Texte Integral du Document
Texte extrait du document original pour l'indexation.
A History of
Landscape-level Land
Management Efforts in Haiti
Lessons Learned from Case Studies Spanning Eight Decades
September, 2016
Public Disclosure Authorized
Public Disclosure Authorized
Public Disclosure Authorized
Public Disclosure Authorized
A History of Landscape-level Land
Management Efforts in Haiti
Lessons Learned from Case Studies Spanning Eight Decades
September, 2016
Andrew Tarter, Katie Kennedy Freeman, Klas Sander
Acknowledgements
The report A History of Landscape-level Land
Management Efforts in Haiti is a product of the
Agriculture Global Practice of the World Bank.
The initial draft of the report was prepared
under an activity led by Pierre Olivier Colleye
and was intended as background information
for government consultations conducted in
May, 2015. The authors would like to thank
the participants of this workshop, including
the Ministry of Agriculture (MARNDR), for
their valuable inputs. The final report considers
feedback from this workshop, as well as
comments from multiple experts across various
institutions. The authors would like to thank the
peer Reviewers - Peter Jipp, Julian Lee, Ademola
Braimoh, Gerhard Dieterle, and Holger Kray -
for their review and feedback. In addition, the
team would like to thank the Haiti Country
Management Unit – Mary Barton-Dock, Pierre
Xavier Bonneau and Michelle Keane – for their
support and Practice Manager Laurent Msellati
for his guidance. The team acknowledges and
thanks the Program on Forests (PROFOR) for
supporting the publication of this report.
Overall there is immense ecological diversity in Haiti,
which results from the peculiarities of a landscape where most of the land area is in mountain.
Agriculture is affected by the extreme variations in rainfall, variable soil types, differences in
temperature according to altitude, and a mix of rugged highlands, fertile river bottom-lands and
coastal pains. When the effects of these ecological variations are mediated through the prevailing
social structure, they have a bearing on development potential and an understanding of production
relations in Haitian economy.
-Anthropologist Glenn Smucker, 1982.
A watershed is formed by all those lands that shed water into a stream;
it can be a few acres that shed water into a ravine or creek; or it can be millions of acres that drain
into rivers, such as the Nile and Mississippi. Watershed management is the management of the
lands, animals and people of a watershed so as to achieve the maximum benefits to man, while
conserving the soil, forests, range and the water itself.
-Département de l’Agriculture, des Resources Naturelles
et du Développement Rural (DARNDR),
Gouvernement de la République d’Haïti, 1962.
5
Table of contents
LIST OF PROJECT ACRONYMS 8
EXECUTIVE SUMMARY 9
BACKGROUND 13
Ecological Vulnerabilities 13
Human Vulnerabilities 13
BOX 1. Conceptual Definitions of ‘Landscape-level Land Management’
and ‘Watershed Management’ 15
Outline of the Report 15
SECTION I: THE HISTORICAL AND CONTEMPORARY
ENVIRONMENT OF HAITI 16
Looking Back to Move Forward 17
The Historical Deforestation of Haiti 17
The Colonial Period 17
The Post-Independence Period 18
Deforestation in the 20th Century 19
The Current Condition of the Rural Environment of Haiti 21
FIGURE 1. The Current Extent of Tree and Shrub Cover in Haiti in 2010 25
FIGURE 2. The Current Extent of Tree and Shrub Cover on the Island
of La Gonâve, Haiti: 1990 and 2010 25
Land Inheritance, Land Tenure and Land Security 26
Land Inheritance 26
Land Tenure 27
Land Security 27
Soil Conditions in Haiti 28
Soil and the Relationship to Ecological Zones of Haiti 28
Livestock in Rural Haiti 29
TABLE 1. Principal Watersheds of Haiti 30
Hydrology in Haiti 30
FIGURE 3. Principal and Secondary Rivers, Haiti 31
SECTION II: LANDSCAPE-LEVEL MANAGEMENT PROJECTS IN HAITI 33
The Logic of Watersheds as a Landscape of Intervention 34
The Geospatial Distribution of Rivers in Haiti 34
FIGURE 4. An Early Delineation of Haitian Watersheds, Aggregated into 30 Areas 35
A History of Landscape-level Land Management Efforts in Haiti 6
FIGURE 5. An Early Grouping of Watersheds Adapted by Arrondissements
and Divided into Seven Principal Areas 36
FIGURE 6. Watershed Prioritization Map for Project Interventions, Haiti 37
FIGURE 7. Watersheds of Haiti, According to the Ministère de l’Environnement 38
FIGURE 8. Current MdE Map (Right) Ostensibly Based on 1972 OAS Grouping (Left) 39
Case Studies on Landscape-level Land Management Projects in Haiti 40
Case 1: The Haiti Pilot Project (HPP) 40
Case 2: Organisation de Développement de la Vallée de l’Artibonite (ODVA) 41
Case 3: Développement Rural Intégré Petit-Goâve-Petit Trou de Nippes (DRIPP) 42
TABLE 2. Case Studies of Landscape Projects in Haiti, 1948-2014 43
Case 4: L’Organisme de développement du Nord (ODN) 44
Case 5: The Agroforestry Outreach Project (AOP) 45
Case 6: Secretariat Technique á l’Aménagemen des Bassins Versants (STABV) 46
Case 7: Agroforestry II (AFII) 46
Case 8: Productive Land Use Systems (PLUS) 47
Case 9: The Targeted Watershed Management Project (TWMP) 48
Case 10: Forest and Parks Protection Technical Assistance Project (FPPTP) 48
Case 11: Agriculturally Sustainable Systems and Environmental Transformation (ASSET) 49
Case 12: Hillside Agricultural Program (HAP) 49
Case 13: Le Développement Economique pour un Environnement Durable/
The Durable Economic and Environmental Development (DEED) 50
Case 14: Watershed Initiatives for Natural Environmental Resources (WINNER) 50
Case 15: Appui à la Valorisation du potentiel Agricole du Nord, pour la Sécurité
Économique et environnementale (AVANSE) / Feed the Future (FTF) 51
Summary of Section II 51
SECTION III: CHANGES TO MODELS OF LANDSCAPE-LEVEL LAND
MANAGEMENT IN HAITI, LESSONS LEARNED, AND CONCLUSIONS 52
Changes to Models of Landscape-Level Land Management in Haiti 53
FIGURE 9. Differing Approaches to Watershed Management 54
‘Micro-level’ or ‘Plot-based’ Models 55
‘Macro-level’ or Entire Watershed Models 56
Haitian Government Models 56
Haitian Government Policies on Watershed Management 57
Lessons Learned 57
Issues of Appropriate Administrative Oversight and Perimeters of Project Delineation 57
Ecological (protective) versus Social (productive) Approaches 57
Participatory Approaches versus Command-and-Control Approaches 58
Macro-level Approaches versus Plot-based Approaches 58
Land Inheritance, Land Tenure, and Land Security 59
Conclusion 60
7
FIGURE 10. Strengths, Weaknesses, Opportunities, and Threats (SWOT) Gap Analysis 60
Strengths 61
Weaknesses 61
Opportunities 62
Threats 63
Recommendations 63
SECTION IV: SOURCES CONSULTED 65
SECTION V: APPENDICES 72
APPENDIX A: Challenges to this Literature Review 73
APPENDIX B: Landscape Level Management Schemes in Haiti 73
APPENDIX C: Watershed Management Principals of the Ministries
of Environment and Agriculture 75
Ministry of Environment 75
Ministry of Agriculture 76
A History of Landscape-level Land Management Efforts in Haiti 8
List of Project Acronyms
Agroforestry II
Agroforestry Outreach Project
Agriculturally Sustainable Systems and Environmental
Transformation
The Artibonite Project
Appui à la Valorisation du potentiel Agricole du Nord,
pour la Sécurité Économique et environnementale/
Feed the Future
Le Développement Economique pour un Environnement
Durable/The Durable Economic and Environmental
Development
Développement Rural Intégré Petit-Goâve-Petit Trou
de Nippes
Forest and Parks Protection Technical Assistance Project
Hillside Agricultural Program
The Haiti Pilot Project
Macaya Biosphere Reserve
L’Organisme de Développement du Nord
Organisation de Développement de la Vallée
de l’Artibonite
Productive Land Use Systems
Pwojè Sove Tè
Secretariat Technique á l’Aménagemen
des Bassins Versants
Targeted Watershed Management Project
Watershed Initiatives for Natural
Environmental Resources
AFII
AOP
ASSET
ATP
AVANSE/FTF
DEED
DRIPP
FPPTP
HAP
HPP
MBR
ODN
ODVA
PLUS
PST
STABV
TWMP
WINNER
9
Executive Summary
A variety of public and private institutions have
initiated landscape-level land management
1
projects in Haiti since the first multilateral
development project of the United Nations was
implemented there in 1948. The rubrics guiding
these projects have been diverse: sustainable rural
development; integrated landscape management;
agro-ecosystem management; agroforestry; ecosystem
stewardship; and watershed management—to name
just a few. Despite a vast nomenclature that
reflects real differences in landscape-level land
management approaches and policies, most such
projects implemented in Haiti have moved along
a temporal trajectory toward the following set of
shared, complementary objectives:
i) Natural resource conservation, management,
and/or restoration;
ii) Improving and/or increasing agricultural
productivity; and
iii) Improving the lives of project beneficiaries
by increasing economic activities.
The success or failure of landscape-level land
management projects in Haiti has not been
determined by these complementary objectives,
but by the differential emphasis of overall project
approaches and policies toward achieving these
objectives.
The present report opens with a brief history
of ecological degradation in Haiti—a necessary
exercise for two reasons: (1) understanding
how ecological degradation has proceeded
historically in Haiti is required for mitigating
future degradation; and (2) as the rural landscape
has been altered significantly since the earliest
landscape-level projects were implemented, a
grasp of current ecological conditions in Haiti is
also necessary.
1 Here and throughout this report, landscape-level land management is conceptualized as an overarching category that refers to varied large-scale efforts at land management, including but not limited to ‘watershed management’.
After providing a brief ecological history, the
report then shifts to examine fifteen different landscape-level land management projects executed in Haiti between 1948 and 2014, detailed in the form of brief but summative case studies that highlight salient project features, and differences in approaches and policies. The primary findings presented below emerge from these fifteen case studies, the preceding ecological history, and a review of many documents presented in the bibliography of this report. The bibliography serves as a point of reference for further inquiries, guided by citations throughout this report.
The primary findings from the review of
literature and case studies suggest:
• There is wide consensus on the need for
landscape-level land management in Haiti,
and increasing consensus on watersheds
2
as the appropriate location for effective
project implementation. The majority
of Haiti’s population is embedded in an
agrarian landscape that relies on agricultural
production as their primary livelihood strategy.
Agricultural possibilities will continue to
decline without effective landscape-level
land management strategies. Centuries of
deforestation and climatic drying have made
access to water a major determiner of on-
going agricultural production. Since rainfall
is increasingly variable and unreliable in many
of the denuded locations in Haiti, watersheds
represent one of the most effective locations
for landscape improvement efforts.
• There have been two common approaches
or models to landscape-level land
management projects that have been
enacted in Haiti. Both require trade-offs.
The ‘macro-level’ approach favors complete
2 Watershed management indicates efforts at landscape- level land management that are delineated by varied conceptual and operational definitions of a watershed.
A History of Landscape-level Land Management Efforts in Haiti 10
landscape coverage at the expense of social
and ecological heterogeneity. The ‘plot-based’
approach favors highly adaptive, plot-specific
policies at the expense of full landscape
coverage. The former has tended to emphasize
ecological outputs through command-and-
control models, while the latter has tended to
emphasize both social and ecological outputs,
developed through beneficiary participation in
all levels of project identification, formation,
implementation, and ownership.
• ‘Macro-level’ approaches to landscape-level
land management are frequently marked by
the following features:
Macro-level approaches tend to target entire
watersheds, but still often fail to achieve
100% coverage;
Macro-level approaches tend to come with
a priori assumptions and solutions developed
by experts, which frequently rely on a
complete restructuring of local agricultural
or land management practices, rather than
building on existing structures. This trend
frequently results in less-than-enthusiastic
participation or in resistance to participation
from project beneficiaries;
‘Participation,’ from the perspective of
macro-model project implementers, is
frequently viewed as beneficiaries’ initial
adoption of technologies or practices, and
the contribution of time or labor toward
this initial adoption;
One of major reasons for the failed efforts
of many macro-level landscape management
projects in Haiti has been the adoption of a
laundry list of project objectives meant to
address the complexities of the problem—
an emphasis on breadth over depth, but an
emphasis applied indiscriminatingly across
all lands and inhabitants within a landscape.
The attempt to implement wide-ranging
objectives through a top-down manner
frequently results in project funds and
personnel stretched thin, with fewer project
objectives ever fully realized.
• ‘Plot-based’ approaches to landscape-level land
management are frequently marked by the
following features:
Plot-based approaches tend to account for
the inter- and intra-heterogeneity of land,
society, markets, roads, etc., of landscapes;
Plot-based models frequently rely on prior
and ongoing research to assess and address
these levels of heterogeneity;
Plot-based approaches have tended to adapt
project objectives in an iterative, farmer-
driven process;
Plot-based approaches necessarily involve
local participation at all stages of project
identification, implementation, ownership,
management, and continuity;
Plot-based approaches rarely achieve 100%
project coverage within a given watershed;
and
Plot-based approaches have proved the most
successful in terms of project adoption by
beneficiaries and continuity after the end of
the project cycle.
• Case studies show a clear, diachronic trend
away from ‘macro-level’ approaches, toward
‘plot-based’ approaches.
The 15 case studies presented in this report,
and other cases reported on in the literature
review, indicate that ‘plot-based’ approaches
tend not only to be more effective, but are
increasingly embraced in Haiti over ‘macro-
level’ models. This is especially true of arable
land holdings, which are highly fragmented
across most landscapes in Haiti.
In certain cases, such as instances of large tracts
of government-owned land, uninhabitable
areas, or large plots of collectively-owned
land held by networks of kin, the case for
‘macro-level’ approaches may still be made.
However, the long-term success of landscape-
level land management approaches with these
former two land categories—characterized by
a lack of local land ownership and thus low
investment—has historically proved untenable.
11
• Despite a historical trend away from ‘macro-
level’ models toward ‘plot-based’ models,
both approaches have failed to achieve their
objectives at different times for some of the
following reasons:
One historical determinant of landscape-
level land management project success or
failure has been the differential emphasis
placed on varied project objectives. Project
objectives selected for emphasis often
appear to be driven by the a priori demands
of donors or implementing agencies,
often emphasizing a particular technology,
approach, or model that ultimately proves
incompatible in the Haiti context. The
results have been low adoption rates or low
continuity after project timeframes expire;
Unsuccessful projects were frequently
weighted down by multiple competing
objectives that aimed to recognize the
interrelated complexity of landscape-level
land management, but simultaneously
stretched project resources thin in an effort
to address this complexity;
Successful programs limited the scope of
what might be accomplished within the
confines of the project timeframe, and
focused on a few clearly defined policies
tied to even fewer and more-clearly defined
objectives;
Successful programs frequently took a
substantial period of preparation to align the
visions and goals of donors, varied project
partners, stakeholders, and beneficiaries;
Successful programs involved local
participation at all levels, including
project identification, preparation, and
implementation; and
Allowing processes of stakeholder alignment
and multi-tiered collective participation
permitted successful programs to identify
meta-objectives and policies that addressed
a multitude of concerns important to all
project stakeholders, leading to higher
levels of project adoption, participation,
ownership, and achievement of objectives.
• Land tenure does not appear to be an
impediment to beneficiary participation.
Haitians utilize both informal and formal
systems of land tenure, which permit the
inheritance, management, leasing, sale, and
purchase of land. While these tenure systems
are complex, and thusly can appear insecure,
experience demonstrates that they are highly
functional and commonly do not represent
an impediment to the implementation of
landscape-level land management projects in
rural Haiti. As the leasing of land is a common,
established practice in rural Haiti, access to land
appears to be a larger determiner of investment
incentives to farmers than informal or formal
tenure status.
• Land security is a potentially volatile issue that
deserves reflection.
Considering historical and contemporaneous
land grabs and forced displacements, land
insecurity from external forces represents a
real concern, particularly with projects that
target large parcels of arable land. However,
the vast majority of arable plots in rural Haiti
have been divided into fragments that are
discontinuously dispersed across landscapes,
serving as a de facto protective measure against
external threats to land security. Larger plots of
land are collectively owned by kin groups, but
typically agriculturally unproductive, which
may also serve to protect them against external
forces.
• Participatory models have demonstrated more
success than other more command-and-
control approaches.
The historical command-and-control
approaches to landscape-level land management,
including watershed management, have been
met with skepticism and suspicion on the part
of local project beneficiaries in Haiti. Within
these projects, levels of participation have been
low, as have levels of adoption. Experience
suggests that participatory approaches are
crucial to long-term project success. Since
local farmers occupy watersheds and are the
direct project beneficiaries, their inclusion in
all aspects of project identification, preparation,
A History of Landscape-level Land Management Efforts in Haiti 12
and implementation is crucial to project
success and sustainability. Successful project
approaches included multiple stakeholders,
such as members of local government, and
local governing groups, community groups,
church groups, and other solidarity structures.
• Frequently effective government participation
is limited by overlap between project and
political administrative delineations and
ecological zones.
Many watershed management projects in
Haiti wrestle with the fact that rivers and
their tributaries do not adhere to either the
political boundaries of Haiti’s departments
or subsequent administrative units, or to the
distribution of ecological zones in the country
(Delatour et al. 1984). The differences between
ecological zones have been greatly diminished
(Ehrlich 1985), adding doubt to models
that delineate watersheds and policies based
exclusively on ecological life zones.
• Project continuity
As of yet, all documented examples of
landscape-level land management schemes in
Haiti have suffered from issues of funding and
project sustainability after donor cycles have
concluded. In Haiti, virtually all support has
been through non-governmental donors and
it is unclear in most cases if the internal rate
of return of project investments make them
viable without sustained donor support.
Nearly seventy years after the first landscape-
level land management project of the United
Nations was executed in Haiti, similar projects
continue to be implemented, and many continue
to suffer avoidable historical shortcomings. The
broader development community and project
beneficiaries in Haiti have much to learn from
the past in order to most effectively design
and implement successful landscape-level land
management projects in the future. This meta-
analysis has been crafted for this very audience, as a
point-of-departure for future efforts at landscape
management in Haiti. The key findings listed
above summarize a review of the literature and
the fifteen case studies subsequently presented
in this report. The reader interested in a more
nuanced, in-depth understanding of how these
individual cases unfolded in Haiti is encouraged
to consult the extensive bibliography of sources
at the end of this report.
13
Centuries of deforestation in Haiti have played
out on an overwhelmingly mountainous
terrain that receives seasonal rains and torrential
downpours from frequent tropical storms and
hurricanes. The standard of living for many rural
Haitians has been negatively impacted as a result
of deforestation and removal of the vegetative
cover. Some of these impacts, such as the loss of
valuable topsoil, have been directly observable,
but other impacts of deforestation in Haiti have
been less visable.
Ecological Vulnerabilities
From a strictly ecologically standpoint,
deforestation in Haiti has caused or contributed
to:
• Damage to Haiti’s riparian systems and
the soil-silting of lakes and unique coral
reefs;
The lack of a protective vegetative cover has
led to an increase in the rapidity of surface
water runoff out of watersheds, reducing the
ability of rainwater to recharge the aquifers.
Since Haiti’s rivers are aquifer-fed, river water
levels have been lowered, and in many cases
permanent rivers have become seasonal. Soil-
silting of lakes is raising water levels, changing
water salination levels, and destroying or
threatening fresh-water, brackish water, and
ocean fish habitats (Hotz and Christian 2015).
• A decline and loss of Haiti’s diversity of
endemic flora and fauna;
Haiti is home to some of the highest levels of
biological diversity in the Caribbean (Swartly
and Touissant 2006). The disappearance of
potentially rare, endemic flora and fauna
represents a loss of unknown proportions.
The erosion of specific soil profiles results in a
decreased ability of native flora to regenerate,
paving the way for exotic or invasive species
that lower overall biological diversity due to
an increasingly homogenized habitat for both
flora and fauna.
• Increased climatic drying;
The decline of a protective vegetative
layer subjects Haiti’s land to increased
evapotranspiration—the drying of soil through
direct exposure to sun and wind, which work
together to wick away surface moisture. The
heat rising from arid land drives away higher
moisture air, in many cases reducing the
likelihood of rainfall, and causing the pseudo-
drought phenomena experienced throughout
much of rural Haiti for the last several decades.
The social science literature is replete with
well-documented testimonies of Haitian
farmers who contribute drought and pseudo-
drought conditions directly to the over-cutting
of trees.
• Increased terrestrial vulnerability to the
effects of tropical storms and hurricanes;
Without complex root systems to hold
Haiti’s mountainous terrain in place, entire
mountainsides frequently wash out during
tropical storms and hurricanes. Streams and
rivers swell from immense groundwater
runoff, causing flooding, increased erosion and
widening of riparian systems, and the soil silting
of lakes and ocean habitats. Individual trees
and remaining tree stands are subject to higher
exposure from wind than trees aggregated in
forests, resulting in the widespread downing of
remaining arboreal stands. The effects of tropical
storms and hurricanes are not only exacerbated
due to Haiti’s deteriorating ecosystems, they
also contribute to that deterioration in an
iterative, degenerative terrestrial cycle.
Human Vulnerabilities
Since most rural Haitians are embedded in an
agrarian landscape and rely on agricultural
production as their primary livelihood strategy,
the ecological and landscape degradation noted
above directly contributes to:
Background
A History of Landscape-level Land Management Efforts in Haiti 14
• Nationwide declines in agricultural
productivity;
The production of soil takes thousands of years
but major losses of topsoil in Haiti may transpire
in a single storm. As the majority of Haiti’s
population is understood to be dependent
on agricultural production as a primary
livelihood strategy, and some 80% of rural
households rely on agriculture (World Bank
2015: 27), the loss of valuable topsoil has an
insidious and deleterious long-term effect on
agricultural productivity. Haiti’s GDP per capita
fell by an average of 0.7% between 1971 and
2013 (World Bank 2015: 1), weather-related
damages and losses caused an average decline
of 2% of GDP per year in Haiti from 1975 to
2012, and approximately 50% of tropical storm
related losses in Haiti’s productive sector have
fallen in the agricultural domain (World Bank
2015: 14). The silting of freshwater, brackish
water, and reef habitats have caused a dramatic
decrease in viable fish and aquatic resources,
which has adversely affected the livelihoods of
those rural residents dependent on fishing as
their major livelihood strategy.
• A resultant widespread rural out-
migration;
Decreased agricultural productivity in many
areas of Haiti has increased rural out-migration,
as few other economic opportunities currently
exist in rural areas (World Bank 2015: 35).
While many Haitians would rather stay in the
countryside, a complex set of environmental,
social, technical and economic factors
incentivizes the trend to leave the countryside
that started in the 1930s and accelerated in
the early 1980s (ibid.). Rural Haitians have
migrated to larger towns and cities, the capital
city of Port-au-Prince, or have become
members of the expansive Haitian diaspora
abroad. Port-au-Prince, initially constructed to
hold tens of thousands of people, had swelled
to a greater metropolitan area of approximately
three million people by the time of the 2010
earthquake. According to the US Census of the
same year, approximately one million Haitians
lived in the United States, and this figure
represented only 43% of the entire Haitian
diaspora abroad (Wah 2013: 59).
• Increased exposure to environmental
hazards;
Regrettably, the crowded and marginalized
urban spaces where many rural Haitian migrate
frequently present more environmental health
hazards than those found in the deteriorating
ecological conditions of rural areas. The rapid
spread of cholera and the chikungunya virus,
and the high mortality levels of the 2010
earthquake, are testament to the fragile living
conditions of many urban areas in Haiti.
• Increases in hunger, malnutrition and
under-nutrition.
Those Haitians that abandon rural areas
lose access to year-round and seasonal
supplementary sources of nutrition from
rivers, streams, woodlands, orchards, communal
courtyards, and gardens, which may otherwise
augment their diets. Instead, many urban-
dwelling Haitians are forced to rely on
purchased foodstuffs, frequently imported and
of low nutritional value. Imports in Haiti have
increased from approximately 30% of GDP in
the early 1980s to some 50% of GDP in the
early 2010s, with food imports representing
approximately 35% of total imports over the
last ten years (World Bank 2015: 17)
The traditional rural breakfast of corn or
sorghum porridge is increasingly replaced by
imported spaghetti, topped with mayonnaise
and ketchup. The traditional rice varieties of
the Artibonite valley are increasingly replaced
with lower-cost but less nutritious, imported
white rice exported from the United States
3
.
Citrus and other natural fruit juices that are
available in rural areas of Haiti are increasingly
replaced with high-sugar energy drinks, and
rurally-produced bread is frequently replaced
with high-sugar biscuits and crackers.
Those Haitians that elect to remain in rural
areas also suffer from increasing levels of
hunger, malnutrition, and under-nutrition. The
3 Known in Haiti as ‘Miami rice,’ due to the common location of exportation.
15
deterioration of natural resources has decreased
the availability of many traditional sources
of dietary supplementation. One traditional
strategy of mitigating crop failure—reducing
the number of meals consumed a day—is fast
becoming the new norm of rural Haiti, as rains
come less-frequently and soil fertility declines.
• Increased human vulnerabilities to
tropical storms, hurricanes, and extreme
climatic events.
Despite large increases in rural-out migration,
the majority of the Haitian population
continues to reside in rural areas. Rural Haitian
populations often encounter tropical storms
and hurricanes that may cause landslides.
Landslides also block important road systems,
preventing access to hospitals, and to important
transportation routes for farmers dependent on
marketing their agricultural goods at regional
and national markets. A World Bank report
noted that Haiti has a higher number of
disasters per km
2
than the average of Caribbean
countries, and estimates that in 2008 alone, 15%
of GDP was lost due to hurricanes and tropical
storms (World Bank 2015: xi). Typically there
is little governmental support for rehabilitation
of damaged infrastructure, and local residents
must mobilize with hand tools to clear the
roads that are crucial to the economy of their
internal market systems.
An increased awareness and acknowledgement
of these historical and contemporaneous trends
in human and ecological vulnerabilities has given
rise to an emphasis on landscape-level approaches
to land management in Haiti, and increasingly a
shift toward targeted watershed management.
Outline of the Report
This report reviews the available literature as an
initial point-of-departure, providing a diachronic
overview of sixty years of landscape management
research and integrated landscape project
activities in Haiti, spanning eight decades. The
reporting period extends from the early efforts
of the first integrated development program of
the United Nations in Haiti in 1948, through
the 2014 consummation of project activities
associated with the USAID-funded Watershed
Initiative for National Natural Environmental
Resources (WINNER).
Section I of this report opens with a brief
environmental history of Haiti, followed by an
analysis of the current state of environmental
conditions, and closes with an examination
of contemporary human and landscape
vulnerabilities to acute and chronic environmental
degradation and extreme climatic events. Section
II of the report provides a brief summary of
15 regional or national landscape-level land
management projects enacted in Haiti since the
middle of the 20
th
century. Section III concludes
the report with a summary of important themes
and applicable lessons that crosscut the history
of landscape-level management projects in Haiti.
Section IV provides a bibliography of important
documents related to the issues examined in this
report. This bibliography is intended to serve as
a resource for future researchers, policy-makers,
program administrators, project implementers,
and project beneficiaries working on landscape-
level land management projects in Haiti.
BOX 1. Conceptual Definitions of ‘Landscape-level Land Management’ and ‘Watershed Management’
Here and throughout this report we define landscape-level land management approaches in Haiti as
attempts to address the interrelated human and ecological vulnerabilities noted above, in the context
of large land management projects executed at the landscape level, which focus on improving or
introducing new livelihood strategies that ostensibly improve the lives of project beneficiaries. This report
distinguishes watershed management as a variant of landscape-level land management approaches—
increasingly embraced in the case of Haiti as the appropriate locus of project execution—and delineated
by varied conceptual and operational definitions of what constitutes a watershed.
A History of Landscape-level Land Management Efforts in Haiti 16
SECTION I:
The Historical and Contemporary
Environment of Haiti
17
The Historical Deforestation
of Haiti
The gradual removal of the original forests of
Haiti is a complex process that spans five centuries
and continues today. Popular accounts frequently
rely on a gross simplification of this process,
framing deforestation in Haiti as the result of
an ecologically-disconnected peasantry, with
little forethought to the consequences of their
environmentally deleterious actions. To illustrate,
deforestation in Haiti is frequently contributed
to the production of charcoal, though the vast
majority of Haiti’s original forests fell far before
the charcoal trade roared to life in the early
decades of the 20
th
century. The brief history
of deforestation provided here corrects some of
these misconceptions, offering a pragmatically
abbreviated chronology with particular focus on
acute events and chronic trends that are likely to
have a direct bearing on the success or failure
of future landscape-level management plans for
Haiti.
The Colonial Period
The ecology of the island of Hispaniola remained
fairly unexploited for most of the 16
th
century, as
Spanish colonial interests were focused on the
procurement of gold rather than the extraction
of natural resources or agricultural production
(Lindskog 1998). In the late 17
th
century the
environment of the island began to change
rapidly with the renewed human presence of
French emigrants and enslaved people from West
and Central Africa.
Anthropogenic influences on the environment
of Haiti began to register a visibly notable
change during the agricultural intensification
activities promoted by 18
th
century colonial
powers (Moya Pons 2007). Cultivation of the
initial colonial export crops—sugar, tobacco,
indigo and cotton—saw the clearing of lowland
plains (ibid.). The colonial plantation strategy of
cultivating lowland agricultural production was
pursued on several grounds: (1) lowland areas are
more accessible by roads; (2) plains in Haiti are
predominantly coastal and in closer proximity to
maritime vessels; (3) uniform plains had higher
levels of moisture or were otherwise irrigable;
and (4) many of the lowlands of Haiti contain
rich, alluvial soil deposits.
The initial low-elevation locus of agricultural
production in Haiti did spare the removal of
trees and vegetative cover from surrounding
mountain ranges. The booming colony required
wood for a variety of purposes, but principally
for construction and fuel-wood used in sugar
refinement for the increasing number of
plantations (Catanese 1999). Later, trees were
cleared from higher elevations to cultivate
coffee—a lucrative export crop (ibid.). Records
from the early colony and the new Republic
are replete with mention of the felling of large
hardwood trees, and the encroachment of less
desirable tree species (Tarter 2015b).
LOOKING BACK TO MOVE FORWARD
Proceeding from the logic that development initiatives seek to improve the lives of project
beneficiaries, an understanding of the drivers of ecological degradation in Haiti is paramount
and should be a first step for future research or landscape-level management project
identification, preparation, and implementation.
A History of Landscape-level Land Management Efforts in Haiti 18
In particular, the colonial period saw the
commencement of a wood-extraction based
economy. French ships carrying enslaved people
from the African continent returned to Europe
with hulls loaded with valuable timber (Diamond
2005). While the more easily accessible areas of
Haiti suffered arboreal denudation during this
period, many remote forest stands remained
protected by their relative isolation due to the
lack of accessible inroads.
The Post-Independence Period
Toward the end of the 13-year Haitian
revolutionary period, lowland colonial
plantations were burned and equipment
destroyed. After the 1804 declaration of
independence, the vast majority of Haitians
fanned out throughout the mountainous areas
of the country, establishing the traditional lakou
(collective kinship habitations) of rural Haiti.
Through the lakou system, Haitian farmers
successfully resisted multiple attempts by early
leaders of the fledgling Republic to reinstate
the plantation model of agricultural production
(Moral 1961).
The historical dispersal of humans from
lowland plains and their subsequent resettlement
in mountainous areas resulted in an unusual
occurrence: the reestablishment of the lowland
forests of Haiti. Analyses of tree pollen from a
sediment core extracted from Lake Miragoâne in
southern Haiti noted a large arboreal expansion
after 1804 (Brenner and Binford 1988). This
regenerative arboreal expansion has direct bearing
on the current state of Haiti’s ecology—a point
that will be revisited subsequently, and which has
policy programming implications for landscape-
level land management in the current era.
While the lowland areas of Haiti temporarily
reestablished with trees after the destruction of the
colonial plantation system and a decentralizing
nationwide migration, it was only a temporary
reversal of the predominant trend—an on-going
removal of arboreal and vegetative covers.
Deforestation during the post-colonial era was
not caused by the production of charcoal, which
did not commence on a large scale in Haiti
until the early decades of the 20
th
century. Two
principal forces drove tree removal in newly-
independent Haiti: (1) Haitian government
payments on a war indemnity to France, financed
by timber concessions to private companies;
and (2) the clearing of land for agricultural
production, enacted by hundreds of thousands
of farm families spread throughout the rural
countryside (Tarter 2015b).
In 1825 Haitian president Jean-Pierre Boyer
agreed that Haiti would pay France a post-war
indemnity of 150 million francs—a paralyzing
amount for the new Republic—as reparations to
French slave and plantation owners for income
lost after the world’s first successful slave revolt.
The indemnity agreement, ostensibly established
to ensure that France would not reinvade Haiti,
is a historically curious concession, considering
France’s multiple, failed attempts to retake the
former colony.
The Haitian government supported indemnity
payments to France largely by selling forest
concessions to foreign timber corporations. In
1838, the indemnity was renegotiated to nearly
half of the original amount, with the requirement
that the remaining amount be paid in full in 30
years (Moya Pons 2007; Bulmer-Thomas 2012).
Four years later, legal mahogany exports doubled,
and in 1842 exceeded 4.0 million cubic feet
(Moya Pons 2007).
Despite this surge in timber exportation,
hardwood trees were still abundant in Haiti late
into the 19th century. As one observer noted
in 1878, ‘the variety of [hardwood] production
seems to be almost infinite, and the supply
inexhaustible’ (Stuart 1878: 267).
After many of the easily accessible lowland
areas of Haiti had been exploited for wood, the
principal means of extracting timber shifted to
dragging felled trees into the small mountain
streambeds that form the many tributaries of
Haiti’s multiple watersheds (Chandler 1842).
With the arrival of annual torrential rainfall, these
seasonally dry or low-flowing streambeds would
swell, carrying the felled trees into increasingly
larger rivers and eventually toward deltas where
19
they could be prepared for export by maritime
vessels (ibid.). Despite this shift deeper into the
interior of Haiti, the mountainous nature of the
country and the difficulty of accessing remoter
areas protected many remaining hardwood
stands.
Deforestation in the 20th Century
The first three decades of the 20
th
century saw
the removal of most remaining hardwood forest
stands in Haiti, the overexploitation of secondary
arboreal growth, and the continued encroachment
of former forestland by exotic tree species. The
early decades of this century are marked by the
US Marine occupation (1915-1934) and their
establishment of a network of new roads and
the improvement of earlier roads constructed
by French colonialists (Leyburn 1941). The new
network of improved roads in Haiti facilitated
increased travel between rural and urban areas.
While these new roads also encouraged urban
migration, the increased urbanization during
this period was not unique to Haiti—it was a
phenomenon experienced globally. As Haiti
increasingly urbanized—like many countries of
the Caribbean—the demand for agricultural and
wood products increased to meet urban needs.
The changing Haitian landscape was the result
of a complex interaction between immediate
drivers and underlying causes of land-use
change. Rapidly increasing population coupled
with a decrease in agricultural productivity,
spatial extensification of agricultural production
and the reduction of previously fallow periods,
urbanization and increasing demand for food and
fuel, the expansion of road networks connecting
the previously isolated hinterland to growing
markets, and complementary though parallel
land and tree tenure regimes all played their role
in the evolution towards the highly dispersed and
decentralized food and wood production system
observed in Haiti today.
As Haitians in areas of close proximity to urban
centers intensified their agricultural production,
charcoal production was shifted to the next
geographically proximate location that was
accessible by roads. As existing roads were limited
to the national highways and lesser roads of
poor condition, deforestation on a national level
continued in a geospatially differential manner.
Once previously forested or brush-covered areas
gave away to agricultural production, charcoal
production shifted again. From east of Port-
au-Prince, charcoal production shifted offshore,
to the island of La Gonâve; from La Gonâve,
charcoal production moved to the northwest
peninsula; from the northwest peninsula,
charcoal production swung to the more remote
southern peninsula, and to a lesser extent to the
central plateau (Smucker 1981; Conway 1979;
Voltaire 1979). The result of the extension of the
agricultural frontier was the near-to-complete
arboreal denudation of easily accessible areas,
largely following in a sequential order based
on geographical proximity to the ever-swelling
capital city and smaller urban agglomerations.
Today, the lack of access to arable land is an on-
going frustration expressed by younger members
of society.
The latter half of the 20th century saw the
establishment of hundreds of kilometers of new
roads, which opened up the vast remainder of
previously inaccessible areas the country. The
community-based organization Harmonisation
de l’Action des Communautés Haïtiennes
Organisées (HACHO), operating in the
northwest of Haiti, shifted to focus on road
construction in 1968. By 1982 HACHO had
constructed a network of over 600 kilometers of
unpaved roads (Brinkerhoff et al. 1983). In the
mid-1970s, USAID financed the Agricultural
Feeder Roads Project, constructed over 300
kilometers of new roads by December 1982
(USAID 1983). Multiple road projects in Haiti
also originated at the hands of local community
councils and were spurred by the initiative of
local churches or foreign missionary groups
(Smucker et al. 1979).
Considering just the USAID and HACHO
projects, more than 900 kilometers of new
roads were established in Haiti from around the
1970s through to the early 1980s. Nine hundred
kilometers of new roads is a remarkable addition
A History of Landscape-level Land Management Efforts in Haiti 20
to a country that does not exceed 300 kilometers
at its lengthiest continuous extent (Tarter 2015b).
Since new roads were constructed off of existing
arterial highways, their construction opened up
many of the more remote locations in Haiti. These
new roads reversed the historical phenomenon of
just a few accessible areas targeted for agriculture
and charcoal production, and original charcoal
producing areas experienced significantly less
pressure than in former decades.
Toward the end of the 20th century, almost
all land area of Haiti had been dedicated to
agricultural production (crops and livestock).
Today, there is hardly any parcel of land that is
not being dedicated to some kind of productive
use, profoundly influencing the current state of
the environment of Haiti (Tarter 2015b), with
agricultural production commonly being the
primary objective with sizable integration of
trees and woody vegetation.
21
As early as 1830, the space created by the absence
of original hardwood forests was rapidly filled
by at least two exotic tree species: mesquite
4
(Prosopis juliflora), and to a lesser extent, logwood
5
(Haematoxylum campechianum) (Tarter 2015b).
By 1930, the former tree species was the most
common tree in the dry forests that dominate
the majority of Haiti’s varied ecosystems,
and the most utilized tree species for charcoal
production (Gill 1931). By the 1940s, Prosopis
juliflora was the most common tree in some 80
different forest-transect surveys conducted in
an area north of Port-au-Prince (Curtis 1947).
In 1976, the author of the first in a series of
preliminary reports, which would eventually
lead to the largest tree-planting project in the
history of Haiti, concluded that managed Prosopis
plantations could meet all of Haiti’s domestic
wood needs (Earl 1976). Multiple authors of the
widely-cited 1985 Haiti Environmental Profile
Report noted the widespread extent of Prosopis
trees and the long tradition of Haitian farmers
managing the species for wood and for charcoal
production (Ehrlich et al. 1985). By 1991, the
World Bank reported that natural Prosopis stands
4 Bayawonn or bayahonn, in Haitian Creole.
5 Kanpèch, in Haitian Creole.
dominated approximately 1/10
th
of Haiti’s land
surface (World Bank 1991).
In a recent nation-level remote-sensing analysis
of high-resolution satellite imagery from 2010 and 2011, trees were found to cover approximately 1/3
rd
of the surface of Haiti, and trees and woody
shrubs combined to cover 3/4ths of the surface of Haiti (Churches et al. 2014). A similar ratio of tree and shrub coverage was reported in an analogous study of the large offshore island of La Gonâve, based on high-resolution satellite photos from 1990 and 2010 (White et al. 2013). And finally, in a broader study of land changes within the Greater Antilles between 2001 and 2010, researchers discovered that 26 different Haitian municipalities underwent significant changes to woody vegetation (8 decreased and 18 increased) and 48 municipalities experienced significant changes in mixed-woody plantations (9 decreased and 39 increased) (Álvarez-Berríos et al. 2013: 88-91). In overall land percentages for the entire country, woody vegetation experienced a 1% increase while mixed-woody/plantations increased by 4%, or 368 km
2
(89). These studies
combined point to an arboreal phenomenon that stands in stark contrast to popular conceptions of tree-cover in Haiti (Tarter 2016), and demands further elucidation.
THE CURRENT CONDITION OF THE RURAL ENVIRONMENT OF HAITI
Centuries of deforestation in Haiti have played out on an overwhelmingly mountainous terrain that receives seasonal rains and torrential downpours from frequent tropical storms and hurricanes. Exacerbated and accelerated by the exposed agricultural fields of a densely populated rural countryside, deforestation and alluvial soil erosion have produced predictable environmental consequences: the loss of topsoil, decreasing soil fertility, overall agricultural decline, and rural out-migration. A less-predictable consequence of deforestation was the widespread encroachment of exotic tree and shrub species, to collectively cover approximately 3/4ths of Haiti’s land surface by approximately 2010 (Tarter 2015b; Churches et al. 2014; White et al. 2013).
A History of Landscape-level Land Management Efforts in Haiti 22
In 2012, geographers from Virginia Tech
undertook a land-use/land-change analysis
of Haiti’s largest offshore island of La Gonâve,
using two high-resolution Landsat satellite
images, twenty years apart, from 1990 and 2010
(White et al. 2013). Both images in this analysis
were selected from late January—in Haiti’s
dry season—to control for seasonal variability
in vegetation and to diminish cloud cover. In
this classification, researchers considered five
different land-cover types that were mutually
exclusive and exhaustive of all other land types
in the area. Several complementary and higher-
resolution (30 cm/pixel) satellite photographs
were consulted in the accuracy assessment of
the image classification, in combination with
the analysts’ knowledge of the area, and a two-
month field excursion to visit a stratified
6
random sample of validation points to ground-
truth the classifications. The team averaged
61 points of verification for each of the five
land-use categories (n=301 total), locating the
random geospatial coordinates with hand-held
GPS units. The overall accuracy of their 2010
classification was 87%, with a Kappa coefficient
of 0.84 (White et al. 2013: 498). The results show
that the percentage change in land area on La
Gonâve from 1990 to 2010 for Agricultural land,
Forest/DV
7
, Shrub, and Barren/Eroded land
classes, were −39.73%, −22.69%, +87.37%, and
−7.04%, respectively (White et al. 2013: 499).
While the overall percentage of the ‘Forest/
DV’ land-cover decreased over 20 years by
22.7%, the ‘majority of 1990 agricultural lands
were converted to shrub (45.01%) and forest
lands (34.23%),’ and ‘56.2% of the barren/eroded
land area in 1990 has been revegetated’ (White
et al. 2013: 499-500). Thus, the entire land
surface of La Gonâve in 2010 (excluding water
and masking the < 2% cloud cover) was 40.4%
covered with woody shrubs and 46% covered
6 The random sample strata were fifteen 52-meter elevation increments, to look for elevation-based influences (White et al. 2014: 498).
7 According to their classification, the latter category (Forest/DV) ‘is composed of all vegetation growth levels beyond the shrub stage’ (White et al. 2013: 496).
with Forest/DV (White et al. 2013: 499). The researchers’ observations support the hypothesis of an arboreal shift in Haiti:
There is strong evidence on La Gonâve indicating that previously cleared areas in the lowlands (regions of poor soil nutrients derived from limestone regolith and limited soil horizons) are beginning to revegetate initially with xerophytic species as agricultural land is abandoned after soil exhaustion. This process was discussed as a common experience in informal interviews with farmers on La Gonâve.
(...)
Revegetation on La Gonâve is primarily
illustrated by the increase in shrub cover.
Though shrub was the second largest land
cover type in 2010, field observations indicate
that the majority of the Shrub class cover varied
along the scrub-dense vegetation gradient.
Revegetated areas are composed of secondary
succession forest, predominantly Acacia species
[bayawonn
8
] maturing from shrub to grove.
Woody shrubs are regularly harvested for
charcoal production and for export roughly
at the pole stage (...) A large portion of the
residents’ financial income on La Gonâve
is supported by the charcoal export to the
mainland. The shrub cover may be caught in
a perpetual cycle of harvest and revegetation
rarely reaching early succession or the pole
stage in growth (White et al. 2013: 503).
While forest cover on La Gonâve has decreased,
it has been replaced by woody shrubs, largely in
the form of Prosopis, which appear to be managed
8 White et al. (2013) now believe that the acacia species noted in this passage is in fact bayawonn, and have made this correction in a subsequent manuscript they are preparing from the same data (White et al., email communication, 3/23/2015). The authors indicate that bayawonn on La Gonâve is cut at the ground level,
with some coppice limited to a few stems rather than multiple stems (ibid.). In other words, as in the colonial era, barren and abandoned agricultural lands were encroached by bayawonn from lowland areas, and these
trees are now ‘harvested on a regular basis for charcoal production’ (White et al. 2013: 503).
23
for charcoal production
9
. Overall, the ‘shrub’
coverage on La Gonâve increased by 87.4% from
1990 to 2010 (White et al. 2013: 503).
In a similar study, a geographer, geologist,
and a natural resource management specialist
collaborated to determine forest cover for the
entire country of Haiti (Churches et al. 2014).
The authors used five Landsat satellite images
(2010-2011) from Haiti’s dry season, which
provided coverage of the entire country. After a
series of standard renderings and corrections, the
authors reclassified their satellite images using
FAO’s forest class definition, thereby creating a
low (FAO) to high (authors’) range of percentage-
tree-cover. These image classifications were
verified through the application of a stratified
10
sample of 1,525 random reference points to
higher resolution satellite imagery. Their ‘tree
cover’ class had a users’ accuracy of 86% and a
0.81 Kappa coefficient, and the overall
classification accuracy ranged from 78%
(reference point counts) to 83% (class
proportions) (Churches et al. 2014: 211). The
results of the nationwide analyses showed that
in 2010-2011, trees covered between 29.4% and
32.3% of Haiti’s land surface,
11
and that ‘shrub/
herbaceous’ areas covered between 45.7% and
48.6% of the land surface. Rather than a thinly
dispersed arboreal covering, trees are aggregated
in fragments and patches (Churches et al. 2014).
It should be noted that both studies used
slightly different land-use classifications: in
the island of La Gonâve study, researchers
combined ‘forest’ and ‘dense vegetation’ into one
category,
12
and classified woody ‘shrub cover’ as
separate category (White et al. 2013); in contrast,
the nation-wide study aggregated ‘shrub,’
‘herbaceous,’ and ‘agricultural’ land-uses into one
9 White, personal communication (3/23/2015).
10 Strata were based on the land use distributions from their initial classification (Churches et al. 2014: 209).
11 Includes ‘water’, ‘wetlands’, ‘bare/non-vegetated’ and ‘cloud’ categories.
12 ‘Forest/Dense Vegetation class is composed of all vegetation growth levels beyond the shrub stage. Forest lands were considered to have a tree-crown areal density of ~10% or more’ (White et al. 2013: 498).
category,
13
and used a single category for ‘tree
cover’
14
(Churches et al. 2014). This aggregation is
a setback for establishing nationwide percentages of managed charcoal woodlots, which would be best inferred through the woody vegetation that may have been split in both studies between tree and non-tree categories. Nevertheless, both the La Gonâve and the nationwide study use a single category that operationalizes trees in the same way, and similarly restricts smaller shrubs, and all other land uses. In the La Gonâve study, approximately 46% of the island’s land surface is covered with forest and dense vegetation beyond
shrubs (White et al. 2013: 499), while the nation-
wide study found approximately a third of Haiti’s
land surface is tree-covered (Churches et al.
2014).
In a broader study of land changes within
the Greater Antilles between 2001 and 2010,
26 different Haitian municipalities (sections
communales) underwent significant changes
to woody vegetation
15
(8 decreased and 18
increased); 36 municipalities underwent
significant changes in agriculture/herbaceous
16
(25 decreased and 11 increased); and 48
municipalities experiences significant changes in
mixed-woody/plantations
17
(9 decreased and 39
increased) (Álvarez-Berríos et al. 2013: 88-91).
Across municipalities of significant change, there
was an 8% loss of woody vegetation, a 114% loss
of agriculture/herbaceous, and a 133% increase in
mixed-woody/plantation (Álvarez-Berríos et al.
13 ‘Vegetation less than 5 m in height or lacking definite structure such as stems or shoots. Woody vegetation included if crown cover is <10% and height <5 m. Includes all agriculture’ (Churches et al. 2014: 207).
14 ‘Vegetation greater than 5 m in height with a canopy cover of ≥10%. Includes mangroves. Does not include fruit-tree plantations’ (Churches et al 2014: 207).
15 “Woody vegetation was trees and shrubs with >80% cover” (Álvarez-Berríos et al. 2013: 86).
16 ‘Agriculture/herbaceous vegetation was annual crops, grasslands, and pastures with >80% cover’ (Álvarez- Berríos et al. 2013: 86).
17 “Mixed-woody/plantations was woody vegetation with a 20 to 80% cover, including agriculture/herbaceous vegetation or bare soil as background, as well as all forms of plantations and perennial agriculture” Álvarez- Berríos et al. 2013: (86).
A History of Landscape-level Land Management Efforts in Haiti 24
2013: 88). Conversely, in overall land percentages
for the entire country, woody vegetation
increased from 1%, agriculture decreased from
4%, and mixed-woody/plantations increased
from 4% (Álvarez-Berríos et al. 2013: 89).
Municipalities that experienced losses or gains
were widely geographically distributed.
The sum of these three remote-sensing analyses
suggests that the arboreal expansions that occurred
in the post-independence period may be in
swing again. Figures 1 and 2 represent the most
recent and most empirically grounded estimates
of arboreal coverage in Haiti. While most of
Haiti’s original hardwood forests are gone, much
of the land is now covered by a combination of
trees and woody shrubs (see Figures 1 and 2).
This current reality stands in stark contrast to
depictions of Haiti as a lunar landscape devoid of
trees. Ultimately this difference depends on how
terms like ‘forest’ and ‘tree cover’ are understood.
The phenomenon begs at least three important
questions: (1) how did this arboreal encroachment
occur; (2) how has it gone largely unnoted; and
(3) what implications does this new landscape,
which dominates much of contemporary rural
Haiti, have on efforts to initiate landscape-level
management schemes in Haiti?
The arboreal landscape that currently
characterizes the Haitian countryside is the result
of several phenomena and their interactions in
an iterative cycle (Tarter 2015b). The historical
deforestation of Haiti simultaneously removed
original hardwoods and depleted many of the
soil profiles necessary for the regeneration of
original hardwood species. Deforestation also
exacerbated a drying trend on Hispaniola that
began as early as the middle of the Holocene
epoch (Higuera-Gundy et al. 1999). Climatic
drying led to further cutting of original trees
for wood and charcoal, as a necessary reaction to
declining agricultural possibilities.
Another permissive influence in the spread
of these tree species can be indirectly traced
from the Haitian land succession system,
which is based on the Napoleonic Code of the
colonial period. In this system, all agriculturally
productive land in Haiti is inherited bilaterally
and divided equally amongst all siblings, male
and female. While certain unproductive familial
land is considered sacred, inalienable, and is never
divided (Herskovits 1937), in contrast, arable
plots become smaller every successive generation
at every new cycle of inheritance (Murray 1977).
The inheritance of land plots that may be
prohibitively small for agricultural production
was initially met by an adaptive strategy on
the part of Haitian farmers, which aligns with
the theory of economist Ester Boserup (1965):
the agricultural fallow period was shortened
or eliminated (Murray 1977). While the land
fallow-shortening strategy worked for a time, the
associated agricultural intensification ultimately
accelerated processes of declining soil fertility,
climatic drying, and erosion.
The exotic tree species (Prosopis juliflora and
Haematoxylum campechianum) that now dominate
much of the rural landscape of Haiti are
highly adapted to poor soils, low moisture, and
prolonged drought (Tarter 2015b). Much of the
land that was eventually rendered agriculturally
useless in Haiti became covered by these tree
species, which are prolific seeders, propagate in
a variety of novel ways, rapidly encroach into
new territory, and are protected from foraging
animals by thorny trunks and branches (ibid.).
The predominance of these trees provides
some ecosystem services, such as nitrogen
fixation and the protection of the soil from
chronic weathering by the elements and
by acute weather from tropical storms and
hurricanes. The deep taproots and lateral rooting
of these species help break apart the limestone
substrate that underlies much of Haiti’s topsoil,
permitting a more rapid regeneration of soil in
areas of extreme degradation, and a more rapid
percolation of surface water into the aquifer.
In some cases, fast growing-trees in Haitian
farmer-managed woodlots have served as de facto
nurseries, providing the necessary conditions for
the regeneration of indigenous hardwoods, other
trees and plants, and as habitat for animal species
(Smucker and Timyan 1995).
Yet the most-immediate benefit of Haiti’s
current arboreal expansion is not in the form of
25
FIGURE 2. The Current Extent of Tree and Shrub Cover
on the Island of La Gonâve, Haiti: 1990 and 2010.
(White et al. 2013: 500)
FIGURE 1. The Current Extent of Tree and Shrub Cover in Haiti in 2010.
(Churches et al. 2014: 212)
A History of Landscape-level Land Management Efforts in Haiti 26
ecosystem services, but as an economic input to
the farmers who manage these species sustainably
for continued charcoal production (Tarter 2015b).
Prosopis juliflora and Haematoxylum campechianum
coppice aggressively from the stump; where
original hardwoods disappeared when cut, these
rapidly spreading exotic plants continue to return
after multiple cuts, making them ideal species for
charcoal production (ibid.). Charcoal production
is not easy - it is labor intensive and often pays
less than agricultural food crops. But charcoal
production using managed woodlots of coppiced
trees is nevertheless a welcome possibility in
rural Haiti in the light of declining harvests and
increasingly chronic crop failures.
The trees and woody shrubs that populate
much of rural Haiti in the form of managed
woodlots failed to spread at the national level in
the first part of the 20
th
century because charcoal
production was centralized in a few accessible
locations: not only were original forests rapidly
depleted of original trees, but overexploitation
of wood resources also prevented a notable
establishment of these subsequent exotics. But
the advent of 900 kilometers of new roads
took pressure off these few original locations,
decentralizing charcoal production at a national
level and permitting the spread and reproduction
of exotic species at a rate that eventually
contributed, in part,
18
to their current extend in
the rural Haitian landscape (see Figures 1 and 2).
This brief history together with our
understanding of current levels of tree coverage
in Haiti challenge at least one misguided narrative
that pertains to landscape-level development
projects in Haiti: that charcoal production is
responsible for the denudation of Haiti’s forests
and that the key to successful reforestation is the
elimination of the charcoal trade. On the contrary,
18 It is undeniable that the current arboreal expansion in Haiti may be partially contributable to other causes, such as the nationwide tree-planting efforts of the 1980s and 1990s. However, rural out-migration, the abandonment of formerly productive land, and an increase in pseudo- drought conditions all provide the necessary conditions for the spread of the species thought to dominate much of the rural countryside at this time in history.
much evidence exists that the charcoal trade in Haiti occurred after much of the deforestation of original forests and that charcoal practices are currently meeting urban energy needs, decades beyond the dire warnings of analysts during the wood crises years of the 1970s and 1980s.
Land Inheritance, Land Tenure and, Land Security
Many common misconceptions repeatedly find their way into the development literature on Haiti, regarding land inheritance, land tenure, and land security. An illustrative example of such misconceptions is the notion that Haitian farmers do not have secure tenure of their land. However, numerous studies have taken up the issue and all have reached the same conclusion: land tenure in rural Haiti is secure and not an obstacle to landscape-level land management (Murray 1977, 1978b, 1987; White and Runge 1994, 1995; White 1992; White and Jickling 1995; Smucker et al. 2005, 2007).
Several general features pertaining to land
inheritance, tenure, and security, which may inform landscape-level land management processes, hold true across much of rural Haiti:
Land Inheritance
• All land is inherited bilaterally and equally between siblings, male and female;
• While all inherited land is capable of division,
and all inheritors may claim an equal share
of land, not all inherited land is immediately
divided;
• Arable land is usually divided immediately,
rendering land suitable for cropping into
successively smaller and more fragmented plots
each generation;
• Manly arable plots of land are frequently too
small to meet the needs of a single farm family;
the phenomenon of fragmented arable plots
is circumvented by the strategy of most farm
families to acquire several such parcels through
purchase; as a result, arable plots are not only
27
fragmented and small, but typically distributed
in a discontinuous pattern across the landscape;
most arable land plots are alienable, and
the selling and purchasing of such plots is
widespread and common.
• In many areas of Haiti, farmers also have access
to land collectively held by kin members. Such
land is typically much larger in size because
it has been neither informally nor formally
divided, frequently owing to the land’s lower
capacity for agricultural crop productivity.
Such lands typically have steeper slopes, a less
preferential aspect (rain and sun exposure),
poorer soils, and are generally less desirable
than flatter, frequently lower-elevation, arable
lands. These lands are typically used for the
production of charcoal, as a location to tether
foraging animals, and sometimes as fruit
orchards and coffee groves. These collectively
owned lands also meet other needs, including
non-material needs, such as a location for the
veneration of the ancestors and other spirits of
the Vodou (voodoo) pantheon (Tarter 2015a).
The utilization of such land functions through
a complex internal system that permits kin
members to enter and equitably access available
resources. However, due to reluctance or a
lack of impetus to divide such lands, several
generations of kin members may claim access
to the land, complicating the management
of the land’s resources, and increasing the
likelihood that the land will remain undivided.
Land Tenure
• Rural Haiti operates on two complimentary
systems of land tenure - one is informal and
the other is formal (Murray 1977);
• The informal tenure system has high internal
security: it is widely recognized and respected
within communities and often functions on
agreements between neighbors or kin, in the
presence of neighbors or kin, and therefore
may a traceable material record of use and
access;
• The formal land tenure system functions and is
legitimized through the legal apparatus of the
Haitian Government, and has higher levels of
external validity than the informal system;
• Both the formal and informal tenure systems
are secure in different ways, and Haitians rely
on both systems for different needs; and
• Rural Haitians also benefit from a land leasing
system, which may be an informal agreement
between the land-owner and lessee, or may be
formalized by the use of a local notary.
A basic understanding of land tenure is
important for any effort to promote or institute
landscape-level management projects in rural
Haiti. The current land tenure systems are
complex but generally not an impediment to
project participation, investment, and ownership.
The Haitian land tenure system is complex, but
functional.
By using the informal tenure system, rural
Haitians avoid the fees and taxes associated with
dividing land formally (Murray 1977, 1978b,
1987; White and Runge 1994, 1995; White 1992;
White and Jickling 1995; Smucker et al. 2005,
2007). Rural Haitians utilize the formal land
tenure system when land sales and purchases are
undertaken outside of the kinship network or
outside of the village context (ibid.).
The vast majority of rural Haitian farmers are
content with their current land tenure systems,
which are not only functional, but are also
historically adaptive (Murray 1977). Land tenure
reform is rarely listed in the litany of needs
expressed by Haitian peasants themselves, though
access to land arable is an on-going frustration
expressed by younger members of society, at least
historically (Murray 1977, 1981).
Land Security
The situation in Haiti is different in regards to
land security. Haiti has a long history of urban
elites and rural gran don (a wealthy rural middle
class) attempting to control the peasantry through
opportunistic land purchases, ‘legal’ maneuvering,
and varied strategies of displacement (Trouillot
1990; Steckley
and Shamsie 2015). A subsequent
case study on the Péligre Dam provides an
illustrative example of this well-documented
A History of Landscape-level Land Management Efforts in Haiti 28
historical trend. It is entirely possible that aspects
of the land tenure system in place in rural Haiti
developed in part as a strategy to mitigate land
insecurity. Given that the vast majority of arable
land in Haiti is represented as a patchwork of
discontinuously dispersed and privately owned
fragmented plots of land, the issue of land
security is perhaps less than in earlier historical
periods when the aggregation of arable land in
the hands a fewer land-owners might engender
a higher tendency to land grabs and predatory
land acquisition.
History suggests that while land security, land
inheritance practices, and land tenure systems in
rural Haiti are complex, they are fully functional
and in no way impede the ‘plot-based’ approaches
to landscape-level improvement projects.
However, given the fragmented nature of most
land plot holdings, ‘macro-level’ approaches to
landscapes are unlikely to meet much success at
this point in the history of rural Haiti.
Soil Conditions in Haiti
The loss of soil is the most immediate and
observable effect from the initial deforestation of
Haiti. The UNESCO Haiti Pilot Project noted
degrading soil conditions as an issue of concern
as early as the mid-20
th
century. The decline of
agricultural productivity due to soil degradation
has since been systematically documented in
Haiti (Zuvekas 1978; Pierre-Louis 1985; Bargout
and Raizada 2013).
The effects of erosion, declining soil fertility,
and decreasing arable plot sizes have led to a
nationwide agricultural decline. Despite this
trend, the majority of the rural-dwelling Haitians
continue to pursue agriculturally based livelihood
strategies, supplemented heavily by remittances
sent from Port-au-Prince and diaspora abroad.
Soil and the Relationship to
Ecological Zones of Haiti
One of the most commonly employed systems
for the classification of ecological zones in
tropical and subtropical areas was developed by
forester L.R. Holdridge in the early 1940s, but has
since been adapted and applied on a global scale.
Because Holdridge’s system was developed in
Haiti, it continues to be the primary classificatory
schemes used in much of the literature related
to the ecological aspects of landscape-level land
management in Haiti. The system delineates nine
different zones based principally on the metrics
of annual precipitation, mean annual temperature,
the potential evapotranspiration ratio (PET), and
considerations of elevation (Holdridge 1947,
1967).
Four of the Holdridge Life Zones (HLZ) cover
less than 1% of Haiti’s land, while the remaining
five constitute notable percentages (Delatour et
al. 1984). The largest zone, Subtropical Moist Forest,
representing approximately half the entire land
area of Haiti, is found at an elevation of ~800
meters. It receives 1,200-1,800 mm of annual
rainfall, and supports the largest percentage of
small-holding peasant farms (Delatour et al.
1984; Ehrlich 1985). The Subtropical Moist Forest
zone was traditionally home to large stands
of mahogany and tropical oak, now replaced
principally with avocado and mango trees (ibid.).
The second largest HLZ is Subtropical Dry
Forest, constituting 19% of Haiti’s land, falls
under 400 meters of elevation, receives an
annual mean rainfall between 800-1,000 mm,
experiences seasonal droughts, but has deep,
irrigable soils, and is highly agriculturally
productive (Delatour et al. 1984). Common
trees in the Subtropical Dry Forest zone include
Phyllostylon brasiliensis, Prosopis juliflora and
Guaiacum officinalis. Viable crops include
mangoes, limes, tobacco, cotton, plantains, sugar
cane, and sisal.
While these two HLZs constitute
approximately 70% of Haiti’s land surface, they
and the other zones are unevenly distributed
across Haiti’s landscape. Thus, it remains a
challenge to incorporate ‘one-size-fits-all’
program policies at the landscape level. A
private consulting firm consolidated and adapted
Holdridge’s ecological zones for Haiti in order
to incorporate population density levels and
[... middle sections omitted for long document ...]
71
Van der Plas, Robert. 2007. Haiti: Strategy to
Alleviate the Pressure of Fuel Demand on
National Woodfuel Resources. Energy
Sector Management Assistance Program, The
World Bank Group. ESMAP Technical Paper
No. 112/07.
Verna, Chantalle F. 2015. Haiti, the Rockefeller
Foundation, and UNESCO’s Pilot Project
in Fundamental Education, 1948-1953.
Diplomatic History. Vol. 0, No. 0 (no
pagination; advanced access).
Verner, Dorte and Willy Egset
2006 Haiti: Social
Resilience and State Fragility in Haiti: A
Country Social Analysis. Report to the
World Bank. Report No. 36069-HT.
Versluis, Anna and John Rogan. 2009. Mapping
land-cover change in a Haitian watershed
using a combined spectral mixture analysis
and classification tree procedure. Geocarto
International. Vol. 25, No. 2, pp: 85-103.
Versluis, Anna J. 2008. We All Live Downstream:
Disaster, Land Change and Reciprocity in A
Haitian Watershed. Geography Dissertation.
Clark University, Worchester, MA.
Versluis, Anna. 2010. Highlands management
in flood-prone watershed: Does reflexive
reciprocity make a difference? Global
Environmental Change. Vol. 20, pp: 333-341.
Voltaire, Karl. 1979. Charcoal in Haiti. Report to
USAID/Haiti. Port-au-Prince.
Wha, Tatiana. 2013. Engaging the Haitian
Diaspora: Emigrant Skills and Resources are
needed for Serious Growth and development,
not Just Charity Cairo Review, 9/2013, pp:
56-69.
Watras, Joseph. 2010. UNESCO’s Programme of
Fundamental Education, 1946-1959. History
of Education. Vol. 39, No. 2, pp: 219-237.
White, Justin, Yang Shao, Lisa M. Kennedy
and James B. Campbell. 2013. Landscape
Dynamics on the Island of La Gonâve, Haiti,
1990-2010. Land, 2, pp: 493-507.
White, T. Anderson, and C. Ford Runge.
1994. Common Property and Collective
Action: Lessons from Cooperative
Watershed Management in Haiti. Economic
Development and Cultural Change. Vol. 43,
No. 1, pp: 1-41.
White, T.A. and C.F. Runge. 1995. The emergence
and evolution of collective action: Lessons
from watershed management in Haiti. World
Development. Vol. 23, No. 10, pp: 1683-1698.
White, Thomas A. 1992. Peasant Cooperation
for Watershed Management in Maissade,
Haiti: Factors Associated with Participation.
EPAT/MUCIA Working Paper No. 4. The
Environmental and Natural Resources
Policy and Training Project. Minnesota
Agricutlural Experiment Station, Project
Nos. MN-42-049 and MN-42-035.
White, Thomas Anderson and Jon L.
Jickling.
1995. Peasants, experts, and land
use in Haiti: lessons from indigenous and
project technology. Journal of Soil and Water
Conservation 50, pp: 7-14.
Wood, Diane Walton, and Frederick J. Conway.
1984. Assessment of Haiti’s Indigenous
Environmental Non-governmental
Organizations and Recommendations
for a USAID Program to Support Them.
Environmental Planning and Management
Project. International Institute for
Environment and Development. US AID.
Contract No. NGO/FA/86-01.
World Bank. 1982. Staff Appraisal Report: Haiti
Forestry Project. Projects Department, Latin
America and the Caribbean Regional Office.
Report No. 3776a-HA.
World Bank. 1991. Staff Appraisal Report. Haiti:
Forestry and Environmental Protection
Project. Country Department III: Latin
America and the Caribbean Regional Office.
Report No. 9307-HA.
World Bank. 2015. Haiti: Towards a New
Narrative. Systematic Country Diagnostic.
Latin America and Caribbean Region, May
2015.
Zuvekas, Clarence. 1978. Agricultural
Development in Haiti: An assessment of
sector problems, policies, and prospects under
conditions of severe soil erosion. Report to
USAID. Report Control No. PN-AAF-587.
A History of Landscape-level Land Management Efforts in Haiti 72
SECTION V:
Appendices
73
APPENDIX A: Challenges to this
Literature Review
The literature on landscape management in Haiti
is voluminous, and a thorough undertaking of all
literature was not possible.
Development reports are frequently influenced
by the mandates of the producing institution.
Many reports failed to adequately describe their
research design and data sources, or acknowledge
potential sources of bias in their methods and
conclusions. In some cases reports are clearly
driven by the implicit or explicit agendas of the
institution or the individual researcher, and fail
to note any project shortcomings or need for
policy refinement. This trend is illustrated by the
authors’ review of several evaluations that praised
projects widely acknowledged (in Haiti) to have
failed.
A final related shortcoming of evaluating
literature on development projects in Haiti
concerns an historical lack of data, questions
of data accuracy, issues of data accessibility for
particular periods of time, and uneven topical
and temporal coverage.
29
The unfortunate
result of this phenomenon has been that many
Haiti researchers must rely on dated or outdated
sources. The issue is compounded when
researchers cite secondary or tertiary sources.
Figures provided in a 2010 report might derive
from a secondary source published in the 1980s,
which relied on partial or questionable data
from the 1950s. An illustrative example of this
tendency can be found in the case of the 1972
OAS report that aggregated 100+ watersheds in
Haiti into 30 pragmatically organized zones. This
report has since been cited to the point where
many researchers suggest that there are only 30
major watersheds in Haiti.
Stated more succinctly, the available literature
on landscape management projects in Haiti
29 While certain historical periods (eg. The period surrounding the 2010 earthquake) are replete with literature, other periods (eg. The period surrounding the Duvalier presidencies) are marked a significant decline in published research.
varies not only qualitatively, but also in quality and objectivity. The solutions to these challenges are beyond the scope of this report, but point to the necessity of independent, objective project analyses, based on field-site visits and off-the- record interviews with project personnel and project beneficiaries.
APPENDIX B: Landscape Level Management Schemes in Haiti
(Reproduced from Smucker et al. 2007: 18-22):
Landscape Engineering From the 1950s to the 1970s there were bilateral projects with the Government of Haiti using an approach commonly described as “équipement du territoire,” a landscape engineering strategy. These projects were done on both private and public lands using a top-down management approach to cover large, contiguous areas with conservation structures. Soil conservation was considered to be a strictly technical problem to be solved by engineers installing mechanical structures, mainly rock walls and contour canals, using paid (cash or food for work) labor. Neither land tenure nor the interests of peasant landowners were taken into account.
In many cases this resulted in very expensive
rock walls constructed on infertile, steep, and droughty garden plots. The cost of installing the structures was many times greater than the value of any added increment of crop yield due to these conservation effects. In general this model is noted for its unsustainability and its near total lack of upkeep of the structures, most of which eventually disintegrated. This model should be discarded; although, there were some limited positive results derived from teaching farmers certain techniques or introducing tree species. Civic Infrastructure and Job Creation Job creation projects that became widespread during the middle 1990s share certain characteristics with the landscape-engineering model in that public works projects were accomplished with paid labor. Some of these
A History of Landscape-level Land Management Efforts in Haiti 74
projects made a serious effort to respond to
the specific needs and local characteristics of
rural localities, for example, the rehabilitation
and expansion of irrigation works operated by
grassroots water user organizations outside of
Mirebalais. Others merely served as a pretext
to distribute salaries for political reasons
and had no lasting results. In the future, job
creation projects will be required as a needed
element of watershed management, especially
for infrastructure repair and treatment of
water courses, but such efforts must fit within
an overall strategy so that resources are used
efficiently.
Plot-Based Models
Beginning in the 1980s, donors funded
agricultural extension projects through grants
and cooperative agreements directly with
NGOs. They specifically sought a greater
understanding of peasant farming systems and
tried to design field approaches accordingly.
Programs emerged which engaged in
tree planting and many other types of soil
conservation techniques beyond the rock
and canal structures favored previously. Fund
management was often done by a large
international NGO acting as an umbrella
agency, receiving funds from the donor and in
turn administering smaller agreements with
local NGOs or farmer groups of various sizes
and strengths.
Some projects concentrated their activities
in smaller regions while others spread out
over larger areas. The basic unit of work
within the NGO or community-based farmer
organization (CBO) was the farmer work
group, and project interventions were offered
from a basic list of contour and gully soil
conservation practices, tree planting, crop seed
improvement, fruit tree grafting, marketing, and
institutional strengthening activities. Extension
agents were selected by the contracting groups
from within their own members; these were
trained by project technicians and acted as
liaisons between project staff and participating
farmers.
These projects were not designed to cover
whole watersheds. Farmers did not treat all of
their plots, which varied in their slope, distance
from the residence, security of access, soil
fertility, contribution to household economy,
and other factors. The principal reason farmers
chose not to treat all plots was undoubtedly
the high threshold costs for doing so. Treating
degraded hillside slopes “correctly” was beyond
the means of most farm families. Significant
landscape-level changes did occur in some
regions due to plot-based project interventions,
and three such case studies are presented later
in this chapter. This was an interesting period
because new technical approaches and new
partnerships between technicians and farmers
were developed, and the implementing
agencies attained greater understanding of
peasant farming systems. Nevertheless, the
plot-based model, although useful, was not
designed to solve the fundamental problems of
watershed protection.
Watershed-Based Strategies
The stated focus of these projects is the
watershed, or more realistically, a portion of a
watershed. This focus defines the geographic
limits and the intended type of outcomes, which
are primarily environmental and intended
to benefit the broader society by reducing
the damage to infrastructure. Paradoxically,
design of watershed projects is often based
on lessons drawn from plot-based projects
where the objectives are mainly concerned
with increasing agricultural income rather
than producing environmental benefits for
downstream users. Resolving the differences
between these contrasting objectives will be
crucial to designing an effective watershed
project. The technical approach and outreach,
funding and benefit-flow mechanisms vary
across projects.
Much debate has taken place in Haiti about
watersheds, especially since the release of a report
by Löwenstein (1984) on the deteriorating
condition of the Macaya watershed; however,
no satisfactory watershed-level solution has yet
evolved, even though some interesting results
75
were obtained along the way. For example, the
USAID-funded ASSET project…worked for
three years in the Grise/Blanche watersheds
and was designed to work at a landscape scale
(Israel et al. 2001); however, the project did not
have a major effect on flooding, sedimentation,
or water supplies in the lower watershed. This
was due largely to the project’s limited scale of
operation in the upper watershed.
In general, evaluation of watershed projects
points to the importance of designing
approaches that consider charcoal markets,
animal markets, infrastructure, household water
supply, and appropriate social structures. Most
importantly, building local social capital needs
to be taken to a new level when considering
watershed-level interventions. It is imperative
to consider off-farm externalities and build
new social links that protect the interests of
participating farmers whose long history of
economic and social disadvantage has led to
the creation of their present systems. These
persistent systems will not readily be put at risk.
Market-Driven Models
This approach seeks to augment small
farmer income by developing or improving
marketing links for agricultural crops. The
objective of the marketing strategy is to assist
farmers to generate sufficient profits to cover
their normal agricultural expenses plus the
additional expenses required to invest in better
germplasm and soil and water conservation.
In other words, the intent of project designers
is for marketing to drive improved natural
resource management.
A market driven strategy was introduced
in the Productive Land Use Systems project
(PLUS) and then substantially expanded by
the Hillside Agricultural Program (HAP)
since 2001. The HAP project included natural
resource management components in the early
years, but specific NRM interventions were
eliminated in 2003 due to funding cuts. HAP
marketing activities have successfully created
new opportunities for tree crops (coffee,
mangos, and cacao) that have benefited farmers
by boosting farmgate sale prices. This may
have had a positive effect on the environment,
but the project has not tracked the effect of
marketing on NRM. Furthermore, HAP
promotes improved marketing opportunities
for a given crop regardless of where it is grown,
so the effects are not concentrated nor do they
consider whole farming systems and their
impacts on the watershed. The narrow scope of
marketing projects limits their ultimate effect
on natural resource management. Nevertheless,
marketing is a key consideration and must be
central to future watershed projects (see “Tree
Products and Trade” later in this chapter).
(Reproduced from Smucker et al. 2007: 18-22).
APPENDIX C: Watershed
Management Principals of the
Ministries of Environment and
Agriculture
(Reproduced from Bush and Sildor 2009: 30-
32):
Ministry of Environment
Principle 1: The objectives set for the
management of natural resources and
biodiversity are society‘s choice.
Principle 2: Management must be
decentralized and conducted at the lowest
possible level.
Principle 3: The managers of an ecosystem
including a watershed must consider the effects
(real or potential) of their activities on adjacent
ecosystems or elsewhere.
Principle 4: Given the advantages of good
management, it is important to understand
the economic context of the ecosystem. All
management programs should (a) reduce
market distortions that have an negative impact
on biodiversity; (b) align the incentives that
favor the conservation and sustainable use of
biodiversity; (c) internalize the external costs
and benefits of ecosystem management.
A History of Landscape-level Land Management Efforts in Haiti 76
Principle 5: The ecosystem approach should
be applied only at the appropriate scale.
Principle 6: Given the time scales and the
different phases that characterize ecological
processes, the management of ecosystems
should set long term objectives.
Principle 7: An ecosystem approach should
determine the appropriate balance between
conservation and use of biological diversity.
Principle 8: An ecosystem approach should
consider all the available information—
including scientific data, but also local
knowledge and practices.
Principle 9: An ecosystem approach should
include all social sectors and all the pertinent
scientific disciplines (reproduced from Bush
and Sildor 2009: 30-32).
Ministry of Agriculture
Principle 1: Intervention should be in the
context of the municipality level Natural
Resources Management plan established by
the Conseil Municipal for setting priorities.
The plan should address the technical
and methodological criteria fixed by the
MARNDR (before execution, all projects
must go before the DDA for review, possible
revisions, and a final decision made by the
central office).
Principle 2: Supporting structures (NGO,
private sector, government agencies) should
aim to help the collectivités territoriales
and agricultural associations appreciate the
resources in their area and to identify actions
to increase their value. After an assessment of
physical, land-tenure, economic, and social
factors an action plan will be prepared and
implemented.
Principle 3: Through their representatives
as members of collectivites territoriales
and agricultural organizations, the local
population will participate in all the steps
involved: request for assistance; assessment of
constraints, opportunities, and needs; seeking
and participating in fund raising; deciding
on priority actions (zoning, techniques,
participating communities, calendar, etc.);
financial management, monitoring and evaluation; making adjustments. Principle 4: All actions must be the result
of negotiation at each step among the users of the resources and the supporting partners. This negotiation should eventually give rise to management agreements. Principle 5: The approach should be gradual:
projects should improve the existing situation but without abrupt short term changes in social or environmental status quo. Priority should be given to supporting existing agricultural organizations. The techniques applied should
be integrated technically, economically and
socially into existing production systems.
They should particularly take account of the
characteristics of the zone, take advantage
of local knowledge, be integrated into the
agricultural calendar, be adapted to local
materials and the local availability of labor.
Principle 6: The objectives and strategies of
management plans should be aligned with the
priorities of the users—which is most often the
maximization of revenue. Management should
aim at both conservation and production:
• Actions are not necessarily targeted at the
most degraded areas; on the contrary, there
should exist sufficient agricultural potential
to allow investment costs to be recovered.
• Actions should be capable of becoming
economically independent.
• For each agricultural product, the whole
value chain should be strengthened
(production, post harvest systems, processing,
commercialization).
• Actions must be economically viable in the
short term—especially if the community
situation is precarious.
Principle 7: Emphasis should also be placed
on non-farm income-generating activities
(ecotourism, rehabilitation of access roads,
stabilization of gullies, agri-processing, artisanal
products) in order to reduce demographic
pressures on natural resources.
77
Principle 8: Supporting measures must ensure
the technical and organizational training of the
communities.
Principle 9: Supporting agencies should
assist the communities to manage the financial
resources allocated to the project in order
to help the communities develop their skills
and competence in financial management.
However, the level of funding should be
aligned with the capacity of the communities
to manage these funds.
Principle 10: It is a basic principle not to
finance local unskilled labor for intermittent
work on soil conservation (reproduced from
Bush and Sildor 2009: 30-32).