| Literature DB >> 34663723 |
Sebastian Kraus1,2, Jacqueline Liu3,4, Nicolas Koch3,5,6, Sabine Fuss3,7.
Abstract
In Indonesia, 60 million people live within 1 km of state forest. The government of Indonesia plans to grant community titles for 12.7 million hectares of land to communities living in and around forests. These titles allow for using nontimber forest products, practicing agroforestry, operating tourism businesses, and selective logging in designated production zones. Here, we estimate the early effects of the program's rollout. We use data on the delineation and introduction date of community forest titles on 2.4 million hectares of land across the country. We find that, contrary to the objective of the program, community titles aimed at conservation did not decrease deforestation; if anything, they tended to increase forest loss. In contrast, community titles in zones aimed at timber production decreased deforestation, albeit from higher baseline forest loss rates.Entities:
Keywords: Indonesia; conservation; land tenure reform ; restoration; stacked difference-in-differences
Mesh:
Year: 2021 PMID: 34663723 PMCID: PMC8639361 DOI: 10.1073/pnas.2100741118
Source DB: PubMed Journal: Proc Natl Acad Sci U S A ISSN: 0027-8424 Impact factor: 11.205
Fig. 1This map shows the three main types of social forestry: HD and HKm, which allow nontimber forest product collection, agroforestry, ecotourism, and some selective logging; and HTR, which aims at restoring degraded areas for community timber plantations. Primary forest and primary degraded forest in 2000 are shown in the background (5), and province boundaries are in gray. Inset in lower left corner is a zoomed map of the smaller area marked in blue on the main map.
Effect of community land titling on deforestation
| HD | HKm | HTR | ||||||
| (A) | (B) | (C) | (D) | (E) | (F) | (G) | (H) | |
| All forest | Degraded | Primary | All | Degraded | Primary | All | Degraded | |
| Land title | 0.14** | 0.27*** | 0.35* | 0.08 | 0.00 | 0.75** | –0.10 | –0.83*** |
| [0.02, 0.26] | [0.08, 0.46] | [-0.03, 0.73] | [-0.06, 0.21] | [-0.26, 0.27] | [0.16, 1.34] | [-0.24, 0.05] | [-1.21, -0.46] | |
| Precipitation | –0.15*** | –0.16*** | –0.32*** | –0.15*** | –0.16*** | –0.31*** | –0.15*** | –0.16*** |
| [-0.20, -0.11] | [-0.23, -0.09] | [-0.52, -0.11] | [-0.20, -0.11] | [-0.23, -0.09] | [-0.51, -0.11] | [-0.20, -0.11] | [-0.22, -0.09] | |
| Clusters | 18,552 | 10,554 | 1,497 | 18,746 | 10,438 | 1,416 | 19,259 | 10,246 |
| N | 3,714,021 | 2,073,305 | 287,727 | 3,717,707 | 2,071,101 | 286,188 | 3,727,454 | 2,067,453 |
Estimates from Poisson regressions on a stacked sample of treatment and control groups. The row “Land title” reports the coefficient on the interaction term between an indicator for treatment and an indicator for years after treatment (). The unit of analysis is the study area. Treated units are areas with community titles, and control units are areas designated for treatment by the government. SEs are clustered at the study area level, where treatment is assigned (see number of “Clusters”). The number of units of analysis corresponds to the number of clusters. The total number of observations (N) corresponds to all units and years in the stacked panel dataset. We differentiate between the three types of social forestry: HD, HKm, and HTR. The outcome is the deforestation rate, that is, area deforested divided by total area, at the level of the unit of observation. We show results for deforestation rates in all forest combined (2) and restricted to degraded primary forest and primary forest (5). All regressions include study area fixed effects, year fixed effects, a fixed effect indicating whether an observation is before or after the treatment year of a cohort, and a fixed effect indicating whether an observation is in the treated or in the control group for a given cohort. All regressions control for annual precipitation (CHIRPS, standardized). The 95% CI is shown in brackets. Significance levels are indicated by *, **, and *** for 10%, 5%, and 1%, respectively.