Local community representations of tropical peatlands and implications for restoration in Riau, Indonesia
Author contributions: ZDT, LRC, SS, DT conceived and designed the research; ZDT, SS collected the data; ZDT analyzed the data and drafted the manuscript; ZDT, LRC, DT, SS provided comments and edits to the manuscript.
Abstract
Accounting for the myriad of ways that local communities relate to peatlands is increasingly recognized as a factor for long-term restoration success. One way of doing so is through understanding how peatlands are represented by local communities using a social representation framework comprising perceived peatland benefits and functions, beliefs about their characteristics, perceived human-peatland relationships, and appropriate management pathways. In turn, these representations influence individual interpretation of peatland restoration outcomes and, to a lesser degree, engagement with revegetation activities. We conducted 55 semi-structured interviews with three communities living in and around peatlands in Bengkalis, Riau, Indonesia. We show that, among those interviewed, peatlands had various and divergent representations. Each representation reflected its own social–ecological relationship with, and valuation of, peatlands, and individual and shared experiences. For example, peatlands were primarily valued for their production purposes, but were also represented as degraded lands and areas important for climate change mitigation. The different representations were not mutually exclusive; on occasion, the same interviewee expressed several different representations. Moreover, some representations were shared among geographically dispersed participants, reflecting common experiences of peatland management. Overall, the results reaffirm the need to account for local representations of the environment in the management of tropical peatland, and notably in the setting of restoration goals.
Implications for Practice
- Local communities hold multiple representations of peatlands in the study area, which should be accounted for in peatland restoration decision-making and planning in order to ensure long-term project success.
- As peatlands were primarily valued for production purposes by local communities, strategies aimed at correcting market failures and valuing peatland ecosystem services can potentially reconcile social and ecological objectives.
- Social representations shape perceptions, which are a valuable source of information for assessing the immediate impacts of peatland restoration where long-term data are lacking.
Introduction
Peatlands are globally important carbon sinks that are threatened by recurring fires and land use changes for agriculture and forestry (Page & Baird 2016). Tropical peatlands account for a disproportionately large extent of degraded peatlands globally, 41% of which are in various states of degradation (Leifeld & Menichetti 2018). For example, peatlands in the Congo Basin and the Peruvian Amazon are threatened by rapid land use land cover changes, such as mining, agriculture, and infrastructure development (Dargie et al. 2019; Evans 2019; Lilleskov et al. 2019). In Indonesia, extensive areas of peatlands have been degraded through drainage and deforestation in order to support agriculture and paper and pulp production. To address the issue of peatland degradation, the Government of Indonesia (GOI) tasked the Peatland Restoration Agency (Badan Restorasi Gambut; BRG) with restoring at least 2 Mha of peatlands from 2016 to 2020, together with an additional 1.2 Mha slated for 2020–2024 under the new agency title Peatland and Mangrove Restoration Agency (Badan Restorasi Gambut dan Mangrove) (GOI 2020).
Involving communities living in and around peatlands, both migrant and Indigenous people (Page et al. 2009; Gunawan 2018) (referred to as “local communities” hereon), is recognized as a key factor in the successful planning and implementation of restoration. Local community involvement can yield multiple benefits, such as greater awareness and support, a reduction in environmental conflicts, lower restoration costs, the empowerment of marginalized groups, and the promotion of knowledge exchange through social learning (Reyes-García et al. 2019; Erbaugh et al. 2020; Ward et al. 2020). Involving local communities in Indonesia is also a matter of environmental justice, as many local communities rely directly on their environment for livelihood needs but are often disproportionately affected by environmental changes and development at larger scales (Erbaugh et al. 2020).
To date, substantial efforts have been made by the GOI, non-governmental organizations, and private companies to engage local communities in interventions aimed at revitalizing community livelihoods, suppressing and preventing biomass fires, raising awareness, and empowering different community groups (BRG 2016). For example, BRG established a Peat Care Village Program to facilitate the integration of peatland restoration into village development plans (BRG 2020). While peatland restoration in Indonesia is still in its early stages, some positive results have been documented, such as the increase in monthly income in 12 villages in the Indonesian province of Riau, on the island of Sumatra, through selling peatland produce (Terzano et al. 2022). The restoration of peatlands in Indonesia faces severe challenges, however, which include, at the local level, low uptake, community resistance, and land use conflicts (Dohong et al. 2018; Harrison et al. 2020; Ward et al. 2021). At broader scales, the conflicting interests of non-local actors, such as private companies, absentee landholders, (sub)district and national governments, and international institutions, pose further challenges to arriving at agreed upon restoration goals and coordinating restoration resources and implementation (Carmenta et al. 2017; Harrison et al. 2020).
Few studies have explicitly addressed the relationship of local communities with peatlands and their perceptions of peatland restoration (Ward et al. 2020). Perception has been increasingly employed in the study of issues relating to the management of natural resources, such as fire management effectiveness and solutions (Murdiyarso & Lebel 2006; Carmenta et al. 2017; Phelps et al. 2021), local community responses to canal blocking (Ward et al. 2021), and restoration decision-making (Aggestam 2014). Perceptions provide important insights into the legitimacy and acceptability of land use interventions (Bennett 2016), whereas divergence in perceptions reveals underlying differences in people's values and highlights potential sources of conflict (Shmueli 2008; Collier & Scott 2009; Carmenta et al. 2017). Moreover, there is often a time lag between the implementation of restoration and an observable socioeconomic and biophysical effect on the ecosystem (Martin-Ortega et al. 2017; Ota et al. 2021). Hence perceptions, which can be formed relatively rapidly in response to an intervention, can be used for the timely monitoring and evaluation of peatland restoration (Bennett 2016). Accounting for perceptions is therefore seen as crucial to improving restoration designs, ensuring transparent and equitable decision-making and communication, and increasing project buy-in.
Representations of the environment, which may be expressed through visions or images and culturally familiar metaphors of nature and landscape (Raymond et al. 2013; Muhar et al. 2018; Manzo et al. 2020), are influenced by and influence perceptions (Gobster 2001; Salomaa et al. 2018). Representations involve the incorporation of perceptions into mental models of how things are or should be and can shape debates about, for example, the use and management of a landscape (Buijs et al. 2011). Social representation theory relates to representations that are collectively held by a group of people, and highlights how, accordingly, different groups respond differently to information (Moscovici 1963; Buijs et al. 2012). In the current research, social representation theory provides a means of organizing and describing the different representations of peatlands among local communities in Riau province on the island of Sumatra, a part of Indonesia where peatlands are extensive and peatland degradation particularly common.
We investigated representations of peatlands in a part of Riau through adapting the empirical framework developed by Buijs et al. (2008) (Fig. 1). In this framework, representations comprise views on peatland management, also known as value orientation (Buijs 2009; Aggestam 2014), which is informed by perceptions of the benefits and characteristics of peatlands, and of human-peatland relationships. We adopted a broad definition of peatland benefits to encompass the various meanings and practices attached to the functions and services of peatlands, including potential disbenefits (Byg et al. 2017). Some of the peatland benefits were further categorized into ecosystem services to highlight how peatlands are perceived and framed by interviewees to support human well-being and livelihoods, taking into account both tangible, material benefits (e.g. production of oil palm) and intangible benefits (e.g. knowledge generation) (Jax et al. 2013; Schröter et al. 2014). Characteristics of peatlands (more generally termed “beliefs”) relate to the cognitive dimension of representation and are inferable from the metaphors and descriptions of peatlands (Buijs 2009; Byg et al. 2017). Human-peatland relationships describe the ways that community members relate to peatlands, such as their perceived roles in the landscape (Buijs 2009; Buijs et al. 2008). Together, these components influence value orientation, which in turn, shape and are shaped by representations of peatlands. This research explored the social representations of peatlands among local communities in the study area and the influence of social representations over the perception and interpretation of peatland restoration goals.

Methods
Study Site
The study focused on residents of a village (name removed to preserve anonymity) located on peatland that extends from inland to the coast of Bengkalis District, Riau Province (Fig. 2). Riau Province has been selected by the GOI as one of the seven priority provinces targeted for restoration; more than 90% of peatlands in the province are in varying states of degradation (Miettinen et al. 2016). The village was selected as a focal point of restoration due to a history of degradation and fires on and the diversity of actors and interests in surrounding areas of peatland. Multiple actors were involved in peatland research and restoration in the area, including local universities, international and national non-governmental organizations, private companies, and international development and research agencies (Arifudin et al. 2018). Annual average temperature and precipitation in the study village recorded in 2019 were 28.5 ± 0.5°C and 2,143.8 ± 84.0 mm, respectively (Zepner et al. 2020).

Homesteads in the village are concentrated in three topographically and demographically distinct hamlets (Table S1). Of the three hamlets, hamlet A was the first to be established and serves as the economic center of the village, owing to its location near the coast and easy access to a trans-township highway. Community members in hamlet A traditionally relied on fishing as their main source of livelihood, supplemented with low intensity usage of peatland resources (Masuda et al. 2016) and trade with neighboring communities and countries (Mizuno & Masuda 2016). Residents in the hamlet are predominantly of Melayu ethnicity with some individuals migrating into the area as early as the 1930s. Thereafter, starting in the 1990s, widespread clearance of forests combined with the construction of the trans-township highway and tighter restrictions on overseas trade, incentivized many individuals to turn towards the plantation-based cultivation of oil palm (Elaeis guineensis) and rubber (Hevea brasiliensis) (Mizuno & Masuda 2016; Arifudin et al. 2018; Numata et al. 2022).
Two other hamlets—hamlets B and C—were formed farther inland through more recent migrations, with the majority of the population of Javanese ethnicity who migrated from northern Sumatra as sales of land were common (Arifudin et al. 2018; Syahza et al. 2021). Members of the migrant communities entered the area at the end of the 1990s with the intention of seeking new land to cultivate oil palm (Mizuno & Masuda 2016). Oil palm was chosen due to past knowledge and experience of cultivating the crop gained in northern Sumatra (Masuda et al. 2016). Homesteads in hamlet B are located primarily on non-peat substrate on top of a hill, whereas those in hamlet C are located on deeper peats. The extent of hamlet B partially overlaps with an adjacent acacia plantation, and this has been a source of tension over land ownership with the community until the government intervened in 2004. Given the differences in settlement history and geographical characteristics, each hamlet is assumed as a separate community.
Peatland restoration activities were concentrated in hamlet A, which largely followed BRG's framework for restoration activities (Arifudin et al. 2018; Syahza et al. 2021). These activities included rewetting via canal blocking, revegetating using native peat swamp forest species, reducing and preventing fires, and revitalizing livelihoods through innovative projects, such as the development of apiculture as alternative livelihoods.
Semi-Structured Interviews
In-depth semi-structured interviews were carried out in the three hamlets from January to February 2020 (Supplement S1). Access to the hamlets was facilitated by a local university collaborator with local research experience. Residents of the three hamlets were interviewed about personal stories and experiences related to peatlands, peatland use and management strategies, perceived peatland condition, and the benefits and challenges associated with living on and managing peatland (Byg et al. 2017). They were also interviewed about their knowledge of various peatland restoration activities, perceived goals, and barriers to participation. Demographic data such as gender, age, education level, occupation, ethnicity, land acquisition method, household size, length of residence, place of birth, and degree of participation in restoration were collected to supplement findings. As the research sought to explore the different types of peatland representations and to capture perceptions of peatland restoration, it was not our intention to arrive at generalizations, but to situate the findings within the context of the local peat landscape (Byg et al. 2017). As such, we employed purposeful sampling for maximum variation based off demographic data (Emmel 2013), such as occupation, gender, and ethnicity, provided by the village office (Jumiah 2019), and participation in peatland restoration. To identify individuals fitting certain demographic characteristics, we relied on suggestions made by the interviewees and a research assistant. The research assistant, from a local university, had prior research experience in the village. Interviews were conducted in locations that interviewees deemed convenient, such as the interviewees' homes or workplaces. To preserve the anonymity of the interviewees, the names of individuals and hamlets have been removed and coded.
The framework upon which this study is based relied on focus group discussions. In the current study, the use of focus groups as a source of information proved challenging because of difficulties gathering enough interested participants in the sparsely populated landscape. This was particularly the case for hamlet C, where the long distance between households made it difficult to gather participants. Semi-structured interviews were thus used as the main means of obtaining information from participants in the research (Vuillot et al. 2020), although these were often conducted in the presence of others in the interviewees' households or shops, where other members of the community, curious as to what was being discussed, may have gathered. This situation is commonly encountered during fieldwork in Indonesia, the methodological limitation of which is often, as was the case here, addressed by directing questions at one individual (the “interviewee”) (Thornton 2017; Miller et al. 2021).
A total of 55 individuals were interviewed, 25 in hamlet A, 20 in hamlet B and 10 in hamlet C (Table S2). The original plan was for at least 20 interviewees per hamlet (Rowley 2012). Field work was terminated prematurely, however, by COVID-19, resulting in uneven sampling across the three hamlets. According to the head of the community unit in hamlet C, approximately 30 households within the hamlet fall under the administration of the neighboring city. We were only able to sample individuals from Bengkalis District at the time of the fieldwork and therefore lacked insights on the extent that our findings apply to areas outside of the Village. Based off the population statistics in 2019 provided by the village office (Jumiah 2019), we sampled approximately 3.6% of adults (individuals ≥18 years old) in the village.
All interviews were conducted in Indonesian by the first author in conjunction with the research assistant, who assisted with translations. Interviews were transcribed and coded using NVivo (QSR International Pty Ltd. 2020). The interviews were first coded substantively based on the raw transcripts to identify emerging themes, before coding thematically by connecting the codes to different components of a social representation framework (Table S3; Fig. 1). As representation was the focus of the study, we did not evaluate the statements made by the interviewees in terms of their scientific and policy accuracy (Ward et al. 2020). Interviews ranged in length from 30 minutes to 2 hours.
Results
Interviewees cited different benefits and challenges associated with peatlands (Tables 1 & 2), views on peatland management based on their experience of past and current land uses, and attributes related to the biophysical characteristics of peatlands. Based on these components and in the context of published literature, we formulated five representations of peatlands: productive lands, marginal wastelands, degraded lands, cultural sites, and protected nature (Table 3). The representations ranged along two dimensions: peatlands as positive or negative landscapes, and peatlands as intensively managed, anthropogenic landscapes versus minimally disturbed landscapes (Fig. S1). The representations were not mutually exclusive in the sense that certain components can be mapped to more than one representation (e.g. peatlands' values for commercial agriculture fell under both productive lands and degraded lands representation) and interviewees referenced multiple components of the different representations. Many of the benefits and challenges associated with peatlands were similar to the goals and barriers identified for peatland restoration (Tables 4 & 5), suggesting that peatland representations contribute to the interpretation of restoration goals and outcomes.
Ecosystem services | Code | Peatland benefits and uses | Hamlet no. of interviewees (% of respondents in the hamlet) | ||
---|---|---|---|---|---|
A (n = 25) | B (n = 20) | C (n = 10) | |||
Provisioning services | Agriculture |
|
24 (96%) | 15 (75%) | 10 (100%) |
Timber |
|
6 (24%) | 1 (5%) | 3 (30%) | |
Non-timber forest products |
|
11 (44%) | 13 (65%) | 6 (60%) | |
Marine resources |
|
9 (36%) | 0 (0%) | 1 (10%) | |
Regulating services | Potable water |
|
7 (28%) | 0 (0%) | 1 (10%) |
Water |
|
4 (16%) | 7 (35%) | 1 (10%) | |
Air quality and climate |
|
5 (20%) | 1 (5%) | 2 (20%) | |
Cultural services | Social identity and spiritual values |
|
2 (8%) | 1 (5%) | 0 (0%) |
Other ecological functions and benefits | Biodiversity habitat |
|
5 (20%) | 4 (20%) | 3 (30%) |
Wildflowers |
|
2 (8%) | 0 (0%) | 1 (10%) |
Code | Peat challenges and issues | Hamlet no. of interviewees (% of respondents in the hamlet) | |||
---|---|---|---|---|---|
A (n = 25) | B (n = 20) | C (n = 10) | |||
Issues or challenges associated with the peatland ecosystems | Pests and weeds |
|
7 (28%) | 9 (45%) | 5 (50%) |
Acidity |
|
8 (32%) | 7 (35%) | 4 (40%) | |
Low soil fertility |
|
13 (52%) | 10 (50%) | 8 (80%) | |
Other |
|
6 (24%) | 3 (15%) | 2 (20%) | |
Salinization |
|
7 (28%) | 0 (0%) | 1 (10%) | |
Flood |
|
5 (20%) | 3 (15%) | 4 (40%) | |
Issues or challenges associated with disturbed peatlands | Acidity |
|
3 (12%) | 0 (0%) | 1 (10%) |
Pollution |
|
8 (32%) | 1 (5%) | 1 (10%) | |
Flood |
|
4 (16%) | 1 (5%) | 0 (0%) | |
Subsidence |
|
19 (76%) | 8 (40%) | 8 (80%) | |
General management difficulties |
|
11 (44%) | 7 (35%) | 4 (40%) | |
Fire and water (mis)management |
|
24 (96%) | 18 (90%) | 8 (80%) | |
Other |
|
5 (20%) | 2 (10%) | 3 (30%) |
Social representation | Value | Value orientation | Belief | Human–nature relationship |
---|---|---|---|---|
Productive lands | Anthropocentric; useful for agriculture production and the collection of non-timber forest products | Active management required to render the land productive and useful | Beautiful, clean, or fertile when managed; useful land; otherwise suboptimal land compared to non-peat lands | Users or owners of peatlands and peatland resources |
Marginal wastelands | Little to no value in minimally disturbed state | Active management required to ameliorate peatlands' marginal conditions and make them productive | Useless; dirty; an enemy; difficult; empty; suboptimal landscape compared to non-peat lands | Antagonistic relationship; biophysical characteristics of peatlands pose challenges to livelihoods and the quality of life |
Degraded lands | Little to no value in degraded state | Multiple management methods: render productive through active management, restore ecological functions and processes, or take no actions and leave land idle; often participants of restoration reconcile the two extremes of production and conservation by producing hybrid land management—parts of the land dedicated to restoration and parts to productive use | Dynamic; present risks and benefits to human wellbeing; useless; suboptimal landscape compared to non-peat lands | Antagonistic relationship; human activities drive peatland degradation |
Cultural sites | Anthropocentric; relational value | Maintain and restore ecosystem services | Forms part of place identity; spiritual | Humans are part of peatlands (e.g. can form contractual relationships with elements of the landscape) and may act as stewards |
Protected nature | Ecocentric and biocentric | Strict protection of peatlands by demarcating them as protected forests | Protected; non-beneficial for local communities but benefits global communities | Potentially antagonistic relationship; local communities are a threat to intact peat swamp forests and barred from access |
Ecosystem services | Code | Peatland restoration benefits | Hamlet no. of interviewees (% of respondents in the hamlet) | ||
---|---|---|---|---|---|
A (n = 25) | B (n = 20) | C (n = 10) | |||
Provisioning services | Agriculture |
|
12 (48%) | 1 (5%) | 3 (30%) |
Timber |
|
6 (24%) | 2 (10%) | 6 (60%) | |
Non-timber forest products collection |
|
3 (12%) | 0 (0%) | 0 (0%) | |
Regulating services | Water |
|
16 (64%) | 5 (25%) | 3 (30%) |
Air quality and climate |
|
7 (28%) | 2 (10%) | 2 (20%) | |
Disaster prevention |
|
2 (8%) | 1 (5%) | 0 (0%) | |
Cultural services | Social identity and spiritual values |
|
10 (40%) | 1 (5%) | 1 (10%) |
Other benefits | Biodiversity |
|
1 (4%) | 0 (0%) | 1 (10%) |
General economic benefits |
|
9 (36%) | 1 (5%) | 1 (10%) |
Category | Code | Peatland restoration challenges and issues | Restoration activities associated with challenge | Hamlet no. of interviewees (% of respondents in the hamlet) | ||
---|---|---|---|---|---|---|
A (n = 25) | B (n = 20) | C (n = 10) | ||||
Economic | Livelihood |
|
Revegetation; revitalization | 11 (44%) | 4 (20%) | 2 (20%) |
|
Revegetation; revitalization | |||||
|
Revegetation; revitalization | |||||
|
Rewetting | |||||
Expense |
|
Revegetation; revitalization; rewetting | 6 (24%) | 1 (5%) | 1 (10%) | |
Logistical | Implementation |
|
Revegetation; revitalization | 6 (24%) | 1 (5%) | 1 (10%) |
|
Rewetting; revegetation; revitalization; fire reduction | |||||
Maintenance |
|
Revegetation; revitalization | 12 (48%) | 0 (0%) | 2 (20%) | |
|
Rewetting; fire reduction | |||||
|
Revegetation; revitalization | |||||
Social | Socialization |
|
Revegetation; revitalization; rewetting | 9 (36%) | 17 (85%) | 5 (50%) |
|
Revegetation; revitalization | |||||
|
Revegetation; revitalization | |||||
|
Revegetation | |||||
Governance |
|
Rewetting; fire reduction | 9 (36%) | 4 (20%) | 0 (0%) | |
|
Rewetting; fire reduction | |||||
|
Revegetation; revitalization | |||||
|
Revegetation; revitalization | |||||
Other | Resource/capacity |
|
Revegetation; revitalization | 9 (36%) | 0 (0%) | 2 (20%) |
|
Revegetation; revitalization |
Peatlands as Productive Lands
“Our land [did not burn] because it is clean. If someone's land burned, it means that their land is covered with vegetation. […] We bought our land. Many did not. They opened their lands in the past, that's why they can sell it and do whatever with it. We bought our land, so we must take care of it […]. In my opinion, regarding the source of burning, I think it is due to [the other's] laziness with clearing the shrubs. […] Their lands are filled with shrubs. Their lands are not cleared and became the cause of shrubland fire! The shrubs are dirty, unclean, and tall” [Interviewee 10, hamlet A].
“If [peatlands] are close to clay soils […], it will retain dampness and the deep areas will not dry out. Peat depth also has an influence on the issue of water storage. If the depth of the peat reaches 7 m, it is not good and maybe it is another type [of soil]. This is the opinion of people like us who are located not far away from clay soils. Deep peat is rather poor. It's not that it can't be managed, it can. But for us who have peatlands not far from clay soils, [the soils] are better. […] When the clay soils are moist, [the peatlands] are moist. If we plant here, it is fine, even if we are late to apply fertilizers” [Interviewee 8, hamlet A].
“Once rewetted, plant anything here. Plant oil palms and rubbers. Oil palms consume a lot of water. They need eight liters per day. They must have moist and watery soils” [Interviewee 1, hamlet A].
Interviewees from hamlet A cited the most restoration benefits related to production whereas hamlet B cited the least (Table 4). Of the interviewees from hamlet B that espoused this view, half of them considered the productive outcomes of restoration to be linked to a proposal to plant Acacia sp. on community lands bordering a nearby plantation.
Peatlands as Marginal Wastelands
“There are many enemies in the peat swamp forest. Formerly in this village, there were tigers. The tigers were already present at 4 am” [Interviewee 13, hamlet A].
“If the peatland is swampy, we'll sink when we enter” [Interviewee 16, hamlet A].
“Peatlands are difficult to make money” [Interviewee 36, hamlet B].
“In the past, peatlands are filled with plants that are suitable for the conditions of peat…if we plant oil palm, it's hard to live! It's hard to live! But if there is compaction, then there is benefit. We can plant crops that are not native to peatlands on peats that are compacted” [Interviewee 42, hamlet A].
“What do we need the [native peat swamp] trees for?” [Interviewee 40, hamlet B].
“Since 2015, I started planting [native trees]…I planted a lot, and many were damaged by [wild] pigs. Uprooted by them. In fact, the pest pigs tried [and uprooted] many woods. We plant, they uproot! Sometimes, there is also a type of worm that eats the leaves of the ramin tree. It is not easy to plant trees” [Interviewee 43, hamlet A].
Peatlands as Degraded Lands
“There is a change to the fish catch. Of course there is. When we, the early people [to arrive at this area], were young, there were not many people. We used traditional fishing gears. There were many fishes and shrimps. Now technology is used and there are more people, therefore our catch is little. It has been reduced compared to the past” [Interviewee 13, hamlet A].
“In the past the waters here tasted good and were cold. If we want to drink, we can drink it directly. But now, how can we drink it? The people who planted acacia added fertilizers into [the waters]. The waters are no longer the native forest's waters. In the past, [the waters] contained woods and roots, which have medicinal properties” [Interviewee 43, hamlet A].
Certain peatland issues, such as fires, a consequence and driver of peatland degradation, were experienced by all interviewees. Preparation of peatlands for large-scale plantation development created conditions conducive to major biomass fires, especially during climatically dry periods. Causes of uncontrolled fires were largely attributed to anthropogenic factors (Table S4), such as accidental fires resulting from carelessly disposed cigarettes and trash, land-clearing fires, general negligence, and lack of awareness. Non-anthropogenic factors such as wind and lightning were cited as, respectively, contributing to fire spread and acting as a natural ignition source. However, the latter was not considered a significant cause of biomass fires.
“Interviewee: Here the community did not have a lot of farms […] There are lands, but few farms, because people are bored of planting.
Interviewer: Bored because?
Interviewee: Because it keeps burning. Now the community is starting to plant again. For almost four years we have issues with fires. Now that it is controlled, we only started planting again, including myself” [Interviewee 1, hamlet A].
Despite this, fires were also widely recognized as useful by improving peatland fertility in the short-term (n = 15) and removing agricultural weeds and crop residues (n = 5), and were considered a cheap alternative to preparing land compared to applying agrochemicals and manual clearing (n = 38). Likewise, while peatland degradation is associated with the loss of ecosystem services and peat functions, the process was not necessarily viewed negatively. Indeed, peat compaction was perceived to improve the ease of management and reduce fire risks (n = 7), with a majority of interviewees with this view coming from hamlet A (n = 5) and none from hamlet C. Opinions over how degraded peatlands could be managed varied, such as being utilized for further crop production, actively restored, or simply left idle.
Peatlands as Cultural Sites
“If the peatlands are managed properly, for example, if we plant natural trees, the governments from all places will come. From Papua, from Singapore, and from Japan. They will come because the peatlands are preserved” [Interviewee 4, hamlet A].
“People from outside the country come to learn” [Interviewee 12, hamlet A].
Peatlands as Protected Nature
“The community needs evidence [of restoration], if we don't get to see the natural trees, then how do we know that we will be able to use the woods or if they will be taken by the country? In our own words, […] if we plant [the trees] and they don't benefit us later, then we don't plant! We plant oil palms or rubbers, where we have clear results” [Interviewee 5, hamlet A].
Discussion
Tropical peatlands are landscapes characterized by a myriad of uses and values, beliefs, and social–ecological dynamics. We formulated five representations of peatlands based on the stated benefits and challenges, experiences, and descriptions of peatlands by local communities from our study site. In turn, these representations can influence how local communities interpret new policies and interventions and affect, to a degree, how local communities communicate and engage with restoration (Aggestam 2014).
Our study contributes to the growing literature highlighting peatlands as landscapes of constant change with co-occurring social representations (Persoon & Simarmata 2014; Pungas-Kohv et al. 2015; Flint & Jennings 2020). For example, representations of peatlands as productive lands, marginal wastelands, and degraded lands were shared among interviewees across all hamlets, reflecting common experiences of managing peatlands and social interactions leading to shared values concerning the environment (Kenter et al. 2016). The co-occurrence of multiple representations reflects the changing ways that communities engage with peatlands, which are influenced by a multitude of economic, social, and historical factors interacting at various scales. Traditionally, peatlands were viewed as marginal wastelands (McCarthy et al. 2012; Manzo et al. 2020), paving the way for development policies emphasizing the potential of peatlands as productive lands, in a process known as “undoing marginality” (Persoon & Simarmata 2014, p. 44). State-led transmigration programs involving the movement of large numbers of people into parts of Sumatra and Kalimantan, including peatland areas, have more deeply entrenched the productive land representation by casting migrants as laborers engaged in land development (Masuda et al. 2016; Manzo et al. 2020). By 2000, approximately 32.8% of the land in the Village had been cleared (Arifudin et al. 2018). The formation of the two migrant hamlets at our study site despite the limiting biophysical conditions of peatlands underscores the prevalence of the productive lands representation at the local and national scales.
At the international and national scales, contemporary narratives of peatlands have shifted towards a conservation angle, highlighting the carbon potential of unlogged peat swamp forests and their contribution towards global climate change mitigation (Leifeld & Menichetti 2018; Manzo et al. 2020). Globally, the representation of peatlands as protected nature gained traction following the establishment of international treaties on wetland protection, such as the Ramsar Convention (Johnston & Soulsby 2000). At the regional and national level, the ecological importance of peatlands, especially in Indonesia, became a focal point of attention in policies, media, and other outlets following the 1997/1998 peatland fires (Goldstein et al. 2020; Manzo et al. 2020). Our findings echo those of Miller et al. (2021) that peatland communities in Riau are situated within a network of information and respond to narratives at the broader scales. Local communities responded to these narratives by citing the importance of peatlands, sometimes borrowing scientific concepts (e.g. “biodiversity,” “O2”), and describing peat swamp forests as “lungs of the world”. In particular, more interviewees from hamlet A, who have greater exposure to restoration activities and access to information, cited the climate benefits of peatlands. The metaphor of peat swamp forests as lungs has been commonly applied to tropical forests (Dove 2003). More recently, peatlands have been described as affected by the “Cinderella Syndrome”—unknown and undesirable—in the past, but which are presently cared for (Cheng 2015; Byg et al. 2020). Such metaphors highlight the many ways that humans relate to peatlands (Raymond et al. 2013) and demonstrate how local communities in Riau draw from multiple knowledge sources to inform their representations (Cebrián-Piqueras et al. 2020).
Another knowledge source influencing representations stems from the highly contextualized, local experience of living in and around peatlands. In our study site, peatlands are represented as cultural sites defined by local histories and cultural beliefs. For example, a fear and respect of wildlife in the landscape informed moral behaviors and management practices through taboos and stories. Likewise, in other parts of Indonesia and the tropics, the ambiguous relationship of local communities with peatlands through a spiritual lens of fear and respect has engendered conservation behaviors (Thornton 2017; Schulz et al. 2019a, 2019b). By engaging with the cultural sites representation, restoration can reframe local communities as stewards of the landscape (Byg et al. 2020) and reinstate culturally significant services.
Whilst it is still too early to evaluate the biophysical and socioeconomic impacts of restoration, preliminary understanding and engagement with local peatland representations may increase project acceptability and legitimacy and reduce barriers to participation. A prevalence of the productive lands representation and assumed economic challenges associated with restoration may have enabled market-based approaches to become increasingly adopted in peatland management in Indonesia, despite concerns over their long-term sustainability (Miller 2022). However, many market-based projects involving sustainable peatland management are currently still in the pilot stage. For example, the adoption of peatland-friendly biomass production, or paludiculture, have thus far been limited to trial plots (Tan et al. 2021; Miller 2022). Moreover, issues underlying market-based approaches, such as land tenure security, resource access and rights, or the distribution of benefits, need to be addressed to avoid further perpetuating social inequalities and environment degradation. Alternative approaches, such as those focused on collective or land rights, should therefore be considered in conjunction with market-based approaches for peatland restoration and sustainable management.
Limitation
The COVID-19 pandemic severely curtailed the original plans for fieldwork, dramatically shortening the amount of time spent in the field, and thus curtailing the amount and range of data collected, with only a relatively small proportion of the local population included in the study. Furthermore, the original plan to review and triangulate research findings with community members and other key stakeholders could not be implemented. As such, the degree of sampling bias cannot be assessed. Follow-up studies are thus advised to consider both broadening the sampling frame (e.g. to include a wider range of respondents in the three hamlets, and indeed in other villages in the area) and increasing the variety of methods deployed in order to reduce sampling bias (Oppong 2013), including the use of, for example, focus groups.
Future Research Directions
Moving forward, we suggest expanding the scale of research to reveal any differences in social representations within local communities, such as between migrants and Indigenous people, and among key stakeholders in order to identify potential areas of trade-offs and synergies. As representations change over time in response to new narratives, future research assessing the impacts of land intervention and policies could incorporate representation theory as one dimension of evaluation. For example, a recent scheme to establish food estates on peatlands may drive the productive land representation by justifying the conversion of peatlands into farms for enhancing food security. However, at the local level, the food estate program evokes concerns about exacerbating peatland degradation and the loss of livelihood sources through inappropriate cultivation techniques, similar to previous food estate programs (Nurhidayah & Djalante 2022). Contrasting policies across various scales that promote development and conservation offer new opportunities to and constraints on local communities in their relationships with peatlands. In turn, this can shape future representations of peatlands and perceptions of restoration.
ACKNOWLEDGMENTS
We would like to thank Diah from the University of Riau for their assistance during fieldwork. We are also grateful to the villagers in the study site for graciously providing accommodation during our stay and for their valuable insights. This work was conducted under the permission of the Government of Indonesia [permit number: 461/E5/E5.4/SIP/2019] and was supported by the Singapore Ministry of Education (MoE) Social Science Research Thematic Grant [MOE2016-SSRTG-068]. Ethical approval for this research study was granted by the Institutional Review Board of the National University of Singapore [IRB No. S-18-183]. The data that support the findings of this study are not publicly available because of restrictions over information that could compromise the privacy of research participants.