communities. Many
agencies, including the U.S. Forest Service, both own
and manage land and resources,
while others, such as the California Department of
Fish and Game, are responsible for
the protection of particular resources. Local
governments typically regulate private
land over which they exercise planning authority.
Tribal governments own and
manage some lands, but their organizational
structure, ownership, and management
interests vary. In some cases, an agency's
constituency lies outside of the Sierra, but
it owns land and manages resources in the Sierra.
This is particularly true of urban
water agencies. In short, a range of institutions
often have overlapping interests and
management jurisdictions. In rethinking the process
of setting and implementing
policies, there may be opportunities to streamline
governmental organizations and build
consensus among organizations.
Agency plans and regulations need to be integrated to
ensure consistent policies and
complementary implementation procedures. For
example, local governments prepare
general plans outlining their future development and
environmental protection
measures. However, in many cases a federal landowner
has developed goals
independently of local governments (as is the case
with timber harvest levels on Forest
Service lands), and the local government agencies
have little input and no control over
the decision-making process for land that is under
federal jurisdiction. Similarly,
effective interagency coordination is required to
ensure efficient issuing of permits for
land development, both in terms of maximizing
compliance and minimizing permit
issue costs to members of the regulated community.
Overlapping permit-issuing
authority may result in permit-issuing and
decision-making backlogs, duplications,
conflicts, or lack of regulatory enforcement.
Specific Research Needs Identify opportunities for common/cooperative
land management policies and processes
that can be established to reach consensus on
the use and management of land with
multiple ownership and responsibility.
Evaluate the effectiveness of existing models,
and determine the conditions under which they
would work in different communities in
the Sierra.
Examine the use of alternative planning units, such
as watersheds and airsheds, that
are ecologically meaningful.
Develop and analyze alternative
political/governmental institutions for managing land
and ecosystems, including cooperative arrangements,
permit-issue streamlining,
institutional restructuring, or creating new
institutions (such as air quality districts).
Examine alternative planning approaches that
emphasize conservation of biodiversity,
as was accomplished by Tuolumne County when it
adopted wildlife protection measures
in its General Plan.
Research Topic PRIVATE PROPERTY, LAND USE, AND COMMUNITY VALUES. What
tools can
be devised to assist communities in achieving a
balance of land uses that contribute
beneficially to community character? What tools can
achieve complementary use and
management of private and public lands to maintain
community character and value?
How can communities better define choices and
tradeoffs in competing land uses?
Background Communities limit or prohibit harmful uses of private land
in order to protect human
health, community character, and the environment. As
long as some economic value
is left in the property, regulations generally do not
constitute a governmental "taking"
of property, and the governing agency would not be
required to compensate the
property owner for loss of property value. However,
the definitions of what is
"harmful" are not clearly described, and standards
vary by community. For private
land, the community defines values through the
general plan process. By including the
opinions of private landowners and the general public
into the planning process,
compromises can often be identified that are both
consistent with planning objectives
and acceptable to landowners. For public land, the
concept of "community value"
extends beyond the existing community; for federal
lands, it extends nationally.
Specific Research Needs Delineate ways for communities to agree upon
land uses that should be prohibited or
restricted.
Identify land use and regulatory issues that remain
unresolved and are outside of the
domain of the courts. Include new issues that have
arisen under current law and
regulatory/management practices that can affect land
use and regulatory decisions.
Define the social, cultural, and political
acceptability of limiting uses of private
property when those limitations are legally
permissible. Define the social, cultural,
and political desirability of limiting uses that are
perceived to damage public values.
Research Topic INCENTIVES. What kinds of incentives can be
established and employed to facilitate
effective comprehensive planning, adequate resource
management, appropriate
infrastructure development, and economic
diversification?
Background The primary land management/planning agencies in the Sierra
all have comprehensive
plans outlining idealized growth. However, even when
conflicts among the agencies
are largely resolved, implementation of land use
plans cannot be guaranteed on
privately-owned land. Furthermore, most communities
prefer not to engage in "heavy-
handed" regulation. Determining limitations to
idealized plans and finding the
common ground in traditional conflicts can lead to
the development of incentives that
optimize environmentally positive economic activity
and long-term, sustainable
resource protection.
Existing innovations include transferrable
development rights (TDRs), the Williamson
Act, conservation easements, changes in tax code
structure, mitigation banking, and
cooperative agreements like Coordinated Resource
Management and Planning
(CRMP). Land use policies, zoning regulations, and
growth management strategies
influence development patterns and may provide
incentive mechanisms. The state has
also considered providing fiscal and other incentives
as part of the growth management
process, such as through an infrastructure bank or
streamlining of the permit process,
but the policy direction for this issue is still
evolving.
Specific Research Needs Determine the effects of land use policies and
zoning regulations on the local tax base.
Identify fiscal strategies, zoning regulations, and
infrastructure development measures
that increase resource and/or environmental
qualities. Identify measures that could
adversely affect environmental quality.
Use information on existing conditions, development
standards, and identified
thresholds (see Biodiversity and Disturbance, page
20) to generate options for potential
tradeoffs, banking, or balancing systems. The
analysis could be made for one or more
landscape units (bioregion, county, watershed), and
could address multiple resources
(including air, water, and soil) and competing uses
(such as recreation, mining, timber
harvest, water) at a single location (see also Land
Classification, page 24).
Identify mechanisms that increase or reduce levels of
reinvestment in resource qualities
(a) within ownerships, (b) within communities or
counties, and (c) in the region.
Identify mechanisms that increase or reduce resource
investment that derives from non-
resource income.
SOCIOECONOMIC STRUCTURE AND FUNCTION
Research Topic SOCIOECONOMIC CONDITIONS AND CHANGES. How is the
population base
changing in the Sierra Nevada? Where is growth
coming from? Where is it
concentrating? What are the policy implications?
Background In order to plan for the Sierra's communities, we need to
know what to expect in terms
of changes in growth rates and sources, what kinds of
pressures are resulting from
growth on natural and human systems, and how the
economic base is changing (see
also Economic Diversification, page 18). In some
counties, much of the recent growth
has been in the population over the age of 65, many
of whom are retired and/or
unemployed. Unemployment levels remain high because
much of the economy is
seasonal. Many of these concerns can be addressed
through an inventory of key
demographic and socioeconomic indicators, and can
provide a baseline against which
future changes would be measured and trends tracked.
Potential problem areas could
be identified, and policies and strategies developed
to address them. Local and
regional officials would have better data available
to them to inform their planning and
land use decisions. A better understanding of how
the local economic base is
changing, the dynamics of how the economy operates,
and the opportunities and
challenges presented by these changing conditions
would allow communities to be
more anticipatory and proactive, especially in the
areas of job creation, worker
retraining, economic diversification, land use
planning, and protection of social
diversity and cultural integrity.
Some of the data already exists at various levels of
detail through the California Trade
and Commerce Agency, as well as other state agencies,
such as the Department of
Finance, Board of Equalization, Employment
Development Department, and private
economists. In addition, various economic strategies
and feasibility studies have been
prepared, primarily through funding by the federal
Economic Development
Administration and the federal Community Development
Block Grant program
administered by the California Department of Housing
and Community Development.
However, these documents are not widely disseminated.
Many state agencies
responsible for growth management and economic
development do not use these
documents for regional analysis and policy
development since there is no single
repository for this data. Having consistent data
sets collected throughout the counties
would allow for better analysis and policy/program
development across and within the
region.
Specific Research Needs Delineate areas of population, job growth, and
decline. Characterize the changes in
settlement patterns.
Determine what types of jobs are being created and
what types of jobs are being lost.
Determine the data that should be tracked to identify
socioeconomic and demographic
changes. Develop a baseline socioeconomic inventory
and monitoring program.
Identify the information sources and methods needed
to compile and update the
inventory. Emphasize a standardized format, so it
can be widely used, but with
flexibility to incorporate local conditions and
anomalies.
Identify how the various state agencies can assist in
developing data sources,
disseminating information to local and regional
users, and establishing methods to
centralize demographic and socioeconomic information
for the region.
Determine the human relationships to the resources in
social/economic terms. Identify
the sources of capital and movements of capital in
and out of the Sierra.
Determine whether demographic pressures have
different effects in different regions in
the Sierra Nevada, and the circumstances under which
differences in degree and types
of pressure produce different outcomes on resources,
settlement densities, and
community stability. Identify the structural and
institutional changes that are
associated with different intensities of pressure and
initial conditions.
Assess how demographic changes throughout the state
affect the Sierra Nevada and
how changes in the Sierra Nevada affect the rest of
the state. For example, determine
whether there are concentrated locations where former
urban residents are building
retirement homes. Determine what policies appear to
affect settlement dynamics, and
how and why different planning authorities use them.
Identify communities in the west slope foothills and
in the east slope areas that may be
at risk of becoming bedroom communities for
employment centers in the Central Valley
and Nevada. Develop measures to attain a
jobs/housing balance within those
communities.
Estimate the contribution of tourism and recreation
to Sierra communities (who is
visiting the region, where they are from, where they
stay, how long they stay, what
they do, and how much they spend). Estimate the
contribution of commodity
production activities, including timber harvesting,
grazing, and mining. Assess the
benefits and additional pressures and costs, both
physical and service costs/benefits,
to local communities from these activities.
Research Topic ECONOMIC AND ECOLOGICAL ANALYSIS. How can the economic
and other
values of ecological resources be assessed in a
consistent and systematic manner?
How can cost-benefit models for land management and
land use decisions accurately
reflect choices, including external costs and
mitigation costs?
Background Decision-makers are frequently faced with the question of
the economic ramifications
of a certain land use activity on a given
environmental resource. The concept of
"resources" includes traditional commodity resources
such as timber, water, and
rangeland, but also includes views, open space,
recreational potential, wildlife, water
quality, air quality, noise levels, and non-commodity
resources such as certain
vegetation types that are important to Native
American communities. Recent studies
suggest that in some cases the cost of development
can be greater than the cost of
leaving land in open space, when accounting for the
economic value of the
environmental resource that may be impacted, and the
economic costs of that impact.
Economic values may be assigned to specific resources
in terms of commodity values,
ecological values, aesthetic values, recreation
values, and clean water values.
However, these "values" are not completely
understood, and the values assigned by
one agency or management unit may be different than
those assigned by another
agency or management unit. Thus, the economic
analysis tends to be biased in favor
of the goals of that management unit. Without a
formal and defensible method, the
assignment of values can be arbitrary, influencing a
particular choice without
supportable evidence of the true cost of that choice.
An assessment of both the
environmental and economic impacts, including costs
that are typically thought of as
external or indirect, is necessary to accurately
assess the ramifications of land use and
management choices. Any models should be capable of
taking into account unique
features of the local environment and economy.
Specific Research Needs Identify the economic values assigned to given
environmental resources by governing
units for project assessments and
cost-benefit analyses. Determine whether these
values have been developed using rational
economic and resource-loss data, and
whether they are consistent from unit to
unit.
Develop a methodology to assess, over the life of a
proposed project: (a) resource
costs in terms of long-term opportunity costs,
probable need for future clean-up or
restoration potential, income generation or loss, and
loss or enhancement of resource
values; and (b) fiscal factors, such as opportunity
costs for different uses, tax
generation, income generated for the community,
economic multipliers, and cost of
providing community services and infrastructure,
including water, utilities, waste
disposal, police, fire, and schools.
Identify resources for which there are no economic
valuations currently in use, and
assess the need to develop economic values for the
resources.
Evaluate the suitability of economic/environmental
analysis models for developing an
understanding of the long-range environmental and
economic effects of land use and
land management decisions.
Determine the economic values that have been assigned
to proposed mitigation.
Determine whether proposed mitigation projects have
been implemented and whether
they have been assessed following implementation.
Evaluate the effectiveness of the
projects in terms of meeting mitigation goals.
Research Topic FINANCING RURAL SERVICES. How are service and
infrastructure needs
currently funded in Sierra communities? Are revenues
and methods for generating
revenues adequate for meeting projected service and
infrastructure needs? What
alternatives exist for funding rural services and
infrastructure?
Background Currently, some Sierra communities are financially
dependent on federal timber and
grazing receipts, as well as PILT (Payment In Lieu of
Taxes) redistributions for
federal lands. PILT provides payments of up to $1
million per year, based on the area
within a local government occupied by federal lands
and the size of the population, as
a substitute for "lost" property tax revenue.
Portions of federal timber and grazing
revenues are also redistributed to local governments.
Communities without productive
resources (such as harvestable timber stands) or
other sources of income (such as
tourism) must rely on alternate sources of funding
for services. Thus, funding is
unevenly distributed throughout the Sierra region.
Many of the communities that do
not benefit from federal land and resource revenues
are affected by other uses on
federal lands within their counties. Furthermore,
the harvest levels and corresponding
revenues vary widely from year to year, resulting in
an unstable funding source for
essential services. This system may promote
unsustainable resource management
policies in order to pay for rural services, which
include schools, health care, police
and fire protection, emergency medical services, and
infrastructure improvements
(roads, water systems, waste disposal, sewer). It
may be more sustainable in the long
term to restructure the revenue redistributions so
that payments do not encourage
resource depletions or economic dependency on the
federal government.
In addition, some communities with resource-weighted,
undiversified economies are
experiencing losses in retail sales, and may be able
to identify ways to fund services
while diversifying their economies (see Economic
Diversification question, page 18).
The state Growth Management Council, housed in the
Governor's Office of Planning
and Research, is charged with development of
statewide growth management policies
that will influence infrastructure financing. At the
time of this writing, that work is
incomplete. Pending bond acts may set up an
infrastructure financing bank.
Specific Research Needs Define infrastructure needs under expected
levels of growth (see Socioeconomic
Conditions and Changes question, page 14).
Identify existing programs that support
infrastructure development, and the need for
additional program development. Determine the status
of the state Growth
Management Council regarding these issues.
Develop an effective system to redistribute federal
receipts. Identify alternative ap-
proaches that exist or can be developed. Examples
could be PILT, recreation fees, and
water transfer fees.
Quantify the extent to which transfer payments and
service economies have replaced
resource-dependent activities as sources of local
income. Identify how that income has
been captured for reinvestment in the community, and
the circumstances in which land
and land-transfer taxes are used to do so.
Evaluate the ways in which funding mechanisms and
opportunities change by
geographic area. Compare areas with virtually no
income from timber receipts to
those where timber harvest levels are relatively
high.
Identify state and federal funding sources available
to help meet restoration and
enhancement needs, and strategies to access them.
Research Topic ECONOMIC DIVERSIFICATION. What opportunities exist for
economic divers-
ification within the changing economic base? How can
the public and private sectors
facilitate, promote, and support sustainable economic
development? What
opportunities exist for cooperative enterprise, joint
ventures, and partnerships?
Background Economic and environmental issues in the Sierra are
integrally linked, because the
economy depends on the environment and because our
understanding of how the
environment works can change how we use its resources
to support our economy. One
of today's major issues is the reduction in timber
harvest levels over the past five
years, which is forcing counties to investigate
alternatives for sustaining local jobs.
Other states, such as Oregon, are proactive and
explicit in fostering economic
diversification strategies. The state Rural
Competitiveness Strategy, recently issued
by the California Governor's Office of Planning and
Research (OPR), addressed some
of these issues, and recent studies have investigated
alternatives to existing economic
base activities. Sierra Summit recommendations
included a charge to the state
Legislature and state Department of Commerce (now the
Trade and Commerce
Agency) to assist local communities in economic
diversification, and to create financial
incentives for the establishment of "value-added" or
secondary industries that convert
commodity natural resource products into finished
commercial products. Efforts have
been limited to date, although local projects have
been funded by federal and other
non-state resources. A state rural economic
development strategy being initiated by
OPR at the direction of the Legislature should
provide some direction. Non resource-
based diversification, often playing off the skills
and capital brought by recent
immigrants from urban areas, can be encouraged to
foster community stability.
Opportunities to diversify rather than abandon
traditionally Sierran resource-based
industries may include, for example, small lumber
mills, manufacturing for finished
wood products, orchards, recreational development,
restoration activities, or
development of traditional Native American
activities. Assistance at the state level
includes the Senate Office of Research, which is
investigating economic and
environmental sustainability issues associated with
economic conversion, and the
Assembly Natural Resources Committee.
Recreation and tourism provide a significant number
of jobs in the Sierra, and
contribute vitally to the economy. Additional
recreation-based economic development
may be a suitable mechanism to diversify the economy,
particularly in locations where
resource extraction potential is limited. In the
eastern Sierra Nevada, recreation plays
a critical role in the local economy. Recently,
several organizations have begun to
develop models to investigate how recreation,
economic development, and resource
protection can be provided simultaneously. Examples
include CURES, the Coalition
for Unified Recreation in the Eastern Sierra, or the
Tahoe Coalition of Recreation
Providers (TCORP). Case studies may also be found
through the Tahoe-Truckee
Regional Economic Coalition, Sierra Economic
Development District, Plumas County
Chamber of Commerce and Plumas Corporation, the Mono
Lake Committee, and
studies of Yosemite gateway communities. A great
deal of recreation-related literature
exists as well. However, from the perspectives of
biologists or planners, very little
addresses both resource protection and recreation
development, or the impacts of
recreation on natural resources.
Specific Research Needs Define economically feasible alternatives to
replace job losses from resource-extraction
activities, such as development of value-added
wood products, and increased
recreation or entrepreneurial activities.
Examine ways to encourage their development
while conserving biodiversity and
environmental values.
Determine how an economically viable local milling
and forest products industry can
survive under policies that call for
sustainable-yield logging and protection of ancient
forests and other critical resources.
Determine a pace at which communities can accommodate
job and employment
changes resulting from changes in planning and
policy.
Characterize the beneficial and adverse effects from
different patterns of economic
diversification. Evaluate how county, state, and
federal policies influence patterns of
diversification.
Identify economic opportunities for recreation
development in the Sierra Nevada,
including cooperative enterprise and partnerships.
Delineate potential roles for private
enterprise and public agencies in providing
recreation.
Evaluate the impacts of recreation on natural
resources, infrastructure, services,
public health, and safety. Determine the effects on
local employment, economic
benefits, and opportunities.
Determine how many people can be supported by
existing recreation resources, both
in terms of services (number of hotel rooms) and
sensitivity of the resource (human
impact on the ecosystem). Assess the ability of
recreation development to pay for itself.
Research Topic RESOURCE EXTRACTION/EXPORTS. How and why do economic
values of water
and other commodities in the forest vary throughout
the Sierra? What are the
upstream and downstream values and costs of water?
What are the values and costs
of other commodities?
Background Costs of commodities are related both to the direct costs
of the resource extraction or
delivery, and to the non-commodity costs, including,
for example, habitat value and
water quality. These costs are either lost or are
recovered through commodity prices
and/or subsidies. One component of this question is
an understanding of the real costs
(including externalized costs) of extraction and
transfers of commodity resources in
general, and of water in particular. Economic values
of water in the forest vary
throughout the Sierra, in proportion to elevation,
capacity of downstream hydroplants,
and the feasibility of capturing water for
distribution to consumptive users. Water
exports are the most complex of the resource
extraction/export issues, due to pricing
structures, dependence of urban and agricultural uses
outside of the Sierra on the
resource, efforts to manipulate the watershed
conditions to increase water yield, and
the difficulty in predicting the timing and quantity
of water available for transfer (see
also Surface Water Management question, page 25).
Specific Research Needs Define relationships between geographic
locations and the values of water and other
commodities. Determine the proportions of the
various commodities that are
represented in the local economies.
Determine whether costs of water and other
commodities are accurately reflected in
prices, considering the internal and external costs
of delivery. Determine how un-
certainty in water availability affects pricing.
Characterize the circumstances in which
upstream-downstream agreements on water
transfers tend to be formed and sustained. Describe
how this affects forest
management decisions.
Determine costs and benefits of efforts to increase
water yields and manipulate
watershed conditions, and whether economic values to
downstream users reflect those
costs and benefits.
ECOSYSTEM STRUCTURE AND FUNCTION
Research Topic BIODIVERSITY AND DISTURBANCE. How do biodiversity,
ecosystem structure,
and ecological processes contribute to the health or
decline of Sierra Nevada
ecosystems? What parameters can serve as indicators?
What is the role of disturbance
in ecosystem structure, function, and sustainability?
What are the ranges of natural
variation of thresholds and carrying capacity? What
is the appropriate balance between
reserves or corridors of protected lands versus lands
managed for use or resource
extraction, to ensure maintenance of biodiversity?
Background The Sierra Nevada will require careful management so that
we do not damage the
resources permanently. We need to establish
biological thresholds indicating levels of
environmental concern or change, and determine a
carrying capacity for different
levels of economic use. Understanding the carrying
capacity and environmental
thresholds is essential to gaining a better
understanding of how the overall ecosystem
works, and the factors that influence its health or
decline. Identification of carrying
capacities, biological thresholds, and natural
disturbance regimes may be useful in
developing a system of comparative analysis and risk
management across the Sierra,
recognizing both similarities and differences in: (a)
activities and their impacts; (b)
resource quality and availability; and (c) ownership
needs. To some extent, these are
the questions that the Sierra Nevada Ecosystem
Project (SNEP) is addressing.
Determining thresholds necessarily involves analyzing
baseline conditions and
establishing monitoring systems (see General
Guidelines for Research Approaches,
pages 3-4, and Impact Assessment and Monitoring,
pages 24-34), in order to identify
standards and conditions for environmentally sound
economic activities and land uses
by subarea of the Sierra.
Furthermore, we must investigate how natural systems
recover from disturbance.
Sierra Nevada biological communities have developed
under long-term processes of
disturbance such as natural and human-influenced
fire, vegetation manipulation (pre-
and post-European settlement), and disease.
Eliminating natural disturbances in
general, and fire in particular, has caused
unanticipated and undesirable changes to the
ecosystem. Better knowledge of ecosystem structure
and function is necessary to
better understand how natural disturbance processes
can be mimicked through
innovative management. This understanding can also
assist us in anticipating the
effects of management disturbances resulting from our
commodity extraction and
production activities.
Specific Research Needs Identify effective indicators to assess health
or decline of the ecosystem, and the major
processes critical to the maintenance of
ecosystem stability and integrity. Determine
ways to mimic these essential processes to
sustain managed ecosystem integrity with
resource production in the ecosystem.
Define a "sustained yield" for various commodity
extraction activities that allows for
habitat values. Determine components of "sustained
yield."
Define acceptable levels of growth, considering
threshold levels or carrying capacity.
Identify and measure parameters that adequately
characterize ecosystem status, and
compare with SNEP findings. Identify thresholds and
components of biodiversity and
ecosystem structure for both the terrestrial and
watershed systems.
Define ranges of use between "totally managed" and
"totally preserved" lands, and
characterize recovery from disturbed conditions in
those ranges.
Identify corridors that allow wildlife to move
between reserve units (see also Road
Density and Landscape Fragmentation, page 30).
Identify types of management or
land uses that can be allowed while still providing
this linkage.
Determine if Native American disturbance activities
(fire, vegetation management) are
relevant to current management activities. Determine
the effects of changes in these
activities on Sierra Nevada natural resources.
Research Topic HISTORICAL ASSESSMENTS. How do natural processes
change the ecosystem
over time? What are the implications of long-term
environmental variability for
management policies? Develop an historical,
archeological, and paleoecological
assessment of baseline versus current conditions in
the Sierra Nevada to improve
understanding of ecosystem evolution.
Background A primary goal in environmental management is to sustain
natural ecosystem structure
and function. We know, however, that ecosystems are
dynamic. Rather than develop
a static "snapshot" view of ecosystems, we must
define the range of variability for
selected characteristics. Historical and
paleoecological studies provide the means to
develop this understanding. In particular, these
types of studies are very useful in
assessing ecosystem recovery from both natural and
human, particularly pre-European,
disturbances. Historical assessments can provide
insights into management techniques
that could be used today, and may suggest ways to
sustain the Native American culture
as well. Since lakes integrate watershed processes
(via the continual hydrologic
transport of sediments, nutrients, and organic
matter), they provide a unique
opportunity to evaluate ecosystem recovery from
stress.
Specific Research Needs Catalog in a database all photographs that can
be used to address the research
questions identified in this report.
Group the photographs by ecological and topo-
graphic criteria.
Catalog all primary literature sources and firsthand
sources, including statements from
longtime Sierra residents, that provide historical
descriptions of Sierra Nevada flora
and fauna, and that describe characteristics and
geographical extent of specific habitat
types.
Expand fire scar analysis and meadow/bog core
sampling so that the spatial extent of
various plant communities and fire regimes can be
estimated.
Conduct dendrochronology (tree-ring) analyses, along
with biomass-stable isotope
analyses, which allow for an interpretation of
hydrologic cycles (e.g., wet versus dry
conditions, temperature variations) over the past
500-1,000 years.
Collect and analyze deep lake sediment cores for
paleoclimatic, chemical, isotopic, and
biological parameters to evaluate long-term changes
and historical background
characteristics of plant and animal plankton species
composition, deposited pollen, and
inorganic sediment particles. Assess the functional
relationship(s) between historic
hydrologic conditions and erosion/nutrient loading as
affected by watershed vegetation.
Research Topic WATERSHED FUNCTION. How do urbanization, land
disturbance, and erosion
affect watershed function and the hydrologic system?
Background Environmental management at the watershed scale is now
being acknowledged as
effective by regulatory and resource agencies.
Because of links between hydrology
and pollutant transport, and the fact that watershed
boundaries are defined by local
hydrology, the concept of watershed function has
traditionally been closely aligned
with water quality issues (see also Surface Water
Management, page 25). It is well
known that land disturbance within a watershed can
have a profound influence on the
transport of nutrients, sediments, and other
pollutants to downstream water bodies via
erosion. This phenomenon can result in increased
eutrophication, impairment of
stream benthic habitat by siltation, and potential
toxicity to resident biota. Erosional
loss of sediments also affects biogeochemical cycling
and can lead to land instability
and/or loss of nutrient-rich soils. Because field
sampling is very expensive, existing
data documenting erosion rates and nutrient loss are
limited, despite the need for data
suggested by the high erosion rates revealed in some
studies.
Understanding the relationships between land
disturbance, urbanization, and watershed
function is key to developing and implementing
effective land use, erosion control, and
environmental restoration policies. With the
increased use and urbanization of the
Sierra Nevada for residential and commercial
purposes, land disturbance and its
attendant problems become more widespread. Such
change highlights the need to
couple scientific understanding of the effects of
urbanization on watershed function to
the formulation of land use policies. Moreover, an
improved understanding of
watershed function will be required to ensure that
financial resources expended for
erosion control and watershed restoration measures
are effective.
Specific Research Needs Assess the scope, accessibility, and utility
of existing data bases on watershed
condition.
Document historic and current rates of soil loss, and
identify the factors that contribute
to increased soil loss and stream sedimentation.
Determine the effects of watershed activities
performed in cycles, such as timber
harvest rotations, and activities that are repeated,
such as winter recreation, on the
components of the watershed (vegetation, soils, water
quality, aquatic habitat).
Evaluate differences in watershed responses,
including areas exhibiting both poor and
healthy regeneration, or streams whose channels are
unaffected and significantly
altered after harvest.
Assess the effectiveness of erosion control "best
management practices" (BMPs)
currently in use.
Define time scales for watershed disturbance and
watershed function recovery from
disturbance.
Determine the capacity of forest, riparian, and
wetland habitats to buffer against
deposition of sediments, nutrients, and other
pollutants to streams and lakes.
Identify and quantify the effects of roadways as
sources and conduits for sediment and
nutrient transport, and develop meaningful
correlations with stream sediment data.
Identify what roadway characteristics and
construction techniques or local conditions
contribute to or minimize hillslope erosion and
stream sedimentation.
Survey and map the incidence of significant watershed
disturbance in the Sierra
Nevada.
Identify restoration, enhancement needs and potential
in the Sierra Nevada.
Evaluate the effectiveness of stream and watershed
restoration/enhancement projects
in relation to erosion control, aquatic and riparian
habitat, and watershed function.
Identify additional management options that can be
taken to restore Sierra Nevada
watersheds. Determine obstacles to action and
current scope of activities for
responsible state and federal agencies.
Determine if planning at the watershed level, as
opposed to the bioregional level, is
the most effective and politically acceptable
planning level for restoration purposes.
Identify institutional obstacles to planning at the
most effective level.
Develop a protocol for combining results of
scientific studies with planning decisions.
Research Topic GROUND WATER. What is the condition of ground water
quantity and quality in the
Sierra Nevada? What are the relationships between
surface and ground water in the
protection of aquifers for present and future uses?
Background Ground water quality and quantity are major concerns
statewide. In the Sierra, the
issue is a concern primarily in urbanizing areas and
in drier east side drainages where
surface water is limited. Degraded ground water
quality primarily affects public
health and agriculture, via potential violations of
drinking water standards and
recommended criteria for irrigation and livestock
use. Since numerical objectives have
been established for both these purposes, evaluation
of the resource is theoretically
possible. Similarly, engineering hydrology methods
are available for determining
available volumes of ground water. Human and natural
influences on ground water,
and the effect of this resource on beneficial uses,
are an expressed concern in certain
regions of the Sierra Nevada. Moreover, the
availability and quality of ground water
may also affect the extent and quality of wetland
habitat. This is particularly relevant
for the eastern Sierra.
Specific Research Needs Determine the extent and geographic
distribution of contaminated wells/aquifers,
defined as those exceeding state and federal
water quality criteria, using existing data.
Identify specific contaminants that exceed
criteria and determine the most likely sources
and opportunities to improve conditions.
Analyze data to determine if ground water
contamination in the Sierra Nevada is
localized or a widespread phenomenon.
Define the role of agricultural drainage, mining,
natural geology, and industrial/urban
pollution in ground water contamination.
Define wellhead protection zones and land use
restrictions, if necessary to protect the
integrity of an aquifer.
Collate existing data on ground water quantity in the
Sierra Nevada to identify those
areas where urbanization may be limited by ground
water availability.
Identify watershed practices that adversely affect
ground water recharge.
IMPACT ASSESSMENT AND MONITORING
Research Topic LAND CLASSIFICATION. Identify locations and extent of
management problems,
high-risk hazard areas, public and private ownership,
and land management policies.
Develop a usable land classification and assessment
system from the data that is linked
to a computerized database or geographic information
system.
Background One of the keys to effective scientific research in the
Sierra is the link between data
and the regulatory systems governing land ownership,
land use activities, and public
infrastructure. Information dissemination is a
critical part of that link. On a region-
wide basis, a common land use classification system
used or recognized by all land
planning/management agencies would facilitate
coordination of land and resource
management, cultural and social information sharing,
and hazard avoidance or
response (including issues related to avalanche,
debris flow, wildfire, access roads,
and trans-Sierra access in winter), particularly if
the data were electronically accessible
and regularly updated. A coordinated land use
classification and geographic
information system (GIS) that combines resource
information with land use regulations
can: (1) provide an effective means of interagency
information sharing (see also
Planning and Management Decision Making, pages
11-14); (2) indicate necessary
development and use constraints; (3) assist in
assessment of cumulative impacts; and
(4) lead to definitions of carrying capacity for
regions (see also Biodiversity and
Disturbance, page 20).
One focus of the Sierra Nevada Ecosystem Project
(SNEP) is the development of a
pilot mapping and analysis project. Any GIS
developed as part of this research
program should incorporate information gained from
the SNEP.
Specific Research Needs Review classification systems and GIS already
available and in use. Evaluate the
suitability of available information layers
and the technical and economic feasibility
of filling gaps or of developing information
that is more representative of existing
conditions.
Investigate ways to ensure the affordability,
accessibility, and compatibility of GIS for
use by a range of agencies and both large and small
communities.
Evaluate the feasibility and utility of using a
single, comprehensive map as an all-
around planning tool. Develop a protocol to ensure
that policy makers have access to
a family of maps. Evaluate the feasibility and
utility of publishing maps that can be
widely used by different agencies, encouraging
interagency consistency.
Research Topic SURFACE WATER MANAGEMENT. How do our management
activities affect
quantity and quality of surface water? What changes
need to be made in surface water
management to ensure the integrity of the resource?
How can cumulative watershed
impacts be assessed?
Background Surface waters (lakes, streams, and reservoirs) provide
crucial benefits to both humans
and wildlife, and are managed for both quality and
quantity. The Sierra supplies
approximately 50% of the state's water supply, yet a
relatively small portion of
monitoring takes place in the region. Demand is
great for drinking water and
agricultural water, and in general, water bodies in
the Sierra Nevada are highly
sensitive to environmental damage. Management of
these resources occurs at several
levels, including municipal, county, state, and
federal. Management and use of
surface water directly and indirectly affects
watershed function (see Watershed
Function, page 22).
Because the demand for water continues to grow,
agencies responsible for managing
Sierra watersheds, particularly the U. S. Forest
Service, are under substantial pressure
to find ways to increase the annual water yield from
existing watersheds, and to delay
the yield into the high-demand months. The potential
impacts of attempts to increase
water yields are not well understood. In addition,
cumulative impacts are occurring
in watersheds throughout the Sierra as a result of
many land and water activities,
including timber harvest, grazing, mining, water
development, recreation, road
building, and urban development. The methods
currently employed to predict water
yield and cumulative watershed effects (CWE) from
forest management practices
include a number of theoretical models that are not
generally tested with or calibrated
against field data. Furthermore, no general model
exists for integrating the effects of
different activities in a CWE analysis.
Specific Research Needs Evaluate the missions and objectives of the
various water resource agencies for
consistency, and develop recommendations to
better coordinate and integrate
management goals.
Coordinate collection, scientific evaluation, and
dissemination of lake and stream
water quality assessment data.
Develop methods for connecting processes on land with
effects in water (see also
Watershed Function, page 22). For example, determine
statistical relationships
between natural, geomorphic characteristics of
watersheds, characteristics of
urbanization, and sediment and nutrient load to
receiving waters.
Determine the effects of upstream riparian and
watershed manipulations, such as
stream bank stabilization and other restoration
methods, or vegetation management,
on water yields and timing, water quality, overall
ecosystem health, and the economic
values to downstream users.
Develop a comprehensive index to assess watershed and
stream "health" including
fisheries, benthic communities, and aquatic
biodiversity, to identify priorities for
preservation, restoration, or management
intervention.
Initiate long-term monitoring in key Sierra
watersheds to determine periods and
locations of degradation, recovery, or stability over
long periods. Identify monitoring
that is currently being conducted, and determine if
modification of monitoring methods
is necessary. Determine whether there are
applications for information already
gathered, or necessary modifications of existing data
collection and monitoring.
Determine whether standardized monitoring of
watersheds among agencies is feasible
to produce meaningful, comparable, and defensible
results.
Determine whether volunteers can conduct accurate
watershed monitoring using
agreed-upon techniques. Establish a protocol, train
volunteers, and test their work
with a control. Evaluate reliability of results.
Determine validity of "threshold of concern" criteria
presently being used by the U. S.
Forest Service. Evaluate how they are measured, how
they are used to affect future
decisions in a watershed, and whether they are
effective and useful for decision
making.
Examine the environmental impact assessment methods
of state and federal agencies
to determine possible inconsistencies and gaps.
Evaluate the consistency and adequacy of cumulative
watershed effects (CWE) analysis
methods, and refine models, if necessary. Begin
field collection of data to test existing
CWE analysis and calibrate with field data.
Develop methods to improve predictions of water
yield. Identify limitations of current
models and calibrate with field data. Assess the
impacts of efforts to increase water
yield for downstream uses.
Develop scalable impact assessment methods through
which analyses of smaller
drainages can be integrated into large-scale basin
analyses. Identify limitations of the
applications.
Evaluate potential changes in gravel mining
regulations and establishment of incentives
to accommodate the need for aggregate while
minimizing bed and bank erosion and
protecting riparian resources.
Assess potential changes in reservoir operations to
protect instream resources while
providing water to downstream users.
Evaluate water and bottom sediment quality in the
major foothill reservoirs. Evaluate
rates of reservoir capacity loss due to watershed
erosion and other activities in alpine
and subalpine watersheds. Assess alternative
management strategies.
Determine losses of biodiversity in aquatic habitats
due to long-term single- or few-
species management for native and non-native game
fish.
Research Topic AIR QUALITY. What are the impacts of local and
transported air pollution, including
acid precipitation, fog, ozone, and smoke, on the
hydrologic system, vegetation, and
wildlife? How can the existing monitoring system be
improved?
Background Air quality in the Sierra Nevada has degraded to the point
that human health is now
threatened. Poor air quality also has the potential
to degrade recreational resources,
vegetation, watershed function, and overall ecosystem
health. Many of the
mechanisms of pollutant transport into the Sierra
Nevada ecosystem from coastal
population centers and agricultural regions of the
Central Valley, where most of the
pollutants originate, have been documented.
Pollutant levels are often higher in the
Sierra Nevada than they are at their sources outside
of the Sierra. Simultaneously,
airborne pollutants within the Sierra Nevada are
generated at local population centers,
such as Yosemite Valley and Lake Tahoe, and in
regions where wind-blown soils from
dry lake beds, such as Mono Lake and Owens Lake,
result in degraded air quality.
Smoke is an additional source of air quality
degradation. There are three major
sources of smoke in the Sierra Nevada range: natural
and managed forest fires, resi-
dential/commercial/industrial wood burning, and smoke
transported into the mountains
from other areas, particularly the Central Valley.
There is abundant data on the gross
violations of air quality standards in wildfires.
However, data are sparse for controlled
fires and for point sources such as wood stoves, and
often do not accurately reflect the
ambient air quality. Complex topography also hinders
effective monitoring.
Furthermore, recent studies have shown that federal
and state air quality standards,
designed for urban areas, are not adequate to protect
Sierra resources. Impacts of air
quality degradation include: acid rain, ozone injury
to forests and other vegetation,
visibility reduction, and lake eutrophication.
Specific Research Needs Document the status and distribution of air
quality problems and trends in mapped or
GIS form (see also Land Classification,
page 24).
Identify indicators of air pollution in the Sierra
Nevada that can be routinely quantified
and that provide numerical measures of air quality.
Review adequacy of air quality monitoring stations,
including the distribution,
constituents measured, and methods of measure.
Assess the importance of pollutants generated outside
the Sierra relative to those
produced within the ecoregion. Quantify the relative
contribution of each source to
Sierra Nevada air pollution.
Evaluate the effects of prescribed burns on air
quality to determine burning strategies,
such as altering timing, that minimize adverse air
quality impacts. Quantify the control
costs versus air quality costs and benefits of
various prescribed burning strategies.
Determine the contribution of wood burning stoves and
automobile exhaust to overall
air pollution and environmental damage.
Determine the extent to which pesticide residue from
atmospheric transport already
affects biota and human populations in the Sierra
Nevada.
Identify educational needs for the general public as
well as for decision-makers
statewide to highlight the role of locally- and
externally-produced air pollution on the
Sierra Nevada ecoregion.
Identify limitations of existing air quality
standards for the Sierra Nevada ecosystem,
and develop standards addressing conditions in the
Sierra Nevada.
Improve understanding of ozone production, transport,
and deposition state-wide, with
particular emphasis on the role of natural
meteorological patterns and events.
Compile existing data on acid deposition,
distribution of acid-sensitive lakes, and
observed impacts.
Determine the role of atmospheric deposition in the
eutrophication of Sierra Nevada
lakes.
Estimate the roles of unvegetated and disturbed lands
in the production of air pollutants
(dust) and in the loss of CO2 uptake capacity.
Determine the mechanisms by which watershed
vegetation and soil trap air pollutants
and act as a buffer for pollutants entering streams.
Determine the extent to which air pollution
contributes to cumulative stress on Sierra
Nevada biota.
Determine the concentrations of airborne pollutants
in water that recharges surface
and ground water supplies.
Research Topic VEGETATION MONITORING AND ASSESSMENT. Develop a system
for
evaluating vegetation conditions, both for
project-level planning and for assessing
overall changes to the resource.
Background Because of the fundamental role played by vegetation in
supporting animal com-
munities, defining ecological habitat, and providing
a renewable resource, vegetation
maps are a cornerstone for resource utilization
models and development of policy in
the Sierra Nevada. Unless these maps are produced in
an unbiased and scientifically
defensible manner, resource management decisions made
on the basis of these maps
will be open to question. Criteria used to inventory
vegetation may be influenced by
the desired purpose of the map.
Specific Research Needs Conduct a comprehensive review of the
scientific literature to determine "tried-and-
true" as well as "state-of-the art" techniques
for large-scale vegetation inventory.
Survey individuals or groups that routinely employ
these techniques to further ascertain
advantages and disadvantages of each approach.
Develop additional large-scale mapping techniques,
such as remote sensing or
collection of accurate "ground-truth" data (see also
Land Classification, page 24).
Identify any bias that may exist in the technique
selection process, and make
recommendations for the most robust techniques
applicable to the Sierra Nevada
ecoregion.
Develop techniques to create a comprehensive
vegetation inventory. In addition to an
overall vegetation map, specific distributional maps
are needed for a variety of
subcategories, such as: sensitive plants,
late-successional forests, logging practices
and fire damage, special plant communities (including
aspen and cottonwood), and
relative health and historic change in health of
vegetative communities.
Determine the areal extent of vegetation damage
resulting from ozone injury (see Air
Quality, page 27); identify species or plant
communities that are particularly
susceptible to damage; evaluate damage to the
ecosystem; and assess plant recovery
in order to improve the understanding of the biology
and ecology of ozone injury.
Research Topic WILDLIFE MONITORING AND ASSESSMENT. Evaluate the
current wildlife
habitat modeling and monitoring database, Wildlife
Habitat Relationships (WHR), to
improve the model or suggest alternative approaches.
Background When evaluating current conditions or considering desired
outcomes for a landscape,
one of the principal concerns is to evaluate the
quality of the landscape in terms of a
variety of wildlife species. The primary tool to
date is the WHR database, developed
by the state of California. WHR is based on
presence/absence data for more than 600
species in broad habitat categories. There are many
weaknesses in this system,
including: (1) classifications that are too broad;
(2) presence/absence classifications
that have little to do with actual quality; and (3)
lack of a spatial component, because
all habitat blocks are considered equal regardless of
their size and degree of isolation.
Specific Research Needs Develop a more sophisticated vegetation
classification system to associate with future
WHR models (see also Land Classification,
page 24, and Vegetation Monitoring and
Assessment, page 29).
Develop models that are linked to species presence
and habitat quality, based on
specific needs of the organism.
Develop numerical and statistical relationships that
address, for a given species, the
quality of a block of habitat based on its size and
location within the landscape.
Research Topic ROAD DENSITY AND LANDSCAPE FRAGMENTATION. What are the
impacts
of road density and landscape fragmentation resulting
>from road construction, urban
development, logging, and water development, as well
as human population pressures
on wildlife, watersheds, vegetation, riparian
systems, and water quality?
Background Wildlife populations are dependent on the availability of
habitat in suitable sizes and
distributions (see also Wildlife Monitoring and
Assessment, page 29). Road
construction, urban development, timber harvest, and
water development can result
in fragmentation of the habitat, which effectively
degrades habitat quality. This
problem is particularly acute for migrating wildlife
or species that require large core
areas of undisturbed habitat. Deer populations, for
example, have plummeted with
increased development in the Sierra.
Evaluate changes that have occurred in wildlife
populations and road density by
comparing several large watersheds over a time
sequence from wildland and unroaded,
to a dense road network. Determine whether the
changes are correlated.
Evaluate the benefits of seasonal road closures on
wildlife populations.
Determine whether human population densities
adversely affect wildlife population
distributions.
Develop acceptable mechanisms for reducing the impact
of expanding human
population pressure on wildlife populations.
Determine what role wildlife corridors play, and
where they may be needed to enhance
wildlife movement.
Research Topic EXTERNAL FACTORS/COMMODITY PRODUCTION. How does
external use of
and/or demands for Sierra Nevada resources influence
commodity production
pressures? What are the ecological effects of
commodity resource production in the
Sierra Nevada? Can the impacts of external demand be
predicted or modeled, and can
they be mitigated?
Background Livestock grazing, timber harvesting, and mining are among
the commodity production
activities that have long been in the Sierra Nevada's
history. These activities comprise
a substantial portion of the economic activity (see
Socioeconomic Conditions and
Changes, page 14, and Resource Extraction/Exports,
page 19). Ways to mitigate the
effects of these activities on the ecosystem are
poorly understood. Sometimes these
activities create conflicts with other management
goals in the Sierra (see Surface Water
Management, page 25). As the amount of land
available for commodity production
decreases, the pressure on remaining lands increases.
Commodity resources from the Sierra Nevada are
heavily used by people who live
outside the boundaries of the Sierra. As the
population grows in the Central Valley,
coastal California, and Nevada, significantly greater
demands are being made on the
water, timber, minerals, forage, wildlife, and
recreational resources of the mountains.
As a result, both water quality and quantity are
reduced, air quality is declining, and
overall forest health is threatened. Congestion,
high costs of living, and pollution
elsewhere in the state are strong contributing
factors in migration to the Sierra. Sierra
Nevada residents, resource managers, and others are
concerned that external demands
and pressures threaten the natural environment and
their quality of life.
Specific Research Needs Evaluate how current range and forest
condition and activity compares with historic
condition and activity. Delineate the current
and former extent of the land and re-
source base, and the current land uses of
former commodity production lands.
Analyze soil and water impacts from commodity
production in various Sierra sub-
ecosystems. Determine how and why commodity
production pressures differ across the
Sierra.
Determine whether commodity production activities
affect threatened and endangered
plant populations. Assess whether activities that
are currently taking place on a small
scale, such as harvesting of deer grass, bear grass,
mushrooms, stonefly larvae, and
ladybugs, could threaten species if activity
intensifies. Determine, if possible, when
a low-impact demand may become detrimental.
Determine the effects of commodity production
activities on the condition of riparian
corridors.
Map and document areas in the ecosystem where
degradation has occurred due to
commodity production, to determine whether a pattern
to this degradation exists.
Determine the conditions under which production
pressures prevent reasonable
regeneration of biotic and physical resources, and
the conditions under which pressures
are within limits that the resources can carry
without loss in regenerative capacity.
Develop a means to reduce negative impacts of
commodity production. Identify
managerial approaches that sustain resources at
higher levels of pressure, as well as
approaches that cause damage at low levels of
pressure.
Determine how market or policy conditions, or
particular policies, affect commodity
production pressures.
Determine the dominant external uses and demands for
Sierra resources, including
timber and water, and estimate future levels of use
and demand.
Characterize other external non-use/demand factors
that affect the Sierra (such as air
quality), and develop models to assess or predict
their impacts.
Classify uses as extractive and non-extractive, and
the extractive uses as renewable and
non-renewable. Some uses and resources will fall
into both categories; water is
renewable annually but streams and rivers are
non-renewable resources that disappear
when dammed.
Describe the scale and trends of commodity production
over the past 20 years, as well
as earlier periods. What baseline data exists and
what needs to be collected to utilize
it?
Identify geographic areas or resources that are most
at risk from commodity production
activities, either currently or in the short term.
Identify conditions and/or circumstances that have
led to local innovation as a response
to resource use or management conflicts.
Predict future external uses and demands and impacts.
Develop models, if possible,
to show how future human population growth and
demands outside of the Sierra,
especially in the Central Valley, will affect the
resources in the future. Identify areas
or resources potentially at greatest risk over the
long term.
Identify land use and growth management policies at
the state level that can mitigate
or better manage negative impacts.
Explain the differential impacts of external uses and
demands among the geographic
regions of the Sierra. Define the circumstances in
which critical problems and notable
successes arise. Assess the effects of state growth
management and land use policies.
Analyze the effects of growth in the major urban
areas on the need for roads in the
Sierra.
Develop measures that can be taken outside of the
Sierra, such as water conservation
and adjustments to water pricing, to ensure that
commodity production and resource
protection are both in balance and are economically
feasible for Sierra communities.
Research Topic FIRE MANAGEMENT. What are the environmental, economic,
and social impacts
of natural and managed fire in the ecosystem? What
are the costs of fire management?
How can we model its effects to lead us to effective
management decisions? Background Under natural conditions, fires
periodically altered the Sierra environment. Thus, the
vegetation evolved under a fire regime. Native
Americans used fire extensively in
their management of the landscape, and still practice
some fire management today.
Extensive human settlement of the Sierra necessitates
some fire suppression today.
Attempts to mimic natural conditions with introduced
fire may result in additional
environmental consequences, including degraded air
quality. Sierra ecosystems vary
widely, from hot and dry to cold and wet, and the
fire regimes also vary accordingly.
The historic (presettlement) fire regimes of the
ranges of Sierra ecosystems and
vegetation types, as well as the historic and current
fire management techniques
practiced by Native Americans, must be understood to
adequately evaluate the effects
of prescribed burning or fire reintroduction.
Specific Research Needs Identify the ecological functions that natural
fire performs in the various ecosystems
of the Sierra, and the extent to which our
current fire management activities perform
these functions.
Define the role of fire and how it has changed in the
ecosystem in the last 200 years.
Evaluate how fire suppression and managed fires have
affected resources and
ecosystem health in various vegetation types in the
Sierra.
Determine whether fire and vegetation management
methods used by Native Americans
should be reinstated, and under what conditions, to
achieve today's vegetation
management goals.
Evaluate the effectiveness of our current fire
management methods. Determine whether
the management methods of various agencies with fire
protection jurisdiction, such as
the U.S. Forest Service, California Department of
Forestry, and California Department
of Parks and Recreation, are complementary, and
whether the different practices of
agencies are compatible.
Evaluate fire management alternatives and the social,
economic, and ecologic costs
and benefits of alternatives. Identify the
circumstances, such as different vegetation
types and land allocations, under which different
alternatives may be effective.
Assess relationships between the costs of prescribed
burning and the scale of the burn.
Determine cost-effectiveness of treating a stand or a
watershed.
Identify surrogates for fire that may be used in the
Sierra (for example, manual
removal of fuels), and evaluate the potential adverse
environmental impacts, as well
as the effectiveness and costs compared with those
for prescribed burning.
Delineate the benefits from fire reintroduction and
the potential savings derived from
the lowered probability of catastrophic fire.
Determine how spatial modeling of fire behavior and
spread, burning prescriptions,
and landscape conditions can improve the management
planning process.
Develop GIS-based spatial models that can predict
fire effects on ecosystems and fire
behavior and spread.
Research Topic INFRASTRUCTURE DEVELOPMENT. What are the environmental
and growth-
inducing impacts of infrastructure development such
as roads, schools, water, and
other utilities? How and where should infrastructure
be developed?
Background Infrastructure needs are based on projected levels of
growth (see also Financing Rural
Services, page 17). Besides determining future needs
for development of infra-
structure, however, we should be investigating the
environmental impacts of
infrastructure development. Often infrastructure
development has very severe
environmental impacts, such as the impact of dams on
the salmon populations.
Also related to infrastructure are services and
issues of hazard prevention and
response, particularly avalanche and debris flow
hazards, volcanic hazards, and
wildfires. Most services that support both urban and
suburban development cannot be
installed incrementally. Thus, infrastructure
development is generally installed with
a capacity beyond the existing demand, which has a
tendency to induce additional
growth. Impacts often extend beyond the local
community. For example, new
roadways can spur growth in adjacent areas. Road
development in particular tends to
influence development throughout the Sierra region,
and growth inevitably follows
road construction. Thus, decisions about new highway
locations are, in effect,
decisions about where growth will be allowed. Water
development decisions also
significantly affect the local environment (see also
Watershed Function and Surface
Water Management, pages 22 and 25). Some impacts,
such as hazardous waste
management, comprise a larger statewide problem that
are not completely understood.
Specific Research Needs Evaluate the adverse biological and
environmental impacts, induced impacts, and
cumulative impacts of infrastructure
development. Identify ways to reduce these
impacts.
Identify useful locations for infrastructure
development, and develop incentives to
encourage development in the areas of least impact.
Identify and analyze the factors that influence how
much growth, especially strip
commercial development, occurs as a result of road
construction. Develop ways to
accommodate existing pressure on roads, including
trans-Sierra winter access, without
inducing more growth or causing additional landscape
fragmentation.
Determine how much and what type of growth occurs
>from road construction. Identify
areas that should be protected from road construction
and develop ways to protect
those areas where there is a need to construct new
roads.
Evaluate the cumulative and statewide impacts of
regional road building.
Evaluate problems in hazardous/non-hazardous waste
management and legal
implications.
Identify effects on local communities and
environments of water development projects
and changes in dam operations.
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County forest land findings and recommendations of the board of
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Alpine County Forest Lands Advisory Committee. 1992. Forests in
crisis: eastern Alpine County: a report by the Alpine County Forest
Lands Advisory Committee. September.
Anderson, Kat. 1993. Indian fire-based management in the
sequoia-mixed conifer forests of the central and southern Sierra
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Anderson, M. Kat. 1993. The mountains smell like fire. Fremontia.
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Surface Transportation Policy Project Bulletin. Vol. III, No. 7.
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Belzer, D. and C. Kroll. 1986. New Jobs for the Timber Region:
Economic Diversification for Northern California. Institute for
Governmental Studies. University of California, Berkeley.
Blackburn, Thomas C., and Kat Anderson. 1993. Before the Wilderness:
Environmental Management by Native Californians. Anthropological
Papers No. 40. Ballena Press, Novato, CA.
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Transportation Policy Project Bulletin. Vol. III, No. 7. Sept. 1993.
California Indian Basketweavers Association Newsletter. Nos. 3, 6,
June 1993, April 1994. Nevada City, CA.
California Research Bureau. 1993. Background brief on forests in
California. July 22.
Carver, Richard L. 1993. Nye County (NV) Board of Supervisors.
Memorandum to Robert Miller, Bruce Babbitt, Michael Espy, Jim Baca,
and David Unger, regarding public land and other matters. November 5.
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management for water augmentation. Water Resources Bulletin.
November.
Duane, Timothy P. 1993. Managing the Sierra Nevada. In Kirlin, John
J., editor. California policy choices. University of Southern
California School of Public Administration. Sacramento, CA.
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of water retention capability in the upper Feather River Watershed.
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California's challenges and opportunities. California Governor's
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Hayward, William C. 1993. United States federal land: its origin,
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Hillyard, Chester, 1993. Lyon County (NV) Board of Commissioners.
Memorandum to Kathy Lucich, Bridgeport Ranger Station, USFS, regarding
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APPENDIX
APPENDIX A
SIERRA NEVADA RESEARCH PLANNING TEAM MEMBERS
Don C. Erman* (X) Director, Wildland Resources Center University of
California, Davis
Janet Parrish (X) Team Coordinator Wildland Resources Center
University of California, Davis
Henry Alden (P) Michigan-California Lumber Co. Camino
Laurel Ames (P) Sierra Nevada Alliance South Lake Tahoe
Art Baggett (P) Supervisor, Mariposa County
Michael Barbour* (S) Dept. of Plant Biology University of California,
Davis
Rex Bloomfield (P,I) Supervisor, Placer County
Thomas Cahill (S) Crocker Nuclear Laboratory University of California,
Davis
Deborah Elliot-Fisk* (S) Natural Reserve System University of
California
Nancy Erman (S) Wildlife and Fisheries Biology University of
California, Davis
Bob Ewing (X) Ca. Dept. of Forestry and Fire Protection
Lenny Gallegos (P,I) Supervisor, Sierra County
Charles Goldman (S) Division of Environmental Studies University of
California, Davis
Bob Gracey (P) Supervisor, Inyo County
Caroline Haigh (X) The Resources Agency State of California
Bob Heald (P) California Board of Forestry
Jack Hess (SW) Desert Research Institute Water Resources Center
University of Nevada, Las Vegas
Jack Ives (S) Dept. of Geography University of California, Davis
Patricia Kelly (SW) California Association for Local Economic
Development
Don Lancaster (S) University of California Cooperative Extension
Andrea Lawrence (P) Supervisor, Mono County
Dennis Machida (X) California Tahoe Conservancy
Kevin McKelvey (S) USFS Pacific Southwest Research Station
Michael and Lillian McRay (P) Calaveras County
Robert Meacher (P) Supervisor, Plumas County
Connie Millar* (S) USFS Pacific Southwest Research Station
Cliff Moriyama (SW,I) California Chamber of Commerce
Peter Morrison (SW) Sierra Biodiversity Institute
Ray Nutting (P) Supervisor, El Dorado County
Terri Ann Pencovic (P) Conservation Chair, Sierra Nevada Group, Sierra
Club California Dept. of Transportation District 3 Environmental
Planner
Bill Reid (P) Supervisor, Mono County
John Reuter (S) Institute of Ecology Lake Tahoe Research Group
University of California, Davis
Jeff Romm (S) Dept. of Environmental Science, Policy and
Management University of California, Berkeley
Christine Sproul (SW) California Deputy Attorney General
G.B. Tucker (P) Supervisor, Nevada County
Robert Twiss (S) Dept. of Landscape Architecture University of
California, Berkeley
Brian West (P,I) Sierra Pacific Industries *Joint SNRP/SNEP
membership
P Public member S Science member SW Statewide member X Ex Officio I
Inactive
D. C. Erman serves as director of both SNRP and the SNEP Science Team
APPENDIX B
COMPARISON OF SNRP AND SNEP
SIERRA NEVADA RESEARCH PLANNING (SNRP) SIERRA NEVADA ECOSYSTEM PROJECT
(SNEP)
Objectives:
Identify and prioritize pressing resource management issues and
information needs for Sierra Nevada.
Incorporate local outreach in the process.
Summarize the existing state of knowledge of those issues.
Formulate recommendations for development of a research administration
program.
Present a report summarizing the process and findings to the public in
Sierra regions, the Sierra Summit Steering Committee and the Executive
Council on Biodiversity. Summarize existing Sierra Nevada ecosystem
information.
Complete a scientific review of remaining old- growth forests.
Identify the benefits humans draw from the Sierra Nevada.
Make information accessible to Sierra users through a database/GIS
system.
After thorough assessment of existing data, develop and assess a range
of alternative management strategies to maintain the health and
sustainability of Sierra ecosystem while providing resources to meet
human needs.
Funding:
California Dept. of Forestry and Fire Protection ($70,000). Congress
($150,000), and the balance from US Forest Service (total $7 million).
Team Composition
Local representatives from Sierra Counties (15 of 32 total members).
Scientists familiar with Sierra issues (12 of 32).
Statewide, at-large interests (5 of 32). Steering committee (6
members). One member on SNRP.
Interdisciplinary science team: biological, physical, social
scientists, policy, law (18 members). Three members on SNRP.
Timing:
6 months (ending June 1994). 30 months (ending December 1995).
APPENDIX B (continued)
SIERRA NEVADA ECOSYSTEM PROJECT SCIENCE TEAM MEMBERS
Don C. Erman, Science Team Director* Wildland Resources Center
University of California, Davis
Michael Barbour* Dept. of Plant Biology University of California,
Davis
Norman Christensen Dean, School of Environment Duke University
Frank Davis Dept. of Geography Univ. of California, Santa Barbara
Jeff Dozier Dept. of Geography Center for Remote Sensing and
Environmental Optics Univ. of California, Santa Barbara
Harrison Dunning School of Law University of California, Davis
Deborah Elliot-Fisk* Natural Reserve System University of California
Jerry Franklin College of Forest Resources University of Washington
David Graber Sequoia/Kings Canyon National Parks
Norman Johnson College of Forestry Oregon State University
John Menke Dept. of Agronomy and Range Science University of
California, Davis
Connie Millar* Institute of Forest Genetics USFS Pacific Southwest
Research Station
Janet Momsen Dept. of Geography University of California, Davis
Peter Moyle Dept. of Wildlife and Fisheries Biology University of
California, Davis
Rowan Rowntree USFS Pacific Southwest Research Station
John Sessions Forest Engineering Dept. Oregon State University
John Tappeiner Bureau of Land Management, Corvallis, Oregon
Susan Ustin Dept. of Land, Air and Water Resources University of
California, Davis
*Joint SNRP/SNEP membership APPENDIX C
INDIVIDUALS CONTACTED DURING DEVELOPMENT
OF RESEARCH QUESTIONS
Marcia Ackerman, Zone Archaeologist, Quincy/Greenville Ranger
Districts, Plumas National Forest Kat Anderson, Horticultural
Ecologist/Ethnobotanist, Stockton Jeff Arthur, Dangermond Associates,
Sacramento Jerry Atchison, Inyo County Planning Commission Mark
Bautista, Chair, Economic Development Advisory Committee, Tuolumne Co.
Airport Manager Thomas W. Beck, Botanist, Stanislaus National Forest
Supervisor's Office Dena Belzer, Bay Area Economics, Berkeley Andy
Benson, Vegetation management, USFS Sequoia National Forest District
Office Al Bent, Inyo County Planning Commission Wendy Bertrand,
Communication specialist, USFS Regional Office, San Francisco Big Pine
Civic Club Bishop Chamber of Commerce Vernon Bleich, California
Department of Fish and Game John Brissenden, Owner, Sorensen's Resort,
Hope Valley John Buckley, Central Sierra Environmental Resource Center
Vern Burandt, Retired, California Department of Fish and Game Scott
Burns, Mono County Planning Director Larry Busby, Executive Director,
Central Sierra Economic Development District Steve Calfee, Planning
Director, City of Placerville California Cattlemen's Association
Richard A. Chase, Research Forester/economist, USFS PSW, Riverside
Peter Chamberlin, Inyo County Planning Director John Chatoian,
Hydrologist, USFS Regional Office, San Francisco Dave Comstock, Author
and Historian Tom Conkle, Geneticist, USFS PSW Albany Jim Crane,
California Forestry Association Sandi Cuneo, Calaveras County Economic
Development Corporation Lynn Decker, Regional Fisheries Program
Leader, USFS Regional Office, San Francisco Mary DeDecker, Botanist,
Inyo County Renee Denton, Range Conservationist, USFS PSW, Fresno Tim
Duane, Landscape Arch./City and Reg'l Planning Depts., Univ. of
Calif., Berkeley Eastern Sierra Packers Association Holly Eddinger,
Fish Biologist, USFS Sequoia National Forest Supervisor's Office Al
Federman, Nevada County George Ferrell, Entomologist, USFS PSW,
Redding Jordan Fisher-Smith, environmental community JoAnn Fites,
Botanist, USFS Eldorado National Forest Supervisor's Office Don
Fullmer, Silviculturist, Sequoia National Forest Supervisor's Office
Jim Gooch, Inyo County Public Works Director Terry Gorton, California
Resources Agency Sara Greensfelder, Executive Director, California
Indian Basket Weaver's Association Sarah Gregory, Fish biologist, USFS
Regional Office, San Francisco Michael Haynie, California Department
of Fish and Game Lib Haraughty, District 3 CalTrans Planning Don
Harkin, Yuba Watershed Institute Brent Harrington, Calaveras County
Administrator Dave Harry, Genetics Unit, USFS PSW, Albany Jerry
Holloway, Inyo County Planning Commission J. Humbach, Pace University
School of Law, NY Independence Civic Club Inyo-Mono Fish and Game
Advisory Commission Don Jacobsen, Sierra Club Conservation Committee,
Sierra Nevada Group Greg James, Inyo County Water Department Director
Don Jardine, Alpine County Supervisor Patrick Johnston, California
State Senator Eric Jong, Alpine County Supervisor Todd Kaufman, Land
Use/Growth Management Policies, California Assembly Office of Research
Scott Kemp, Cattleman Robert Kennedy, Inyo County Environmental Health
Director Scott Kessler, Modoc County Planning Director Jim King,
Pres., Applied Development Economics/Presenter, Governor's Task Force
on Rural Competitiveness Bro Kinloch, Geneticist, USFS PSW, Albany
KNCO Radio, Nevada County G. Mathias Kondolf, Dept. of Landscape
Architecture, University of California, Berkeley Dick Kunstman,
Mariposa Janet LaBoa, Silviculturist, CASPO Coordinator, USFS Tahoe NF
Supervisor's Office Lowell Landowski, Chairman, Sierra Economic
Summit/OHV interest representative Bill Laudenslayer, Wildlife
Biologist, USFS PSW, Fresno Jeannie Lear, Administrative Assistant,
Alpine County Matthew Lechner, Fish Biologist, USFS Sequoia National
Forest Supervisor's Office Gary Lemke, Supervisor, Lassen County
Howard Levine, Grass Valley Planning Commission Tom Lipp, California
Department of Fish and Game Lone Pine Chamber of Commerce Linda Lux,
Regional Historian, USFS Regional Office, San Francisco Bobi Lyon,
Dangermond Associates, Sacramento Patricia Manley, Wildlife Biologist,
USFS Regional Office, San Francisco Kathleen Matthews, Fish Biologist,
USFS PSW, Albany Bruce McGurk, Hydrologist, USFS PSW, Albany Denise
McLemore, Heritage Program, Eldorado National Forest Bill Michaels,
Inyo County Museum Director Robert Michener, Inyo County Planning
Commission Brian Miller, Botanist, USFS Inyo National Forest
Supervisor's Office Paul Miller, Plant pathologist, USFS PSW,
Riverside Paul Miner, California Governor's Office of Planning and
Research Ron Mittelbrun, Director, Amador County Economic Development
Corporation Conrad Montgomery, Community Development Director, City of
Placerville Nevada County Board of Supervisors Pat Noyes, Director,
Office of Local Development, Trade and Commerce Agency Frances Park,
Inyo County Planning Commission David Parsons, formerly, Research
Scientist, Sequoia/Kings Canyon Nat'l Parks (National Biological
Survey) Ray Patton, Director of Empire Mine and Malakoff Diggins State
Park Arlene Pearce, Property Owner Paula Peper, Biological Technician,
urban forestry research, USFS PSW, Albany Richard Perloff, Wildlife
Biologist, USFS Inyo National Forest District Office Bob Pfister,
Social Scientist, USFS PSW Riverside Gary Pigg, Planner, City of
Placerville Phil Pister, Retired Biologist California Department of
Fish and Game William Power, California Department of Fish and Game
Robert F. Powers, Soil Scientist, USFS PSW, Redding Pete Price,
Environmental Specialist, Speaker's Office, California Assembly Trent
Procter, Air Quality Specialist, USFS, Sequoia National Forest
Supervisor's Office Lynn Purvis, GIS Coordinator, Central Sierra
Economic Development District C.J. Ralph, Wildlife Biologist, USFS
PSW, Arcata Larry Rankin, Sierra Club Conservation Committee, Sierra
Nevada Group Nancy Rappaport, Entomologist, USFS PSW, Berkeley Ray
Ratliff, Range Scientist, USFS PSW, Fresno Marilyn Reese, Recreation,
USFS Sequoia National Forest Supervisor's Office Michael Reyna,
Director, State Office of Farmers Home Administration Betty Riley,
Executive Director, Central Sierra Economic Development District Bob
Roan, Project Coordinator, High Sierra Resource Conservation and
Development Area Ken Roby, Hydrologist, Plumas National Forest, USFS
PSW, Albany Rowan Rowntree, Biogeographer and Social Scientist, USFS
PSW, Albany Safiya Samman, Geneticist, NFS Regional Office,
Placerville Station Tamara Sawinski, Range Conservationist, USFS Inyo
National Forest District Office Karen Schambach, Friends Aware of
Wildlife Needs John Sheehan, Plumas Corporation, Quincy Sierra Sun
newspaper Gary Snyder, Yuba Watershed Institute Alan Stahler, Sierra
Club Conservation Committee, Sierra Nevada Group Stanislaus National
Forest District Ranger Paul Stover, Geneticist, USFS Regional Office,
Placerville Station Andy Thomas, Sierra Club Conservation Committee,
Sierra Nevada Group Richard Thomas, Chair, Sierra Nevada Group,
Conservation Committee, Sierra Club Leonard Turnbaugh, Alpine County
Administrative Officer Jan van Wagtendonk, National Biological
Survey/Yosemite National Park Research Scientist Kathy Vanzuuk,
Botanist, USFS Tahoe National Forest Supervisor's Office Jerry Verner,
Wildlife Biologist, USFS PSW, Fresno C. Brent Wallace, Inyo County
Administrator Phil Weatherspoon, Fire Ecologist, USFS PSW Redding Jim
Weir, Nevada County Board of Supervisors Bob Westfall, Geneticist,
USFS PSW Albany Ann Westling, Public Information Officer, Eldorado
National Forest Jim Wilcox, Plumas Corporation, Quincy Leah Wills,
Plumas Corporation, Quincy Wallace Wollfenden, Archaeologist/Research
Paleoecologist, USFS Inyo NF District Office
A request for responses was sent through U.S. Forest Service e-mail
to: Pacific Southwest Range and Experiment Station, Albany, Arcata,
Redding, Fresno, Riverside, and Field Units; Region 5 (California)
ecologists and botanists, Research Natural Areas committee, Los Ochos
(Region 5 Ecosystem Management Implementation Group), Inyo National
Forest, and individuals with a stated interest in biodiversity.
APPENDIX D
SIERRA SUMMIT BIBLIOGRAPHY
AGRICULTURE
Land in the Balance: The Williamson Act - Costs, Benefits, and
Options. A California Policy Seminar Report. 1989. California
Department of Conservation, Office of Land Conservation, (Parts 1 & 2,
plus executive summary). Agricultural Issues Center. University of
California, Davis. December.
AIR QUALITY
Barone, John B., et al. 1979. A Study of Ambient Aerosols in the
Owens Valley Area. Final Report to the California Air Resources
Board.
Bradford, David F., Christina Swenson, and Malcolm S. Gordon. 1991.
Aquatic Amphibians in the Sierra Nevada: Current Status and Potential
Effects of Acidic Deposition on Populations. Interim report prepared
for the California Air Resources Board, Los Angeles. Environmental
Science/Engineering Program and Department of Biology. University of
California, Los Angeles.
Cahill, T. A., et al. 1990. Spatial and Temporal Trends of Fine
Particles on a Continental Scale: First Results of the U.S. IMPROVE
Network. In S. Masuda and K. Takahashi, editors, Aerosols. Pergamon
Press, New York.
Cahill, Thomas A., and Bruce H. Kusko. Study of Particulate Episodes
at Mono Lake; 1982-84. Executive Summary and Final Report to the
California Air Resources Board on Contract A1-144-32.
Cahill, Thomas A., et al. 1986. Particulate Monitoring for Acid
Deposition at Sequoia National Park, California. Final Report to the
California Air Resources Board on Contract No. A4-124-32.
California Air Resources Board. 1987. Effect of Ozone on Vegetation
and Possible Alternative Ambient Air Quality Standards. Air Resources
Board staff report, March.
California Air Resources Board. 1988, 1989. Health and Welfare
Effects of Acid Deposition in California. Air Resources Board,
Research Division. Part 1: September 1988. Part 2: Technical
Assessment, June 1989.
Carroll, John J., et al. 1991. Sierra Ozone Impact Assessment Study.
Department of Land, Air, and Water Resources. University of
California, Davis. June.
Effects of Air Pollution on Western Forests. 1989. Symposium
proceedings. Air & Waste Management Association, Pittsburgh, PA.
June.
MacKenzie, James J., and Mohamed T. El-Ashry, editors. 1989. Air
Pollution's Toll on Forests and Crops. Yale University Press, New
Haven.
Melack, J. M., et al. 1991. Ecological Consequences of Acidic
Deposition in the Sierra Nevada. In Proceedings of the Third Biennial
Watershed Conference. California Water Resources Center Report No.
75. University of California, Riverside.
RCG/Hagler, Bailly, Inc., and System Application, Inc. 1988. Risk of
California Forests Due to Regional Ozone Pollution. Final report to
the California Air Resources Board on Contract A6-094-32.
Tahoe Regional Planning Agency. 1991. Regional Transportation Plan -
Air Quality Plan for the Lake Tahoe Region. Draft, September.
ECONOMIC DEVELOPMENT
Belzer, D., and C. Kroll. 1986. New Jobs for the Timber Region:
Economic Diversification for Northern California. Institute for
Governmental Studies. University of California, Berkeley.
Berck, Peter, et al. 1989. Instability in Forestry and Forestry
Communities. Unpublished paper. Department of Agricultural and
Resource Economics. University of California, Berkeley. September.
Blakely, Edward J., and Ted K. Bradshaw. 1983. New Challenges for
Rural Economic Development. Institute of Urban and Regional
Development. Working Paper No. 400. January.
Bradshaw, Ted K., and Edward J. Blakely. 1988. Unanticipated
Consequences of Government Programs on Rural Economic Development. In
David L. Brown, et al., editors, Rural Economic Development in the
1980s: Prospects for the Future. U.S. Dept. of Agriculture Economic
Research Service Report No. 69.
ECOSYSTEMS AND BIODIVERSITY
Botkin, Daniel. 1990. Discordant Harmonies; A New Ecology for the
Twenty-First Century. Oxford University Press, New York.
Erman, D. C. 1979. The Impact of People on Wilderness Lakes.
California Agriculture. Vol. 33, p. 25.
Harris, Larry. 1984. The Fragmented Forest: Island Biogeography
Theory and the Preservation of Biotic Diversity. University of
Chicago Press.
Jensen, Deborah B., Margaret Torn, and John Harte. 1990. In Our Own
Hands: A Strategy for Conserving Biological Diversity in California.
California Policy Seminar Research Report.
Jones and Stokes Associates. 1987. Sliding Towards Extinction: The
State of California's Natural Heritage. Sacramento, CA.
Moyle, P. B., and J. E. Williams. 1990. Biodiversity Loss in the
Temperate Zone: Decline of the Native Fish Fauna of California.
Conservation Biology. Vol. 4, No. 3, pp. 275-84.
National Academy of Sciences. 1987. The Mono Basin Ecosystem:
Effects of Changing Lake Level. National Academy Press, Washington,
D.C.
Odion, D. C., T. L. Dudley, and C. M. D'Antonio. 1988. Cattle
Grazing in Southeastern Sierra Meadows: Ecosystem Change and Prospects
for Recovery. In C. A. Hall, and V. Doyle-Jones, editors, Plant
Biology of Eastern California, Natural History of the White-Inyo
Range. Symposium Volume 2. White Mountain Research Station,
Department of Geology. University of California, Los Angeles.
Warner, R. E., and K. E. Hendrix, editors. 1984. California Riparian
Systems: Ecology, Conservation, and Productive Management. University
of California Press, Berkeley, CA.
ENVIRONMENTAL ECONOMICS
Loomis, John B. 1989. A More Complete Accounting of Costs and
Benefits from Timber Sales. Journal of Forestry. Vol. 87, No. 3,
March, pp. 19-23.
Loomis, John B. 1989. Quantifying the Economic Value of Public Trust
Resources Using the Contingent Valuation Method: A Case Study of the
Mono Lake Decision. In Transactions of the 54th North American
Wildlife and Natural Resources Conference, pp. 213-23.
Loomis, John, and Joseph Cooper. 1990. Economic Benefits of Instream
Flow to Fisheries: A Case Study of California's Feather River.
Rivers. Vol. 1, No. 1, pp. 23-30.
Loomis, J., M. Creel, and J. Cooper. 1989. Economic Benefits of Deer
in California: Hunting and Viewing Values. Division of Environmental
Studies. University of California, Davis.
Loomis, John B., Eric R. Loft, Douglas R. Updike, and John G. Kie.
1991. Cattle-Deer Interactions in the Sierra- Nevada Bio-economic
Approach. Journal of Range Management. Vol. 44, No. 4, pp. 395-99.
Loomis, John, Douglas Updike, and William Unkel. 1989. Consumptive
and Nonconsumptive Values of a Game Animal: the Case of California
Deer. In Transactions of the 54th North American Wildlife and Natural
Resources Conference, pp. 640-50.
Rubin, Jonathan, Gloria Helfand, and John Loomis. 1991. A
Benefit-Cost Analysis of the Northern Spotted Owl: Results from a
Contingent Valuation Survey. Unpublished.
Schulze, W., et al. 1983. The Economic Benefits of Preserving
Visibility in the National Parklands of the Southwest. Natural
Resources Journal. Vol. 23, pp. 149-73.
FORESTS AND RANGELANDS
Bolsinger, Charles. 1988. The Hardwoods of California: Timberland,
Woodland, and Savannahs. USDA Forest Service, Pacific Northwest Forest
and Range Experiment Station, Portland, Oregon.
Bradley, Gordon A., editor. 1984. Land Use and Forest Resources in a
Changing Environment: The Urban/Forest Interface. University of
Washington Press, Seattle.
Burcham, L. T. 1981. California Rangeland. Center for Archeological
Research, Publication No. 7. University of California, Davis.
California Department of Forestry and Fire Protection (CDF). 1988.
Forest and Rangelands Resource Assessment Program. California's
Forests and Rangelands: Conflict over Changing Uses. July.
California Department of Forestry and Fire Protection (CDF), Forest
and Rangelands Resources Assessment Program. 1990. A Policy
Statement to Address Growing Conflict Over Changing Uses on
California's Forests and Rangelands, 1990-1995. January.
Callaham, Robert Z. 1985. California's Shrublands: A Vast Area in
Transition and Need. Wildland Resources Center Report No. 5.
University of California, Berkeley. February.
Callaham, Robert Z. 1989. Needed Research and Extension for
California's Forestlands, Rangelands, and Deserts. Wildland Resources
Center Report No. 20. University of California, Berkeley. September.
Clary, David A. 1986. Timber and the Forest Service. University of
Kansas, Lawrence, Kansas.
Dana, Samuel Trask, and Sally Fairfax. 1980. Forest Range and
Policy: Its Development in the United States. McGraw-Hill, New York.
Fortmann, Louise P., and L. Huntsinger. 1985. California's Oak
Woodlands: Owners, Use, and Management. Unpublished report by
University of California Cooperative Extension. University of
California, Berkeley.
Hahn, Benjamin, J. Douglas Post, and Charles B. White. 1978.
National Forest Resource Management: A Handbook for Public Input and
Review. Stanford Law School, Environmental Law Society. Stanford
University.
McCashion, John D., and Raymond M. Rice. 1983. Erosion on Logging
Roads in Northwestern California: How Much is Avoidable? Journal of
Forestry. Vol. 81, No. 1, January, pp. 23-26.
Romm, Jeff, et al. 1987. The Economic Value of Water in National
Forest Management. In Proceedings of the California Watershed
Management Conference. Wildland Resources Center Report No. 11.
University of California, Berkeley, pp. 89-102.
Teeguarden, Dennis, P. Casamajor, and J. Zivnuska. 1960. Timber
Marketing and Land Ownership in the Central Sierra Nevada Region.
California Agricultural Experiment Station Bulletin 774. University
of California, Berkeley.
Teeguarden, Dennis. 1982. A Public Corporation Model for Public Land
Management Politics versus Policy: the Public Lands Dilemma. Utah
State University, Logan, Utah.
Vaux, H. J. 1983. State Interventions on Private Forests in
California. In R. Sedgo, editor, Social Needs and the Management of
U.S. Forests. Resources for the Future, Washington, D.C., pp. 124-68.
NATURAL HISTORY
Airola, D. Guide to the California Wildlife Habitat Relationships
System. California Department of Fish and Game, Rancho Cordova, CA.
In press.
Engbeck, Joseph H., Jr. 1973. The Enduring Giants. California
Department of Parks and Recreation, Sacramento, CA.
Hill, Mary. 1975. Geology of the Sierra Nevada. University of
California Press, Berkeley, CA.
Storer, Tracy, and Robert Usinger. 1966. Sierra Nevada Natural
History. University of California Press, Berkeley, CA.
Verner, Jared, and Allan S. Boss, editors. 1980. California Wildlife
and their Habitats: Western Sierra Nevada. USDA Forest Service Gen.
Tech. Report PSW-37. Pacific Southwest Forest and Range Experimental
Station.
Weeden, Norman. 1981. A Sierra Nevada Flora. Wilderness Press,
Berkeley, CA.
POLITICAL SCIENCE
McCarthy, Catherine, Paul Sabatier, and John Loomis. 1991.
Attitudinal Change in the Forest Service: 1960-1990. Paper prepared
for delivery at the 1991 Annual Meeting of the Western Political
Science Association, Seattle, Washington. March 21-23.
Sabatier, Paul, John Loomis, and Catherine McCarthy. 1990.
Professional Norms, Hierarchical Controls, and External
Constituencies. Paper prepared for delivery at the 1990 Annual
Meeting of the American Political Science Association. August 30 -
September 2.
PARKS & RECREATION
California Department of Parks and Recreation. 1991. Statistical
Report - Fiscal Year 1989/1990. Unpublished report.
California Department of Parks and Recreation. 1990. Visitor's Guide
to California State Parks. Department of Parks and Recreation,
Sacramento, CA.
Engbeck, Joseph H., Jr. 1980. State Parks of California from 1864 to
the Present. Graphic Arts Center Publishing Co., Portland, Oregon.
Lee, Martha E., and Perry J. Brown. 1991. An Analysis,
Interpretation, and Report of Recreational User Data Collected on the
Inyo National Forest During Summer 1989. Draft Final Report Submitted
to the U.S. Forest Service, Pacific Southwest Forest and Range
Experimental Station, Riverside, California. February.
Sax, Joseph. 1980. Mountains without Handrails: Reflections on the
National Parks. University of Michigan Press, Ann Arbor.
Tilden, Freeman. 1982. The National Parks. Knopf, New York.
POPULATION AND EMPLOYMENT
California Department of Finance. California Statistical Abstracts.
Department of Finance, Economic Research Unit. Sacramento, CA.
Published annually in October.
California Department of Finance. Driver's License Address Changes.
Department of Finance, Demographic Unit. Sacramento, CA. Published
annually in August.
California Department of Finance. Economic Report of the Governor.
Department of Finance, Economic Research Unit. Sacramento, CA.
Published annually in June.
California Department of Finance. 1991. Household Projections for
California Counties. Department of Finance, Demographic Unit.
Sacramento, CA. May.
California Department of Finance. Population Estimates of California
Counties. Department of Finance, Demographic Unit. Sacramento, CA.
Published annually in March.
California Department of Finance. 1991. Population Projections for
California State and Counties. Department of Finance, Demographic
Unit. Sacramento, CA. April.
California Department of Finance. Total Military and Civilian
Population Crude Rates and Components of Change. Department of
Finance, Demographic Unit. Sacramento, CA. Published annually in
February.
California Employment Development Department. Monthly Labor
Conditions in California. Employment Development Department, Labor
Market Information Division. Sacramento, CA. Published monthly.
Center for the Continuing Study of the California Economy (CCSCE).
1991. California Economic Growth. CCSCE, San Francisco, CA.
Center for the Continuing Study of the California Economy (CCSCE).
1991. California Population Characteristics. CCSCE, San Francisco.
Center for the Continuing Study of the California Economy (CCSCE).
1991. California County Projections. CCSCE, San Francisco.
Fay, James S., and Stephanie W. Fay, editors. 1990. California
Almanac. Pacific Data Resources, Santa Barbara, CA.
PUBLIC LANDS
Clawson, Marion. 1983. The Federal Lands Revisited. Resources for
the Future. Johns Hopkins Press, Washington, D.C.
Fairfax, Sally K., and C. E. Yale. 1987. Federal Lands. Island
Press, Washington, D.C.
Wilkinson, Charles F. 1981. The Public Trust Doctrine in Public Land
Law. In Harrison C. Dunning, editor, The Public Trust Doctrine in
Natural Resources Law and Management. University of California,
Davis, pp. 169-202.
REGIONAL PLANNING
Carter, Harold O., and Carole Frank Nuckton, editors. 1990.
California Central Valley - Confluence of Change. Agricultural Issues
Center. University of California, Davis.
Kirkin, John J., and Donald R. Winkler, editors. 1990. California
Policy Choices. Vol. 6. University of Southern California School of
Public Administration, Los Angeles.
RURAL COMMUNITIES
Blakely, Edward J. 1984. New People in the Woods. In Bradley,
Gordon A., editor, Land Use and Forest Resources in a Changing
Environment: The Urban Forest Interface. University of Washington
Press, Seattle.
Bradshaw, Ted K. 1980. California As a Post-Industrial Society:
Assessing Theories of Future Social Development. Paper presented to
the meetings of the American Association for the Advancement of
Science. January 7.
Bradshaw, Ted K. In the Shadow of Urban Growth: Bifurcation in Rural
California Communities. Institute of Urban and Regional Development.
University of California, Berkeley. In press.
Bradshaw, Ted K. 1986. Social and Economic Development in
California's Forest and Rangelands. University of California,
Berkeley.
Bradshaw, Ted K. and Edward J. Blakely. 1978. Policy Implications of
Changing Life Styles. California Policy Seminar Monograph Number 3.
Institute of Governmental Studies. University of California,
Berkeley.
Bradshaw, Ted, and Edward Blakely. 1981. Resources of Recent
Migrants to Rural Areas for Economic Development: Policy Implications.
University of California, Davis Cooperative Extension.
Bradshaw, Ted, and Edward Blakely. 1979. Rural Communities in
Advanced Industrial Society. Praeger, New York.
Carter, Harold O., and Julie Spezia, editors. 1991. People
Pressures: California's Central Valley. Agricultural Issues Center.
University of California, Davis.
Fortmann, Louise. 1988. Predicting Natural Resource Micro-Protest.
Rural Sociology. Vol. 53, No. 3, pp. 357-67.
Fortmann, Louise, and Jonathan Kusel. 1990. New Voices, Old Beliefs:
Forest Environmentalism Among New and Long-Standing Rural Residents.
Rural Sociology. Vol. 55, No. 2, pp. 213-32.
Fortmann, Louise, Jonathan Kusel, and Sally Fairfax. 1989. Community
Stability: the Foresters' Figleaf. In Dennis Le Master and John
Beuter, editors, Community Stability in Forest-Based Communities:
Proceedings of a Conference on Forestry and Community Stability.
Timber Press, Beaverton, Oregon.
Gwynn, Douglas B., et al. 1990. Rural Poverty in California.
California Policy Seminar Brief, Vol. 2, No. 2. University of
California, Berkeley. California Policy Seminar. January.
Sokolow, Alvin D., and Priscilla L. Hanford. 1986. Small Community
Responses to Water Quantity Requirements in Nonmetropolitan
California. California Water Resources Center Contribution No. 194.
University of California, Davis.
SIERRA NEVADA - GENERAL
Browning, Peter. 1991. Place-Names of the Sierra Nevada. Wilderness
Press, Berkeley.
Farquhar, Francis P. 1969. History of the Sierra Nevada. University
of California Press, Berkeley.
Hill, Russell B. 1986. California Mountain Ranges. Falcon Press,
Billings, Mont.
King, Clarence. 1902. Mountaineering in the Sierra Nevada. Scribner
& Sons, New York.
Knudson, Tom. 1991. The Sierra in Peril. The Sacramento Bee (5-part
series), Sacramento, CA.
Lantis, David, Rodney Steiner, and Arthur Karinen. 1989. California:
the Pacific Connection. Creekside Press, Chico, CA.
Muir, John. 1988. The Mountains of California. Sierra Club Books,
San Francisco (first published, 1894).
Muir, John. 1988. The Yosemite. Sierra Club Books, San Francisco
(first published, 1912).
Palmer, Tim. 1988. The Sierra Nevada, a Mountain Journey. Island
Press, Covelo, CA.
Reid, Robert Leonard, editor. 1983. A Treasury of the Sierra Nevada.
Wilderness Press, Berkeley, CA.
Walters, Dan. 1986. The Sierra - the New Gold Rush. In New
California: Facing the Twenty-First Century. California Journal
Press, Sacramento, CA.
Webster, Paul. Understanding the Sierra Nevada. Webster Publishing,
Auburn, CA.
WATER RESOURCES & WATERSHED MANAGEMENT
California State Water Resources Control Board. 1987. Final Report
of the Forest Practices Rules Assessment Team to the State Water
Resources Control Board. State Water Resources Control Board,
Sacramento, CA.
Callaham, Robert Z. 1987. Management of Streambank Zones in
Northeastern California. Wildland Resources Center Report No. 12.
University of California, Berkeley.
Coats, R., and L. Collins. 1981. Effects of Silviculture Activities
on Site Quality: a Cautionary Review. California Department of
Forestry, Sacramento, CA.
Cobourn, John. 1988. Land Use in Watershed of Mixed Ownership: A
Test for Cumulative Watershed Effects Analysis. A policy paper for
the U.S. Environmental Protection Agency, National Network for Water
Policy Research and Analysis. February.
Coe, Jack J., et al. 1979. Report of Interagency Task Force on Mono
Lake. Department of Water Resources, Sacramento, California.
December.
Engelbert, Ernest A., with Ann Foley Scheuring. 1982. Competition
for California Water: Alternative Solutions.
University of California Press, Berkeley.
Erman, D. C., and D. Mahoney. 1983. Recovery After Logging in
Streams with and without Bufferstrips in Northern California.
California Water Resources Center Contribution No. 186. University of
California, Davis.
Erman, D. C., J. D. Newbold, and K. B. Roby. 1977. Evaluation of
Streamside Bufferstrips for Protecting Aquatic Organisms. California
Water Resources Center Contribution No. 165. University of
California, Davis.
Gregory, S. V., et al. 1987. Influence of Forest Practices on
Aquatic Production. In E. O. Salo and T. W. Cundy editors, Streamside
Management - Forestry and Fishery Interventions. Institute of Forest
Resources Contribution No. 57, pp. 233-55. University of Washington,
Seattle.
Harrison, Larry. East Branch North Fork Feather River Erosion Control
Program, an Alternative to Reservoir Dredging. Pacific Gas and
Electric, Hydro-Generation Department. San Francisco, CA .
Herbst, David B., and Timothy J. Bradley. 1990. Predicting the
Ecological Impact of Stream Diversions on Mono Lake: A Population
Model for Lake Level Management. California Policy Seminar Brief.
Vol. 2, No. 9. University of California, Berkeley. July.
Kahrl, William L., editor. 1979. The California Water Atlas.
Governor's Office of Planning and Research. Sacramento, CA.
Kahrl, William L. 1982. Water and Power: the Conflict over Los
Angeles' Water Supply in the Owens Valley. University of California
Press, Berkeley.
Pister, E. P. 1976. The Management of High Sierra Lakes. In A. Hall
and R. May, editors, Symposium on the Management of High Mountain
Lakes in California's National Parks. California Trout, Inc., San
Francisco.
Plumas National Forest. 1989. Riparian Initiative Assessment Report
for the Last Chance Watershed. Plumas National Forest, Quincy, CA.
Proceedings of the California Watershed Management Conference,
November 18-20, 1986, West Sacramento, California. Wildland Resources
Center Report No. 11. University of California, Berkeley. February
1987.
Reimers, N. 1979. A History of a Stunted Brook Trout Population in
an Alpine Lake: A Lifespan of 24 Years. California Fish and Game.
Vol. 65, No. 4.
Romm, Jeff, Robert Z. Callaham, and Richard C. Kattelmann. 1988.
Toward Managing Sierra Nevada Forests for Water Supply. Wildland
Resources Center Report No. 17. University of California, Berkeley.
Romm, Jeff, and Sally K. Fairfax. 1985. The Backwaters of
Federalism: Receding Reserved Water Rights in the Management of
National Forests. Policy Studies Review. Vol. 5, No. 2, pp. 413-30.
Taylor, T. P., and D. C. Erman. 1979. The Response of Benthic Plants
to Past Levels of Human Use in High Mountain Lakes in Kings Canyon
National Park. Journal of Environmental Management. Vol. 9, pp.
271-78.
OTHER WORKS - GENERAL
Dasmann, Raymond F. 1965. The Destruction of California. Macmillan,
New York.
Leopold, Aldo. 1949. A Sand County Almanac: and Sketches Here and
There. Oxford University, Press, New York.
APPENDIX E
CASE STUDIES AND INVENTORIES
The following are case studies highlighted at the Sierra Summit.
FEATHER RIVER COORDINATED RESOURCE MANAGEMENT PLAN (CRMP). A
successful example of Coordinated Resource Management Planning is the
East Branch Feather River CRM agreement, which was signed by 13
agencies in 1985 in order to help solve local water quality and supply
problems. The program is coordinated by the Plumas Corporation, a
local nonprofit economic development corporation, and receives ongoing
funding from Pacific Gas and Electric Co. With the cooperation of 64
landowners and 30 agencies, this cooperative effort has resulted in
the restoration of 10 miles of severely degraded stream and 3,000
acres of degraded wetlands, meadows, and rangelands. Waterfowl
populations have increased by almost seven-fold, and the fish
population has doubled in monitored areas. The project has also
provided jobs for 50 people.
EL DORADO GEOGRAPHIC ASSOCIATION. Initiated by the efforts of the
Michigan California Lumber Company, the El Dorado Geographic
Association is trying to coordinate current and planned mapping
efforts in their area by creating a unified computerized information
system and database. Participants currently include the U.S. Forest
Service, El Dorado County, Pacific Gas and Electric Company, the
University of California Blodgett Forest Research Station, City of
Placerville, Michigan California Lumber Company, California Department
of Forestry and Fire Protection, El Dorado Irrigation District,
Georgetown Divide Public Utility District, Soil Conservation Service,
and the Tahoe Resource Conservation District. The group has created a
base map of the area and completed a few small cooperative projects.
LAKE TAHOE SOIL EROSION PROJECTS. One example of state and local
partnership is occurring at Lake Tahoe. In order to help deal with
rapidly declining water quality at Lake Tahoe, the California Tahoe
Conservancy is providing funds to El Dorado County, Placer County, the
City of South Lake Tahoe, the Tahoe City Public Utility District, the
North Tahoe Public Utility District, and the South Tahoe Public
Utility District to implement 56 locally-sponsored projects to reduce
soil erosion. These projects will result in revegetation of about 100
acres of land, the construction of 43 miles of roadside drainage
facilities, and the restoration of 30 acres of degraded wetlands and
meadows.
TUOLUMNE LANDSCAPE ASSOCIATION. Prompted by the recently signed
Memorandum of Understanding on Biological Diversity, representatives
of the businesses and environmental communities in Tuolumne County
recently joined together to hold the first meeting of the Tuolumne
Landscape Association. The goals of the association are to bring
together environmental and business interests, as well as locally
elected officials and appropriate agencies, and to begin a dialogue
and initiate cooperative planning efforts. The association is still
in the process of defining its objectives, but will initially focus on
two projects: (1) developing a comprehensive and coordinated
geographic information system for the area, and (2) reviewing county
and agency planning documents to identify inconsistencies and
conflicts.
NORTH FORK ECONOMIC DIVERSIFICATION EFFORT. In North Fork, a small
community in Madera County that is almost entirely dependent on the
wood products industry, an effort by the U.S. Forest Service and
community leaders is currently underway to broaden the economic base
by encouraging recreation and tourism. Steps are being taken to
improve the water and sewer system, the appearance of the downtown
area, traffic and visitor flow through the town, and recreation
opportunities. A major step has been the recent designation of a
national scenic byway that begins at North Fork. In addition, the U.
S. Forest Service will soon be conducting a study to determine what
so-called "value-added" or secondary industries the community could
sustain. ("Value-added" industries are those that convert natural
products into finished products.)
INIMIM FOREST PLANNING EFFORT. The Inimim Forest, which comprises
about 1,400 acres of land in northern Nevada County administered by
the Bureau of Land Management (BLM), is the setting for an
experimental cooperative effort between the federal government and
local residents. There are nine parcels of BLM land, each surrounded
by private property. Rather than producing a management plan in the
conventional manner, local residents are participating with BLM and
other interests to conduct the necessary resources inventory and
drafting the Inimim Forest Management Plan, with supervision and
technical assistance from BLM. The result has been the development of
a high-quality management plan written by the citizens who live, work,
and play on the land. The plan is currently being reviewed by both
the Bureau and the local community.
COALITION FOR UNIFIED RECREATION IN THE EASTERN SIERRA (CURES). CURES
is a recently created, voluntary organization with the mission of
"preserving the Eastern Sierra natural, cultural, and economic
resources and enriching the experiences of visitors and residents."
Comprised of "recreation providers," government agencies, and
interested citizens groups, the coalition is based on the premise that
recreation is the cornerstone of the Eastern Sierra economy, and that
the quality of the visitor experience, coupled with the condition of
the natural environment, is the basis for recreation use and thus the
economy. CURES has identified twelve major goals, including: sharing
information and ideas; creating public/private partnerships; improving
coordination between state, federal and local agencies; enhancing
visitor services and recreation opportunities; improving natural
resource protection and management; and improving the economic status
of both private and public sectors.
OTHER EXAMPLES Growth Management
ùBoulder, Colorado
ùNorthwest Policy Center, National Growth Management
Leadership Project, Portland, Oregon
ùOne Thousand Friends of Oregon, 534 SW 3rd Ave., Portland, OR
97204
Resource Use and Resource Protection
ùQuincy Library Group
ùTrinity Watershed Council
ùYuba Watershed Institute
ùCalifornia Coastal Commission
ùSanta Monica Bay (gnatcatcher)
ùHeritage Group, Mono Lake
ùSierra Nevada east side LTC/Town/County and wetlands planning
ùBodie planning, mining MOU (Mono County)
ùEastern Sierra GIS Group
ùTuolumne County Wildlife Plan (1986)
ùSierra County Wildlife Plan.
ùGreater Yellowstone Coordinating Committee, Adirondacks Park,
New York
ùChesapeake Bay (water quality)
ùPuget Sound
ùVermont Growth Management Acts
ùTRPA
Costs of Preservation/Development
ùImpacts of Development on duPage County Property Taxes,
County Regional Planning Commission, 421 North
County Farm Road, Wheaton IL
ùScenic Hudson, Poughkeepsie, NY
ùAmerican Farmland Trust
Economic Activity for Non-Commodity Services Such as Nature Tourism
ùCosta Rica
ùRocky Mountain ski resorts
ADDITIONAL GUIDELINES FOR CASE STUDY RESEARCH
1) Evaluate examples of the following types of projects:
ùCommunity planning/partnership development/public
participation/conflict resolution,
ùInteragency cooperation (local, county, regional, state,
federal),
ùInformation coordination, management, and dissemination,
ùLand use plans and decision-making processes (resource
plans, general plans),
ùEconomic diversification strategies, sustainability,
incentives,
ùManagement practices for natural resources,
ùEnvironmental remediation and restoration.
2) In evaluating successful case studies or restoration examples,
determine what criteria were used to determine
if the project was successful. How long a period was required to
determine that the project was a success?
Examples of attempts to restore vegetation, landscapes, or
ecosystems should include those within the Sierra
Nevada or within comparable ecological settings elsewhere.
Restoration models could range from projects that
employed passively waiting for revegetation after logging without
any active management, to manipulating mine
spoil, to recreating wetland conditions and vegetation.
3) For each project, see Callaham (1989) for a description of other
watershed projects. Conduct interviews and
review reports and newspaper articles. Identify the most
important factors that lead to successes and failures,
and criteria that determines success or failure. Outline the
processes used. How can we go beyond the existing
models to develop new methods and approaches? Are there examples
of attempts to restore vegetation,
landscapes, or ecosystems, either within the Sierra Nevada or
within comparable ecological settings elsewhere?
What lessons can we learn from cases of unsuccessful
planning/management policies or practices such as
clearcutting? How can we improve upon these practices?
4) Revisit successful projects to evaluate longevity of benefits, and
assess overall applicability to other regions of
the Sierra Nevada. What were the cost estimates and cost/benefit
analyses for case studies of restoration and
remediation?
5) What is the best method for disseminating the information gained?
What is the appropriate role of the state in
supporting and promoting innovative practices?
ADDITIONAL GUIDELINES FOR INVENTORIES
1) Identify existing and successful long-term databases that currently
exist in the Sierra Nevada and determine how
this information can be integrated into an ecoregion-wide
program. Recommend the most appropriate approach
for sharing information on a region-wide monitoring database
which will be useful both to technical experts and
decision-makers.
2) Identify and establish priority monitoring programs.
3) Make specific recommendations on issues such as: (1) extent of the
existing monitoring databases; (2) optimum
locations for monitoring networks; (3) specific characteristics
or constituents which require monitoring; (4)
appropriate methodologies and feasibility of standardized
monitoring; (5) need for quality assurance/quality
control; (6) sampling frequency; (7) development of new
methodologies for addressing monitoring of ecosystem
function; and (8) the feasibility of using volunteers to expand
our ability to provide adequate geographical
coverage.
4) Collate monitoring data from existing sources for the purpose of
constructing maps for the Sierra that relate
water quality, vegetation conditions, wildlife status, and air
quality to land use and management activities. The
classifications should be sufficiently detailed to correlate land
use activities with status of the resource, such as
specific timber harvest or grazing policies. Preferably, the map
would be correlated with: (1) past land use and
management activities that could be affecting conditions today;
(2) current land use and management; and (3)
probable future land use as shown in city and county general
plans, USFS Land and Resource Management
Plans, and existing zoning regulations that includes maximum
build-out and allowable lot splits.
5) Estimate sampling costs.
6) Evaluate the role of geographic information systems (GIS) and other
approaches as data management tools.
7) Assessment of environmental quality, management strategies, and
policy directives in the Sierra Nevada would
be incomplete without an identification and evaluation of
existing success stories. These successes take many
forms, including: (1) scientific research and monitoring that has
identified important environmental trends and
the processes which drive these trends; (2) land use management
programs which have either restored or
improved habitat, such as riparian and stream restoration,
erosion control, timber harvest management scenarios,
and building practices; and (3) political processes that have
resulted in interagency agreements or private-public
compromises. Lessons can be learned from previous failures as
well as successes. Lessons from these types
of examples help us predict the level of expected success for
various management options, and provide technical
details of implementation that can be applied elsewhere.
8) Identify what has/has not worked in the Sierra, the state, other
parts of the nation, and other countries, where
appropriate. Also identify the reasons. Determine the components
of these studies that would be technically and
politically feasible for the Sierra. Both "process" (e.g.,
cooperative planning) and "physical" (e.g., stream
restoration) projects could be reviewed, particularly those that
solved management issues and foresaw
consequences that transcended single parcels or land use types.
Examples of many of these types of projects are
mentioned in the text of individual research questions.