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ROAD IMPACT ASSESSMENT
         ON HABITAT LOSS
        IN LATIN AMERICA
Karolina Argote, Louis Reymondin, Carolina Navarrete, Denny
             Grossman, Jerry Touval, Andy Jarvis
              Decision and Policy Analysis Research Area (DAPA)
              International Center for Tropical Agriculture (CIAT)
                     Conservation Biology Institute (CBI)
                        The Nature Conservancy (TNC)
Spot the road?
Project outcomes

This project presents a habitat change monitoring methodology
  that can be used to identify environmental impacts of road
 construction, and support improved design of future projects
     that would minimize negative environmental impacts.

     The project has also helped understand the nature of
environmental impacts of road infrastructure projects in distinct
contexts across Latin America, demonstrating the importance of
           policy and ecosystem specific safeguards.
Objectives of the project
• Evaluate the environmental impacts of road
  infrastructure in the past through monitoring
  of natural habitat loss pre- and post-
  construction for 5 road projects across Latin
  America
• Demonstrate how this can be integrated into a
  decision support tool – DATABASIN
• Identify entry points by which ex ante
  assessment can provide improved safeguards
Content
1. Methodologies
 1.1. Terra-I – Habitat Change Monitoring

2. Road Impact Results
 2.1. The BR-364 highway in Brazil.

 2.2. The IIRSA projects in Peru.

 2.3. The Pan-American Highway in Panama.

 2.4. The Santa Cruz – Puerto Suarez corridor in Bolivia.

 2.5. The Trans-Chaco Highway in Paraguay.

3. Methodology of the Future Deforestation
   Scenarios and Results

4. Carbon-Conservation Interface

5. Conclusions and Recommendations



                                                            Photo by Alvaro Gaviria in Cartagena del Chaira
                                                            Parques Nacionales Naturales de Colombia
1.1. Methodologies: Terra-i Methodology

              Terra-i is a system that monitoring the habitat change in Latin America
                                using Neural Network and satellite data


  We therefore try to learn how each pixel (site) responds to climate, and any anomoly corresponds to human impact.
  Neural-network, is a bio-inspired technology which emulates the basic mechanism of a brain.

  It allows …
        To find a pattern in noisy dataset              9000

        To apply these patterns to new dataset          8500

                                                         8000

                                                         7500

                                                         7000
                                                  NDVI



      INPUTS: Past NDVI (MODIS MOD13Q1)
                                                         6500
              Previous Rainfall (TRMM)                              Measurments
                                                         6000
                                                                    Predictions
                                                         5500       Interval max
      OUTPUT: 16 day predicted NDVI                                 Interval min
                                                         5000

                                                         4500
                                                                1   2             3   4     5    6   7   8    9
                                                                                          Time
1.1. Methodologies: Terra-i

 The Bottom-Line
   •   250m resolution
   •   Latin American coverage (currently)
   •   Satellite data to monitorithe habitat every 16 days
   •   Identification of habitat change events
   •   Habitat loss data online to visualize and download.



                                                             www.terra-i.org
1.1. Methodologies: Interpreting the maps
1.1. Methodologies: Interpreting the graphs

                        When did the habitat
                        loss happen within each
                        buffer?




     Area of
     habitat
     lost




         Geographic
         footprint of                             Buffer distance
         the road                                 from the road (km)
BR-364 Highway, Brazil
                   Date
   Acre Segment: Construction 2002 to 2010
 Rondonia Segment: Construction 1985 to 1997
2.1. Road Impact Results: BR-364 Highway, Brazil

  Study Area
  Section 2: a corridor of 515km which connects the town of Rio Branco in the state of Acre and Porto Velho in the
  state of Rondônia.
2.1. Road Impact Results: BR-364 Highway, Brazil

  Study Area
  The road Cruzeiro do Sul – Porto Velho was analyzed into two different sections. Section 1: a corridor of 623km
  Cruzeiro do Sul - Rio Branco in the state of Acre, Brazil.


  This section passes through a large biological corridor of the state of Acre which has been regulated by 39 protected
  areas connected to each other.
2.1. Road Impact Results: BR-364 Highway, Brazil
2.1. Road Impact Results: BR-364 Highway, Brazil
2.1. Road Impact Results: BR-364 Highway, Brazil

  Road impact
                                   Comparing the two segments one can see a
                                   huge difference in the deforestation rates and
                                   in how it is the spatially distributed.


                                            Much higher deforestation
                                            rates, and much BIGGER
                                            footprint >50km due to
                                            secondary roads etc.




                                           More localised footprint, and
                                           and lower overall deforestation
                                           levels. Nevertheless, increase
                                           in last 2 years.
2.1. Road Impact Results: BR-364 Highway, Brazil
2.1. Road Impact Results: BR-364 Highway, Brazil

  Protected Areas
         Protected Area   2004    2005    2006     2007     2008     2009    2010     2011    Accum.    Rate
        Bom Futuro        3,906   9,531   18,325   11,381   13,675   2,619   14,738   2,231    76,406   10,188
        Rio Jaciparana    3,838   5,594   12,288    7,300    3,563   2,494   10,925   1,525    47,525    6,337
        Uru-Eu-Wau-Wau      219     450    1,238      656    1,125     575    7,000   1,494    12,756    1,701
        Rio Ouro Preto      263     744    1,613      550      206     100    3,006     131     6,613      882
        Corumbiara        1,313   1,894      956    1,081      531      94      550      75     6,494      866
        Pacaas Novas          0      75      275    2,488      194     225    2,306     663     6,225      830
        Mutum                50     100    1,231      656      525     288    2,331     369     5,550      740


                                                            Bom Futuro and Jaciparaná are the two protected
                                                            areas most affected by deforestation in Rondônia
                                                            and are located next to the analyzed road, within a
                                                            buffer area of 20km.

                                                            Actually, the deforestation rate in Bom Futuro has
                                                            been of 10,188 hectares per year (adding up to
                                                            76,406 hectares converted in 7.5 years) whereas it
                                                            has been of 6,337 hectares per year in Rio Jaciparaná
                                                            (adding up to 47525 hectares converted in 7.5 years).
2.1. Road Impact Results: BR-364 Highway, Brazil

                                         Conclusions
  •   Section 1: Acre. Habitat loss of 19,542 hectares was recorded per year in average in a buffer area
      of 50km of the Cruzeiro do Sul -Rio Branco Segment
  •   Section 2: Rondonia. Habitat loss of 79,783 hectares per year within a same buffer size around
      the Rio Branco -Porto Velho Segment.
  •   Much higher in the segment Rio Branco-Porto Velho (in Rondonia) than in Cruzeiro do Sul-Rio
      Branco (In Acre) likely due to the conservation policies implemented in Acre state. Note fewer
      secondary roads, and greater protection from National Parks in segment 1.

   Road:                                                          Rondonio                       Acre
   Project Period:                                                2002-2010                2002-2010
   Average pre-road deforestation rate:                               79,000                   18,700
   Average post-road deforestation rate:                     113,000 (+43%)            32,400 (+72%)
   Year of peak deforestation:                                          2006                     2008
   Footprint (modal deforestation distance):                       20-30km                  20-30km
IIRSA Project, Peru
            Date
   Construction: 1998 to 2007
2.2. Road Impact Results: IIRSA Projects, Peru

   Study Area
   The analyzed roads have a total length of 1584km and go through all Peru from the Pacific coast to the
   Acre state in Brazil. The road was split into three different sections for the analysis:

                                                                              Section 1:           752km.
                                                                             Paita on the Pacific coast
Section 1                                                                    (Piura) to Tarapoto.
Andean

                                                                              Section 2:           381km.
                                                                             Tarapoto - Huanuco (where
                                                                             it passes 2km away from
                                                                             Tingo Maria National Park).



                                                                              Section 3:           451km.
              Section 2
              Piedemonte                                                     Tingo Maria (Huanuco)         -
                                                                             Cruzeiro do Sul (Acre, Brazil).
                                                    Section 3
                                                    Amazon
2.2. Road Impact Results: IIRSA Projects, Peru
2.2. Road Impact Results: IIRSA Projects, Peru

  Road Impact

  Section 1 (Paita-Tarapoto) : accumulated loss of 40,794 hectares (5,439 Ha/yr).

                                        IIRSA Road Impact                          Significant
                              Habitat loss Section 1: Patia-Tarapoto               increase in
                6,000                                                              deforestation in
                5,000                                                              past 3-4 years
                4,000
     Hectares




                3,000                                                              Most habitat
                2,000                                                              loss in first
                1,000
                                                                                   10km (45%)
                   0
                        Road to 10   10 to 20   20 to 30     30 to 40   40 to 50
2.2. Road Impact Results: IIRSA Projects, Peru
2.2. Road Impact Results: IIRSA Projects, Peru

  Road Impact

  Section 2 (Tarapoto-Tingo Maria) : accumulated loss of 30,763 Ha (4,102 Ha/yr). Most impacted areas are
  located in a buffer of 30km from the road.


                                                                                    Significant
                                           IIRSA Road Impact                        increase in
                             Habitat loss Section 2: Tarapoto-TingoMaria
               3,000
                                                                                    deforestation in
                                                                                    past 3-4 years
               2,500

               2,000
    Hectares




                                                                                    Most habitat
               1,500
                                                                                    loss in first
               1,000
                                                                                    30km (88%)
                500

                  0
                       Road to 10   10 to 20   20 to 30    30 to 40    40 to 50
2.2. Road Impact Results: IIRSA Projects, Peru
2.2. Road Impact Results: IIRSA Projects, Peru

  Road Impact

  Section 3 (Tingo Maria-Cruzeiro):        accumulated loss of 58,900 hectares (7,853
  Ha/year). Most impacted areas are located in a buffer of 30km from the road.

                                                                                   No apparent
                                           IIRSA Road Impact                       increase in
                              Habitat loss Section 3: TingoMaria-Cruzeiro
                                                                                   deforestation
                7,000
                                                                                   during or after
                6,000
                                                                                   road
                5,000
                                                                                   construction
     Hectares




                4,000
                3,000
                                                                                   Most habitat
                2,000
                                                                                   loss in first
                1,000
                                                                                   30km (81%)
                   0
                        Road to 10   10 to 20   20 to 30    30 to 40    40 to 50
2.2. Road Impact Results: IIRSA Projects, Peru
2.2. Road Impact Results: IIRSA Projects, Peru

                                             Conclusions

  Section 1: Andes. Footprint more localised (<10km), 25% increase in habitat loss post-
  project versus pre-project.
  Section 2: Piedemonte. Larger footprint (10-20km), and > doubling of deforestation after
  road finalization.
  Section 3: Tingo Mario-Cruzeiro. High baseline levels of deforestation in the region, but
  no increase since road project (major sections of road still not complete).

 Road:                                       IIRSA, Peru, Section 1   IIRSA, Peru, Section 2 IIRSA, Peru, Section 3
 Project period:                                         1998-2007                1998-2007              1998-2007
 Average pre-road deforestation rate:                         4,900                    2,300                  7,600
 Average post-road deforestation rate:                6,100 (+25%)            5,200 (+125%)            7,500 (-1%)
 Year of peak deforestation:                                   2010                     2010                   2005
 Footprint (modal deforestation distance):                  0-10km                  10-20km                10-20km
Pan-American Highway, Panama
                Date
       Construction: 1985 to 1990
2.3. Road Impact Results: Pan-American Highway, Panamá

  Study Area
  The Pan-American Highway is located in the Darien province in Panama at the eastern end of the country and its
  length is approximately 262km, in a 30km of buffer around the road are located more than 10 protected areas with
  important ecological functions.
2.3. Road Impact Results: Pan-American Highway, Panamá

  Habitat Change Monitoring

      MAIN INPUTS
     For generated deforestation maps before 2000:
     A dataset of land cover produced by the Forest Information System
     Project, the National Environmental Authority (ANAM) for 1992
     and 2000.
     For generated deforestation maps between 2004 and 2010:
     Terra-I dataset.



  Methodology
    i. Reclassify the Land Cover Maps of 1992 and 2000 using ArcGIS software in Vegetation and non
      vegetation maps.
    ii. Generated the deforestation map of 1992-2000.
    iii.Applied the Terra-I Methodology to monitoring the habitat change between 2004 to 2010.
    iv.Analyze the road impact in buffers areas in 10, 20, 30, 40 and 50km of the road.
2.3. Road Impact Results: Pan-American Highway, Panamá
2.3. Road Impact Results: Pan-American Highway, Panamá

  Road impact


  The habitat loss is greater the
      closest it’s to the road.




  Vast majority of habitat change
  occurred in the 1990’s directly     Buffers        Area      1992-2000   2004-2010   Total loss   %Loss
     after road construction.       Road to 10km    253,546     77,930      3,675       81,605      32%
                                    10km to 20km    260,711     37,391      1,606       38,997      15%
  Deforestation 2004-2011 < 10%     20km to 30km    539,159     39,849      4,700       44,549       8%
                                    30km to 40km    497,927     16,051      2,531       18,583       4%
         of 1990’s levels.          40km to 50km    380,294      7,466      1,844       9,310        2%
                                    Road to 50km   2,450,696    272,150     18,231     290,381      12%
2.3. Road Impact Results: Pan-American Highway, Panamá

                                 Conclusions

  • Between 1992 and 2000 there was an alarming loss of 7% of the total
    national forest cover in Panama which is equivalent to 497,306 hectares.
    This deforestation is localized mostly in the provinces of Panama and Darien
    and close to the road.
  • The impact occurs mainly in the direct influence area of the road (0 to
    10km).
  • The Darien province lost 24% of its forests, and Panama 23%. Most of this
    deforestation occurred in Mixed Cative forest in order to create new
    cropland areas.
Santa Cruz-Puerto Suarez, Bolivia
                 Date
        Construction: 2000 to 2011
2.4. Road Impact Results: Santa Cruz-Puerto Suarez Corridor, Bolivia

  Study Area
  The corridor Santa Cruz-Puerto Suarez is located in the South East of Bolivia. Its length is approximately 636km and
  connects the towns of Santa Cruz de la Sierra and Puerto Suarez located on the border with the state of Mato Grosso
  do Sul in Brazil. In the area one can see four easily distinguishable types of ecoregions: Pantanal, Dry Chaco,
  Chiquitano Dry Forest and Cerrado
2.4. Road Impact Results: Santa Cruz-Puerto Suarez Corridor, Bolivia
2.4. Road Impact Results: Santa Cruz-Puerto Suarez Corridor, Bolivia

   Road Impact

   • Road still under construction. Some direct impacts especially close to Santa
     Cruz.
   • Major indirect impacts of fires originating from “slash and burn” practices,
     especially in 2010.



                                         Santa Cruz Road Impact
                             Habitat loss Section: Santa Cruz-Puerto Suarez
             14,000
             12,000
             10,000
  Hectares




              8,000
              6,000
              4,000
              2,000
                 0
                      Road to 10   10 to 20   20 to 30    30 to 40   40 to 50
2.4. Road Impact Results: Santa Cruz-Puerto Suarez Corridor, Bolivia


                                      Conclusions

  • Too early to say what direct impacts are until road fully connects Bolivia with Brazil
  • Nevertheless, clear indirect impact through fires originating from slash and burn
     activity, especially in the region of Santa Cruz




        Road:                                             Santa Cruz-Puerto Suarez
        Project period:                                                 2000-2011
        Average pre-road deforestation rate:                                11,392
        Average post-road deforestation rate:                                 N/A
        Year of peak deforestation:                                           2010
        Footprint (modal deforestation distance):                         20-30km
Trans-Chaco Highway, Paraguay
                Date
       Construction: 2002 to 2006
2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay

  Study Area
  The trans-Chaco highway length approximately 736km, extending from the boundaries between Bolivia and
  Paraguay near the military post Mayor Infante Rivarola in the department of Boqueron until it intersects with the
  9th Road which runs through the Dry Chaco in Boqueron continuing through the department of Presidente Hayes
  across the humid Chaco region up to the Asuncion metropolitan area in the Central Department.
2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay

  Habitat Change Monitoring

      MAIN INPUTS
     For generated deforestation maps between 2000 and 2004:
     Dataset from the high spatial resolution satellite Landsat 4
     Thematic Mapper in the Dry Chaco ecoregion.
     For generated deforestation maps between 2004 and 2010:
     Terra-I dataset.




  Methodology
    i. Classify the Landsat-4 satellite images using the k-Means Algorithm .
    ii. Generated the deforestation map of 2000-2004.
    iii.Applied the Terra-I Methodology to monitoring the habitat change between 2004 to 2011.
    iv.Analyze the road impact in buffers areas in 10, 20, 30, 40 and 50km of the road.
2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay
2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay
2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay

  Road Impact
  • Total of 650,000 Hectares lost in 50km buffer since 2004
  • Massive increase since 2007 (project completion)
  • Large footprint, covering >50km from road
2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay

                                      Conclusions

  • Very high levels of deforestation pre- and post- road construction
  • But > 300% increase in deforestation rates since road finished, with a footprint that
     likely goes beyond 50km buffer


         Road:                                     Trans-Chaco Highway
         Project period:                                      2002-2006
         Average pre-road deforestation rate:                     23,000
         Average post-road deforestation rate:           97,000 (+319%)
         Year of peak deforestation:                                2010
         Footprint (modal deforestation distance):             30-40km
Methodologies: Future Deforestation Scenarios

                                                                                    INPUTS
                                                             The distance to the nearest road, to the nearest river,
            This methodology is still
                                                             to the nearest city (> 1000 people)
      under development, nevertheless its
      implementation as proof of concept                     The elevation
       in Brazil generated good results in                   The base map (what was already deforested before the
          areas with clear patterns of                       analysis with terra-I (from human classification of the
                  deforestation.                             terra-i clusters))
                                                             The detection from the terra-I model.

  Steps…
  1) Train neural network to recognize pixels that are likely to be deforested

  2) Create maps of potential deforestation

  3) Select random pixels from the potential maps

  4) Repeat 2 and 3

              Currently, the tool only takes into account topographic variables, but the idea is in the future is
              to include others inputs such as administrative information (protected areas, country…), social
                   information (small farmers, industrial exploitation, community managed forest…) and
                                      ecosystems in order to improve the estimation.
3. Future Deforestation Scenarios: Applied in BR-364 Road, Brasil

  Applied                                                                        INPUTS
                                                          The distance to the nearest road, to the nearest river,
  The study area was the area around the road Rio        to the nearest city (> 1000 people)
  Branco-Porto Velho, in Brazil from the 1st of
                                                          The elevation
  January 2004 to the 10th of June 2011.
                                                          The base map (what was already deforested before the
 Constant rate to 10’000 hectares per 16 days            analysis with terra-I (from human classification of the
  period (the average rate recorded by Terra-i in this    terra-i clusters))
  area)
                                                          The detection from the terra-I model.
 Sampled 10’000 pixels to train the neural
  network. (7000 unchanged and 3000 deforested)



        This first implementation of this methodology gave encouraging results as by
      comparing this result with the actual detected deforestation one can see that the
    general patterns resulting from the simulation are convincing and quite similar to the
               real events. However, various improvements could be instigated.
3. Future Deforestation Scenarios: Applied in BR-364 Road, Brasil
                                      PROOF OF CONCEPT




         Base map                 Potential deforestation at T=0         Potential deforestation at T=150




            Predicted deforestation                          Actual deforestation (Terra-i)
A synthesis of findings
Road:                                          Rondonio            Acre IIRSA, Peru, Sect. 1 IIRSA, Peru, Sect. 2 IIRSA, Peru, Sect. 3 Trans-Chaco Highway
Project Period:                                2002-2010     2002-2010            1998-2007           1998-2007            1998-2007              2002-2006
Average pre-road deforestation rate:               79,000        18,700                4,900               2,300                7,600                 23,000
Average post-road deforestation rate:     113,000 (+43%) 32,400 (+72%)         6,100 (+25%)       5,200 (+125%)           7,500 (-1%)        97,000 (+319%)
Year of peak deforestation:                          2006          2008                 2010                2010                 2005                   2010
Footprint (modal deforestation distance):       20-30km       20-30km               0-10km             10-20km               10-20km               30-40km



               • Roads clearly a significant driver of deforestation
                 and land-use change, demonstrated in all 5
                 projects studies. Impacts are both direct and
                 indirect.
               • A road makes a different “footprint” depending
                 on the ecosystem (Andes <10km, Amazon ~50km,
                 Chaco >50km).
Lessons learned
• Other factors such as secondary roads and rivers are
  important drivers of habitat change and roads open access to
  them.
• As a Monitoring Tool Terra-I is only useful to analyze projects
  after 2004. In the cases of Acre-Rondonia, Peru and Paraguay
  we had three cases where the full power of Terra-I could be
  shown.
• Local, national and international policies are clearly important
  contexts that should be taken into account during and after
  road construction as they have a clear link to land-use change
  and can contribute to mitigation or exacerbation of the road
  project encironmental impact.
Policy Recommendations
• Regional and national environmental policies in place can significantly
  reduce the number of hectares deforested during and after the road
  construction project. The most outstanding case can be found in Brazil
  where Rondonia has higher deforestation rates compared to Acre.
• Most of the protected areas affected directly or indirectly by the road
  construction, were established after the roads where built. In cases were
  critical ecosystems are endangered, policy makers and development
  planners should consider for the future, well in advance, critical natural
  habitats for conservation and biodiversity hotspots.
• It’s expected that infrastructure allows the expansion of economic
  activities. In this sense, national and regional policies and incentives to
  promote sustainable and environmentally friendly agricultural practices
  are also important. In the case of the slash and burn method in Bolivia and
  Peru causing multiple forest fires, more national policies and programs to
  promote more sustainable practices should be in place, such as the Slash
  and Mulch Agroforestry Systems. It’s also key to have increased
  productivity. Land policy and law enforcement are also relevant in terms
  of reducing the negative environmental impact of road infrastructure.
Project Components by
   Conservation Biology Institute

- New Datasets in IDB-DSS
  - Carbon
  - Deforestation
- New Analyses
  - Carbon CNH relationship
  - IIRSA road impact on CNH in
     Amazon and Gran Chaco
  - IDB road impact on CNH related to
     deforestation
New Data: Roads and Deforestation
Carbon and Biodiversity Analysis
Carbon-Conservation Interface: CNH Protected Areas
Carbon-Conservation Interface: CNH Species
Carbon-Conservation Interface: CNH Terrestrial Ecosystems
Carbon-Conservation Interface: All Critical Natural Habitat
Carbon-Conservation Interface: Above Ground Carbon
Interface between High Carbon and Critical Natural Habitat
Impact of IIRSA Roads on CNH
IIRSA Road Impacts to Biodiversity
IIRSA Road Impacts to Biodiversity
Cruziero do Sul – Rio Branco Road (BR364)
An exploration of Road Development, Deforestation, Above
Ground Carbon and Critical Natural Habitat
Acknowledgements
This Consultancy Project was conducted by the International Center for Tropical Agriculture (CIAT), the Nature
Conservancy (TNC), and the Conservation Biology Institute (CBI) for the Environmental and Social Safeguards Unit of
the Inter-American Development Bank. This project was supported with funds from the German Federal
Bundesministerium fuer wirtschaftliche Zusammenarbeit und Entwicklung (BMZ) in the framework of a cooperation
program between the Inter-American Development Bank (IDB) and the Deutsche Gesellschaft fuer Internationale
Zusammenarbeit (GIZ).




                                                                                   Thank you!

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Impact of roads on deforestation levels across Latin America

  • 1. ROAD IMPACT ASSESSMENT ON HABITAT LOSS IN LATIN AMERICA Karolina Argote, Louis Reymondin, Carolina Navarrete, Denny Grossman, Jerry Touval, Andy Jarvis Decision and Policy Analysis Research Area (DAPA) International Center for Tropical Agriculture (CIAT) Conservation Biology Institute (CBI) The Nature Conservancy (TNC)
  • 3. Project outcomes This project presents a habitat change monitoring methodology that can be used to identify environmental impacts of road construction, and support improved design of future projects that would minimize negative environmental impacts. The project has also helped understand the nature of environmental impacts of road infrastructure projects in distinct contexts across Latin America, demonstrating the importance of policy and ecosystem specific safeguards.
  • 4. Objectives of the project • Evaluate the environmental impacts of road infrastructure in the past through monitoring of natural habitat loss pre- and post- construction for 5 road projects across Latin America • Demonstrate how this can be integrated into a decision support tool – DATABASIN • Identify entry points by which ex ante assessment can provide improved safeguards
  • 5. Content 1. Methodologies 1.1. Terra-I – Habitat Change Monitoring 2. Road Impact Results 2.1. The BR-364 highway in Brazil. 2.2. The IIRSA projects in Peru. 2.3. The Pan-American Highway in Panama. 2.4. The Santa Cruz – Puerto Suarez corridor in Bolivia. 2.5. The Trans-Chaco Highway in Paraguay. 3. Methodology of the Future Deforestation Scenarios and Results 4. Carbon-Conservation Interface 5. Conclusions and Recommendations Photo by Alvaro Gaviria in Cartagena del Chaira Parques Nacionales Naturales de Colombia
  • 6. 1.1. Methodologies: Terra-i Methodology Terra-i is a system that monitoring the habitat change in Latin America using Neural Network and satellite data We therefore try to learn how each pixel (site) responds to climate, and any anomoly corresponds to human impact. Neural-network, is a bio-inspired technology which emulates the basic mechanism of a brain. It allows … To find a pattern in noisy dataset 9000 To apply these patterns to new dataset 8500 8000 7500 7000 NDVI INPUTS: Past NDVI (MODIS MOD13Q1) 6500 Previous Rainfall (TRMM) Measurments 6000 Predictions 5500 Interval max OUTPUT: 16 day predicted NDVI Interval min 5000 4500 1 2 3 4 5 6 7 8 9 Time
  • 7. 1.1. Methodologies: Terra-i The Bottom-Line • 250m resolution • Latin American coverage (currently) • Satellite data to monitorithe habitat every 16 days • Identification of habitat change events • Habitat loss data online to visualize and download. www.terra-i.org
  • 9. 1.1. Methodologies: Interpreting the graphs When did the habitat loss happen within each buffer? Area of habitat lost Geographic footprint of Buffer distance the road from the road (km)
  • 10. BR-364 Highway, Brazil Date Acre Segment: Construction 2002 to 2010 Rondonia Segment: Construction 1985 to 1997
  • 11. 2.1. Road Impact Results: BR-364 Highway, Brazil Study Area Section 2: a corridor of 515km which connects the town of Rio Branco in the state of Acre and Porto Velho in the state of Rondônia.
  • 12. 2.1. Road Impact Results: BR-364 Highway, Brazil Study Area The road Cruzeiro do Sul – Porto Velho was analyzed into two different sections. Section 1: a corridor of 623km Cruzeiro do Sul - Rio Branco in the state of Acre, Brazil. This section passes through a large biological corridor of the state of Acre which has been regulated by 39 protected areas connected to each other.
  • 13. 2.1. Road Impact Results: BR-364 Highway, Brazil
  • 14. 2.1. Road Impact Results: BR-364 Highway, Brazil
  • 15. 2.1. Road Impact Results: BR-364 Highway, Brazil Road impact Comparing the two segments one can see a huge difference in the deforestation rates and in how it is the spatially distributed. Much higher deforestation rates, and much BIGGER footprint >50km due to secondary roads etc. More localised footprint, and and lower overall deforestation levels. Nevertheless, increase in last 2 years.
  • 16. 2.1. Road Impact Results: BR-364 Highway, Brazil
  • 17. 2.1. Road Impact Results: BR-364 Highway, Brazil Protected Areas Protected Area 2004 2005 2006 2007 2008 2009 2010 2011 Accum. Rate Bom Futuro 3,906 9,531 18,325 11,381 13,675 2,619 14,738 2,231 76,406 10,188 Rio Jaciparana 3,838 5,594 12,288 7,300 3,563 2,494 10,925 1,525 47,525 6,337 Uru-Eu-Wau-Wau 219 450 1,238 656 1,125 575 7,000 1,494 12,756 1,701 Rio Ouro Preto 263 744 1,613 550 206 100 3,006 131 6,613 882 Corumbiara 1,313 1,894 956 1,081 531 94 550 75 6,494 866 Pacaas Novas 0 75 275 2,488 194 225 2,306 663 6,225 830 Mutum 50 100 1,231 656 525 288 2,331 369 5,550 740 Bom Futuro and Jaciparaná are the two protected areas most affected by deforestation in Rondônia and are located next to the analyzed road, within a buffer area of 20km. Actually, the deforestation rate in Bom Futuro has been of 10,188 hectares per year (adding up to 76,406 hectares converted in 7.5 years) whereas it has been of 6,337 hectares per year in Rio Jaciparaná (adding up to 47525 hectares converted in 7.5 years).
  • 18. 2.1. Road Impact Results: BR-364 Highway, Brazil Conclusions • Section 1: Acre. Habitat loss of 19,542 hectares was recorded per year in average in a buffer area of 50km of the Cruzeiro do Sul -Rio Branco Segment • Section 2: Rondonia. Habitat loss of 79,783 hectares per year within a same buffer size around the Rio Branco -Porto Velho Segment. • Much higher in the segment Rio Branco-Porto Velho (in Rondonia) than in Cruzeiro do Sul-Rio Branco (In Acre) likely due to the conservation policies implemented in Acre state. Note fewer secondary roads, and greater protection from National Parks in segment 1. Road: Rondonio Acre Project Period: 2002-2010 2002-2010 Average pre-road deforestation rate: 79,000 18,700 Average post-road deforestation rate: 113,000 (+43%) 32,400 (+72%) Year of peak deforestation: 2006 2008 Footprint (modal deforestation distance): 20-30km 20-30km
  • 19. IIRSA Project, Peru Date Construction: 1998 to 2007
  • 20. 2.2. Road Impact Results: IIRSA Projects, Peru Study Area The analyzed roads have a total length of 1584km and go through all Peru from the Pacific coast to the Acre state in Brazil. The road was split into three different sections for the analysis:  Section 1: 752km. Paita on the Pacific coast Section 1 (Piura) to Tarapoto. Andean  Section 2: 381km. Tarapoto - Huanuco (where it passes 2km away from Tingo Maria National Park).  Section 3: 451km. Section 2 Piedemonte Tingo Maria (Huanuco) - Cruzeiro do Sul (Acre, Brazil). Section 3 Amazon
  • 21. 2.2. Road Impact Results: IIRSA Projects, Peru
  • 22. 2.2. Road Impact Results: IIRSA Projects, Peru Road Impact Section 1 (Paita-Tarapoto) : accumulated loss of 40,794 hectares (5,439 Ha/yr). IIRSA Road Impact Significant Habitat loss Section 1: Patia-Tarapoto increase in 6,000 deforestation in 5,000 past 3-4 years 4,000 Hectares 3,000 Most habitat 2,000 loss in first 1,000 10km (45%) 0 Road to 10 10 to 20 20 to 30 30 to 40 40 to 50
  • 23. 2.2. Road Impact Results: IIRSA Projects, Peru
  • 24. 2.2. Road Impact Results: IIRSA Projects, Peru Road Impact Section 2 (Tarapoto-Tingo Maria) : accumulated loss of 30,763 Ha (4,102 Ha/yr). Most impacted areas are located in a buffer of 30km from the road. Significant IIRSA Road Impact increase in Habitat loss Section 2: Tarapoto-TingoMaria 3,000 deforestation in past 3-4 years 2,500 2,000 Hectares Most habitat 1,500 loss in first 1,000 30km (88%) 500 0 Road to 10 10 to 20 20 to 30 30 to 40 40 to 50
  • 25. 2.2. Road Impact Results: IIRSA Projects, Peru
  • 26. 2.2. Road Impact Results: IIRSA Projects, Peru Road Impact Section 3 (Tingo Maria-Cruzeiro): accumulated loss of 58,900 hectares (7,853 Ha/year). Most impacted areas are located in a buffer of 30km from the road. No apparent IIRSA Road Impact increase in Habitat loss Section 3: TingoMaria-Cruzeiro deforestation 7,000 during or after 6,000 road 5,000 construction Hectares 4,000 3,000 Most habitat 2,000 loss in first 1,000 30km (81%) 0 Road to 10 10 to 20 20 to 30 30 to 40 40 to 50
  • 27. 2.2. Road Impact Results: IIRSA Projects, Peru
  • 28. 2.2. Road Impact Results: IIRSA Projects, Peru Conclusions Section 1: Andes. Footprint more localised (<10km), 25% increase in habitat loss post- project versus pre-project. Section 2: Piedemonte. Larger footprint (10-20km), and > doubling of deforestation after road finalization. Section 3: Tingo Mario-Cruzeiro. High baseline levels of deforestation in the region, but no increase since road project (major sections of road still not complete). Road: IIRSA, Peru, Section 1 IIRSA, Peru, Section 2 IIRSA, Peru, Section 3 Project period: 1998-2007 1998-2007 1998-2007 Average pre-road deforestation rate: 4,900 2,300 7,600 Average post-road deforestation rate: 6,100 (+25%) 5,200 (+125%) 7,500 (-1%) Year of peak deforestation: 2010 2010 2005 Footprint (modal deforestation distance): 0-10km 10-20km 10-20km
  • 29. Pan-American Highway, Panama Date Construction: 1985 to 1990
  • 30. 2.3. Road Impact Results: Pan-American Highway, Panamá Study Area The Pan-American Highway is located in the Darien province in Panama at the eastern end of the country and its length is approximately 262km, in a 30km of buffer around the road are located more than 10 protected areas with important ecological functions.
  • 31. 2.3. Road Impact Results: Pan-American Highway, Panamá Habitat Change Monitoring MAIN INPUTS  For generated deforestation maps before 2000: A dataset of land cover produced by the Forest Information System Project, the National Environmental Authority (ANAM) for 1992 and 2000.  For generated deforestation maps between 2004 and 2010: Terra-I dataset. Methodology i. Reclassify the Land Cover Maps of 1992 and 2000 using ArcGIS software in Vegetation and non vegetation maps. ii. Generated the deforestation map of 1992-2000. iii.Applied the Terra-I Methodology to monitoring the habitat change between 2004 to 2010. iv.Analyze the road impact in buffers areas in 10, 20, 30, 40 and 50km of the road.
  • 32. 2.3. Road Impact Results: Pan-American Highway, Panamá
  • 33. 2.3. Road Impact Results: Pan-American Highway, Panamá Road impact The habitat loss is greater the closest it’s to the road. Vast majority of habitat change occurred in the 1990’s directly Buffers Area 1992-2000 2004-2010 Total loss %Loss after road construction. Road to 10km 253,546 77,930 3,675 81,605 32% 10km to 20km 260,711 37,391 1,606 38,997 15% Deforestation 2004-2011 < 10% 20km to 30km 539,159 39,849 4,700 44,549 8% 30km to 40km 497,927 16,051 2,531 18,583 4% of 1990’s levels. 40km to 50km 380,294 7,466 1,844 9,310 2% Road to 50km 2,450,696 272,150 18,231 290,381 12%
  • 34. 2.3. Road Impact Results: Pan-American Highway, Panamá Conclusions • Between 1992 and 2000 there was an alarming loss of 7% of the total national forest cover in Panama which is equivalent to 497,306 hectares. This deforestation is localized mostly in the provinces of Panama and Darien and close to the road. • The impact occurs mainly in the direct influence area of the road (0 to 10km). • The Darien province lost 24% of its forests, and Panama 23%. Most of this deforestation occurred in Mixed Cative forest in order to create new cropland areas.
  • 35. Santa Cruz-Puerto Suarez, Bolivia Date Construction: 2000 to 2011
  • 36. 2.4. Road Impact Results: Santa Cruz-Puerto Suarez Corridor, Bolivia Study Area The corridor Santa Cruz-Puerto Suarez is located in the South East of Bolivia. Its length is approximately 636km and connects the towns of Santa Cruz de la Sierra and Puerto Suarez located on the border with the state of Mato Grosso do Sul in Brazil. In the area one can see four easily distinguishable types of ecoregions: Pantanal, Dry Chaco, Chiquitano Dry Forest and Cerrado
  • 37. 2.4. Road Impact Results: Santa Cruz-Puerto Suarez Corridor, Bolivia
  • 38. 2.4. Road Impact Results: Santa Cruz-Puerto Suarez Corridor, Bolivia Road Impact • Road still under construction. Some direct impacts especially close to Santa Cruz. • Major indirect impacts of fires originating from “slash and burn” practices, especially in 2010. Santa Cruz Road Impact Habitat loss Section: Santa Cruz-Puerto Suarez 14,000 12,000 10,000 Hectares 8,000 6,000 4,000 2,000 0 Road to 10 10 to 20 20 to 30 30 to 40 40 to 50
  • 39. 2.4. Road Impact Results: Santa Cruz-Puerto Suarez Corridor, Bolivia Conclusions • Too early to say what direct impacts are until road fully connects Bolivia with Brazil • Nevertheless, clear indirect impact through fires originating from slash and burn activity, especially in the region of Santa Cruz Road: Santa Cruz-Puerto Suarez Project period: 2000-2011 Average pre-road deforestation rate: 11,392 Average post-road deforestation rate: N/A Year of peak deforestation: 2010 Footprint (modal deforestation distance): 20-30km
  • 40. Trans-Chaco Highway, Paraguay Date Construction: 2002 to 2006
  • 41. 2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay Study Area The trans-Chaco highway length approximately 736km, extending from the boundaries between Bolivia and Paraguay near the military post Mayor Infante Rivarola in the department of Boqueron until it intersects with the 9th Road which runs through the Dry Chaco in Boqueron continuing through the department of Presidente Hayes across the humid Chaco region up to the Asuncion metropolitan area in the Central Department.
  • 42. 2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay Habitat Change Monitoring MAIN INPUTS  For generated deforestation maps between 2000 and 2004: Dataset from the high spatial resolution satellite Landsat 4 Thematic Mapper in the Dry Chaco ecoregion.  For generated deforestation maps between 2004 and 2010: Terra-I dataset. Methodology i. Classify the Landsat-4 satellite images using the k-Means Algorithm . ii. Generated the deforestation map of 2000-2004. iii.Applied the Terra-I Methodology to monitoring the habitat change between 2004 to 2011. iv.Analyze the road impact in buffers areas in 10, 20, 30, 40 and 50km of the road.
  • 43. 2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay
  • 44. 2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay
  • 45. 2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay Road Impact • Total of 650,000 Hectares lost in 50km buffer since 2004 • Massive increase since 2007 (project completion) • Large footprint, covering >50km from road
  • 46. 2.5. Road Impact Results: The Trans-Chaco Highway, Paraguay Conclusions • Very high levels of deforestation pre- and post- road construction • But > 300% increase in deforestation rates since road finished, with a footprint that likely goes beyond 50km buffer Road: Trans-Chaco Highway Project period: 2002-2006 Average pre-road deforestation rate: 23,000 Average post-road deforestation rate: 97,000 (+319%) Year of peak deforestation: 2010 Footprint (modal deforestation distance): 30-40km
  • 47. Methodologies: Future Deforestation Scenarios INPUTS  The distance to the nearest road, to the nearest river, This methodology is still to the nearest city (> 1000 people) under development, nevertheless its implementation as proof of concept  The elevation in Brazil generated good results in  The base map (what was already deforested before the areas with clear patterns of analysis with terra-I (from human classification of the deforestation. terra-i clusters))  The detection from the terra-I model. Steps… 1) Train neural network to recognize pixels that are likely to be deforested 2) Create maps of potential deforestation 3) Select random pixels from the potential maps 4) Repeat 2 and 3 Currently, the tool only takes into account topographic variables, but the idea is in the future is to include others inputs such as administrative information (protected areas, country…), social information (small farmers, industrial exploitation, community managed forest…) and ecosystems in order to improve the estimation.
  • 48. 3. Future Deforestation Scenarios: Applied in BR-364 Road, Brasil Applied INPUTS  The distance to the nearest road, to the nearest river,  The study area was the area around the road Rio to the nearest city (> 1000 people) Branco-Porto Velho, in Brazil from the 1st of  The elevation January 2004 to the 10th of June 2011.  The base map (what was already deforested before the Constant rate to 10’000 hectares per 16 days analysis with terra-I (from human classification of the period (the average rate recorded by Terra-i in this terra-i clusters)) area)  The detection from the terra-I model. Sampled 10’000 pixels to train the neural network. (7000 unchanged and 3000 deforested) This first implementation of this methodology gave encouraging results as by comparing this result with the actual detected deforestation one can see that the general patterns resulting from the simulation are convincing and quite similar to the real events. However, various improvements could be instigated.
  • 49. 3. Future Deforestation Scenarios: Applied in BR-364 Road, Brasil PROOF OF CONCEPT Base map Potential deforestation at T=0 Potential deforestation at T=150 Predicted deforestation Actual deforestation (Terra-i)
  • 50. A synthesis of findings Road: Rondonio Acre IIRSA, Peru, Sect. 1 IIRSA, Peru, Sect. 2 IIRSA, Peru, Sect. 3 Trans-Chaco Highway Project Period: 2002-2010 2002-2010 1998-2007 1998-2007 1998-2007 2002-2006 Average pre-road deforestation rate: 79,000 18,700 4,900 2,300 7,600 23,000 Average post-road deforestation rate: 113,000 (+43%) 32,400 (+72%) 6,100 (+25%) 5,200 (+125%) 7,500 (-1%) 97,000 (+319%) Year of peak deforestation: 2006 2008 2010 2010 2005 2010 Footprint (modal deforestation distance): 20-30km 20-30km 0-10km 10-20km 10-20km 30-40km • Roads clearly a significant driver of deforestation and land-use change, demonstrated in all 5 projects studies. Impacts are both direct and indirect. • A road makes a different “footprint” depending on the ecosystem (Andes <10km, Amazon ~50km, Chaco >50km).
  • 51. Lessons learned • Other factors such as secondary roads and rivers are important drivers of habitat change and roads open access to them. • As a Monitoring Tool Terra-I is only useful to analyze projects after 2004. In the cases of Acre-Rondonia, Peru and Paraguay we had three cases where the full power of Terra-I could be shown. • Local, national and international policies are clearly important contexts that should be taken into account during and after road construction as they have a clear link to land-use change and can contribute to mitigation or exacerbation of the road project encironmental impact.
  • 52. Policy Recommendations • Regional and national environmental policies in place can significantly reduce the number of hectares deforested during and after the road construction project. The most outstanding case can be found in Brazil where Rondonia has higher deforestation rates compared to Acre. • Most of the protected areas affected directly or indirectly by the road construction, were established after the roads where built. In cases were critical ecosystems are endangered, policy makers and development planners should consider for the future, well in advance, critical natural habitats for conservation and biodiversity hotspots. • It’s expected that infrastructure allows the expansion of economic activities. In this sense, national and regional policies and incentives to promote sustainable and environmentally friendly agricultural practices are also important. In the case of the slash and burn method in Bolivia and Peru causing multiple forest fires, more national policies and programs to promote more sustainable practices should be in place, such as the Slash and Mulch Agroforestry Systems. It’s also key to have increased productivity. Land policy and law enforcement are also relevant in terms of reducing the negative environmental impact of road infrastructure.
  • 53. Project Components by Conservation Biology Institute - New Datasets in IDB-DSS - Carbon - Deforestation - New Analyses - Carbon CNH relationship - IIRSA road impact on CNH in Amazon and Gran Chaco - IDB road impact on CNH related to deforestation
  • 54. New Data: Roads and Deforestation
  • 55.
  • 56.
  • 57.
  • 61. Carbon-Conservation Interface: CNH Terrestrial Ecosystems
  • 62. Carbon-Conservation Interface: All Critical Natural Habitat
  • 64. Interface between High Carbon and Critical Natural Habitat
  • 65. Impact of IIRSA Roads on CNH
  • 66. IIRSA Road Impacts to Biodiversity
  • 67.
  • 68. IIRSA Road Impacts to Biodiversity
  • 69. Cruziero do Sul – Rio Branco Road (BR364) An exploration of Road Development, Deforestation, Above Ground Carbon and Critical Natural Habitat
  • 70.
  • 71.
  • 72. Acknowledgements This Consultancy Project was conducted by the International Center for Tropical Agriculture (CIAT), the Nature Conservancy (TNC), and the Conservation Biology Institute (CBI) for the Environmental and Social Safeguards Unit of the Inter-American Development Bank. This project was supported with funds from the German Federal Bundesministerium fuer wirtschaftliche Zusammenarbeit und Entwicklung (BMZ) in the framework of a cooperation program between the Inter-American Development Bank (IDB) and the Deutsche Gesellschaft fuer Internationale Zusammenarbeit (GIZ). Thank you!

Notas do Editor

  1. It is actually about 19,542 hectares per year in average in a buffer area of 50km between Cruzeiro do Sul and Rio Branco meanwhile it has been measured to be of 79,783 hectares per year within a same buffer size around the segment between Rio Branco and Porto Velho.It is actually quite equally distributed around the road between Rio Branco and Porto Velho as the rate in an area included in a buffer of 10 km around the road is of 15,771 hectares per year and is of 13,040 hectares per year in a buffer between 40km from the road to 50 km from the road. Along the section between Cruzeiro do Sul and Rio Branco, the deforestation is mostly distributed right next to the road as the rate in an area included in a buffer of 10 km around the road is of 6,656 hectares per year and is only of 1,778 hectares per year in a buffer between 40km from the road to 50 km from the road.The fact that the deforestation is already equally distributed within a 50km buffer around the road segment from Rio Branco to Porto Velho mostly located in Rondonia tends to demonstrate that large scale industry is already heavily present and implanted around this segment. The conservation policies implemented in the segment between Cruzeiro do Sul and Rio Branco seems to be much more effective. This analysis is confirmed by (Keck 2001) who cite the case of Acres as a political success story where those who wanted to conserve the forest create their own coalition in order to fight on the fields against the land use change as well as in the local government.
  2. The illegal occupation and deforestation of the protected area have led to the Brazilian government to withdraw farmers and cattle producers in the region. (Pequenosprodutores da FlonaBom Futuro nãoserãoprejudicados, dizMinc a Moreira, http://portal.pps.org.br/portal/showData/149838).According to a recent publication by Imazon (Institute of Human and Environment in the Amazon) and ISA (Socio-Environmental Institute): Protected Areas in the Brazilian Amazon: progress and challenges. Half of all land clearing that occurred in protected areas happened during the last decade, between 1998 and 2009. In addition, vast networks of illegal roads are located within and around the protected areas. Actually, there is about 17.7 km of roads per 1000 km2 under protection. Many of these pathways are associated with illegal logging, mainly in the states of Para and MatoGrosso.
  3. The route goes through a lot of ecoregions from desert through the Andes mountain range to finally reach the Amazon basin, making it an area of high importance to global biodiversity. The ecosystems in the study area are: Central Cordillera páramo, Eastern Cordillera real mountain forest, Iquitos varzeá, Marañon dry forest, Napo moist forest, Peruvian yungas, sechura desert , South American pacific mangroves, tumbes-piura dry forest and Ucayali moist forest.
  4. Contrary to popular belief, timber harvesting is not the main reason of deforestation in the Peruvian tropical forests. The fundamental cause of this problem is the change of land use from forest to agricultural purposes. This is the result of migration of farmers from the highlands. It should be noted that deforestation by shifting cultivation and livestock is directly related to accessibility to forests. In this sense, the construction of roads should always be supported by development plans and a strong politic commitment from the local and governmental authorities. Otherwise, such road constructions are the means by which start complex processes of degradation and desertification (Universidad del Pacifico, 2003).
  5. However, that same study highlights that the Amazon soil is not viable for agriculture. Therefore, the soil fertility starts to decrease and settlers simply move to another place to start again with the same method. It should be noted that deforestation by shifting cultivation and livestock is directly related to accessibility to forests. In this sense, the construction of roads should always be supported by development plans and a strong politic commitment from the local and governmental authorities. Otherwise, such road constructions are the means by which start complex processes of degradation and desertification (Universidad del Pacifico, 2003).
  6. In a 30km of buffer around the road are located more than 10 protected areas with important ecological functions: Soberania National Park, Camino de Cruces National Park, Chagres National Park, TapagraHidrological protection zone, Nargana Wildlife Area, Bahía of Panama Wetland, Isla Maje Hydrologic Reserve, Serrania del Darien Hydrologic Reserve, Alto Darien Forest Protection, Filo del Tallo Hydrologic Reserve, Canglón Forest Reserve, Chepigana Forest Reserve, and Darien National Park.
  7. One can observe an increase in the deforestation rates within a buffer area of 20 to 50km from the road which is due to the presence of the Pilcomayo River located close from the Trans-Chaco Road .
  8. First of all, the tool only takes into account topographic variables, it would therefore be important to include others input such as administrative information (protected areas, country…), social information (small farmers, industrial exploitation, community managed forest…) and vegetation types (for the moment the base map is showing only if a pixel is deforested or not, this information could be extended to the type of vegetation). Secondly, the model is using a constant rate which could be replaced by a variable rate inferred from the one observed by the terra-i models. Finally, the sampling of pixel to be deforested could be greatly improved, for the moment there is no correlation between the pixel selected at a given date, this implied that the selected pixel are randomly scattered over all the map which is not realistic even if the final cumulative result tends to look realistic.