Next Article in Journal
How Does Organizational Citizenship Behavior (OCB) Affect the performance of megaprojects? Insights from a System Dynamic Simulation
Next Article in Special Issue
Predictive Diagnosis of Agricultural Periurban Areas Based on Territorial Indicators: Comparative Landscape Trends of the So-Called “Orchard of Europe”
Previous Article in Journal
The Relationship between the Knowledge Economy and Global Competitiveness in the European Union
Previous Article in Special Issue
Spatially Explicit Soil Compaction Risk Assessment of Arable Soils at Regional Scale: The SaSCiA-Model
 
 
Font Type:
Arial Georgia Verdana
Font Size:
Aa Aa Aa
Line Spacing:
Column Width:
Background:
Article

Contrasting Stakeholders’ Perceptions of Pine Plantations in the Páramo Ecosystem of Ecuador

1
Departamento de Recursos Hídricos y Ciencias Ambientales, Facultad de Ciencias Agropecuarias, Facultad de Ingeniería, Universidad de Cuenca, Av.12 de abril s/n, Cuenca 0101168, Ecuador
2
Institute of Silviculture, Center of Life and Food Sciences Weihenstephan, Technische Universität München, Hans-Carl-von-Carlowitz-Platz 2, 85354 Freising, Germany
3
International Studies and Institute of Public Service, Seattle University, 901 12th Avenue, Seattle, WA 98122-1090, USA
4
Institute of Forest Management, Center of Life and Food Sciences Weihenstephan, Technische Universität München, Hans-Carl-von-Carlowitz-Platz 2, 85354 Freising, Germany
*
Author to whom correspondence should be addressed.
Sustainability 2018, 10(6), 1707; https://doi.org/10.3390/su10061707
Submission received: 17 April 2018 / Revised: 18 May 2018 / Accepted: 21 May 2018 / Published: 23 May 2018

Abstract

:
The páramo, a collection of Neotropical alpine ecosystems, plays a prominent role in ecosystem services (ESs), providing water supply and regulation, conservation of biodiversity, and carbon storage in soil. The establishment of pine plantations for carbon sequestration and wood production has recently raised questions concerning the possible impact on the páramo’s ES. This study identifies the main stakeholders in this field and compares and contrasts their perceptions of the impact of pine plantations on the páramo’s ES, because the disparity among stakeholders’ perceptions must be addressed to achieve sustainable management. The data were gathered using 56 semi-structured interviews and were qualitatively analyzed. The results show that the main stakeholder groups (landowners, local government officials, foresters, and nature conservationists) acknowledge the important ES of the plantations. The perception of plantation impact varies among and within stakeholder groups, however, on specific functions, such as water provision, carbon storage, erosion prevention, and habitat function for wildlife and natural vegetation. Consideration and integration of these perceptions can help policy makers and organizations develop sustainable policies for the future management of the páramo ecosystem.

1. Introduction

Tropical alpine ecosystems, of which the páramo is one of the most important and widespread, provide ecosystem services (ESs) to more than 100 million people [1]. The most prominent ESs the páramo provides are water supply and regulation, biodiversity conservation, and carbon storage [2]. The majority of the main cities in the northern Andes benefit from these services for domestic and industrial water supply, irrigation, and the generation of hydroelectric power [3]. In addition to providing these ESs, the páramo is important for the establishment of economic activities. The páramo has long been used for grazing llamas and alpacas, and in the last few centuries, sheep, cattle, and horses [4,5]. In the last century, the páramo has also seen use for plantations, predominantly of pine. These plantations have varied purposes, including wood production, restoration of degraded land, and in the last few decades, generation of carbon credits as part of the Climate Change Kyoto Protocol, which has caused an increase in the rate of plantation establishment [6,7].
Given the potential positive impact of wood production both for local communities and for carbon sequestration, pine plantations have been broadly recognized as a valuable use of land in the high altitudes of the Andes [6,8]. Several recent studies have, however, raised critical views on páramo pine afforestation, taking into consideration their potential negative effects on water regulation and carbon storage [9,10,11,12,13]. More recently, some environmental non-governmental organizations (NGOs) and public media adhering to these views have criticized plantations of pine trees on páramo sites. For example, an Ecuadorian newspaper [14] published an article entitled “Pinos destructores” (destructive pines), in which pine plantations on páramo sites were blamed for the loss of native forests and biodiversity. Several environmental NGOs have also condemned the plantations for diminishing the water supply, drying the soil, and producing a negative economic impact on landowners [15,16].
Opinions on the benefits and risks of pine afforestation on páramo sites are both inconsistent and divergent, which presents a challenge to policy makers. The current high level of uncertainty about the future establishment and management of pine plantations is a direct consequence of these divergent opinions. Urgenson [17] emphasizes that the comprehension of stakeholder perceptions is an important means of understanding the opportunities and constraints of ecosystem conservation. Future management of the páramo therefore depends largely on reconciling the different stakeholder perceptions. In Ecuador, for example, Gonzales [18] describes how the country’s new constitution (approved in 2008) created regulations that guarantee the active and ongoing participation of indigenous nationalities, local communities, forest stakeholders, and the general public in the planning, execution, and control of all forestry activities.
The objectives of this study were (i) to identify the main groups of stakeholders related to the establishment of pine plantations in the páramo ecosystem of Ecuador; (ii) using qualitative analysis, to explore and contrast stakeholder perceptions of both the negative and positive impacts of pine plantations on páramo ESs in Ecuador. This analysis contributes to the environmental management literature by illustrating the main differences in stakeholder perceptions and current scientific knowledge, ultimately emphasizing the need for additional knowledge. The results of this study are intended to improve public discussions of better management practices for future and already established plantations in páramo ecosystems.

2. Materials and Methods

2.1. Study Area

The Neotropical alpine ecosystem (páramo) is a high mountain ecosystem situated between the upper limit of the continuous closed forest and the upper limit of plant life, mostly distributed in the northern Andes; the traditional natural vegetation consists of tussock grasses, large rosette plants, shrubs with evergreen, coriaceous and sclerophyllous leaves, and cushion plants [19]. The páramos of northern and central Ecuador are found generally from 3500 masl, and in the south they can be found from 2800 masl and higher [20]. In the páramos of Ecuador, the annual precipitation varies widely (between 500 and 2000 mm) [19,21] even within rather short ranges, due to the complex topography of the mountains system [22]. In most of the territory, precipitation presents a bimodal pattern with rainy seasons from February to May and from October to December. Páramos have a generally cold and humid climate with sudden changes in weather and diurnal fluctuation in temperature oscillating from below freezing to 25 °C, with an annual average that varies between 2 and 10 °C [19,21,23,24]. Soil is one of the most important characteristics of the páramo; páramo soils act as huge carbon pools, storing and accumulating organic carbon, due to the formation of organometallic complexes that physically protect the humus against decomposition [25].
Interaction between humans and the páramo goes back 10,000 years, when parts of the páramo were used for hunting and gathering. The most important human impact on the Ecuadorian páramo began with the arrival of the Incas, who began to use the lower parts of the páramo for agriculture, as well as for grazing llamas and alpacas [4]. Later, Spanish invaders took the most productive lands in the valleys and displaced the native inhabitants to the highlands, some of them into the páramo. The Spanish also replaced the south American camelids with sheep, cattle, and horses and began burning large tracts of páramo to encourage the growth of tender forage [5]. Although the páramo’s primary production is not high, as a whole it produces enough plant material to be partially usable for livestock grazing and supplies part of the population’s demand for meat and milk [26]. More than 500,000 people, most of them from indigenous communities, live near the páramo and use it for productive agriculture [27]. As in other areas in the Ecuadorian Andes, people living inside or close to the páramo ecosystem tend to be relatively marginalized. Their main livelihood is agriculture, including cattle grazing, although in some cases they have off-farm income [28].
Pines were introduced to Ecuador in the 1920s as part of governmental forestation programs. At the beginning, these forestation programs focused mainly on meeting the need for fuel, restoring degraded landscapes and, in the case of some large plantations, contributing to economic development [6]. In recent decades, the establishment rate of plantations increased, mainly to generate carbon credits in the context of the clean development mechanism (CDM) [7]. This program promoted the plantation of pines in the páramo, based on the belief that they were effective at sequestering carbon from the atmosphere [29]. In Ecuador, the private company PROFAFOR Latinoamérica S.A. (Programa FACE de Forestación del Ecuador S.A.) created and funded by the Face Foundation (Forest Absorbing Carbon Dioxide Emissions), a foundation founded by a consortium of Dutch electricity companies (SEP), is the largest company currently compensating for CO2 emissions through forestry. Since 1993, PROFAFOR has signed 152 forestation contracts with private and community landowners for carbon sequestration through reforestation and afforestation, 95% of which are located in the Andean highlands [29]. Up to 2003, 22,000 ha of plantations were established in the Ecuadorian highlands, of which 94% are pine plantations [30]. Most of the contracts were signed for 20 years, the expected rotation period for these pines. Landowners are compensated for the costs of the seedlings and their planting and are given an annual visit by a technician. Landowners are obliged to protect their plantations with a firewall and to manage them by pruning and thinning. At harvest time, the landowners receive 70% of the revenue and in the event they want to reforest the area, the full revenue [29].
The interviews given to pine plantation owners and local government authorities were carried out in the Azuay province, situated in southern Ecuador (Figure 1). Páramo landowners in the Azuay province include indigenous communities and mestizo farmers (of mixed Spanish and indigenous descent) [31]. This area was chosen because of the establishment of extensive pine plantations in the páramo and the society’s dependence on the páramo′s ESs. One of the most critical ESs this region provides is the water for the Paute hydroelectric complex, the oldest and largest in the country [32]. The local University of Cuenca, in collaboration with Belgian and German universities, developed a water resources program that became the main point of reference for ecohydrological research in the páramo [4].

2.2. Methodology

To assess stakeholder perceptions, we followed the definition of Grimble and Chan [33], in which stakeholders are individuals within a system “who affect, and/or are affected by, the policies, decisions and actions of the system; they can be individuals, communities, social groups or institutions of any size, aggregation or level in society. The term thus includes policy makers, planners and administrators in government and other organizations, as well as commercial and subsistence user groups”. We identified and contacted public and private organizations that either deal with forestry in the páramo and/or are involved in the conservation and sustainable management of the páramo. We created a map of stakeholders to identify the main actors in relation to pine plantations in the páramo. After the mapping, we identified four main groups of stakeholders: landowners, local governments, foresters, and nature conservationists. We made a list of potential interview subjects from each group of stakeholders. This list was verified and streamlined [33], as each interviewee was also asked to recommend other interviewees, using a snowball sampling technique [34], so that only those who were essential to the analysis were included. Availability also determined the final sample of interview subjects. Following standard practice, a substantial number of key informants from each group were interviewed [35], including: 19 landowners, 15 foresters, 12 nature conservationists, and 10 interviewees from local governments.
The interviews were semi-structured and used open-ended questions to guide the interview. We developed two interview formats: Appendix A.1, which was applied to the owners of the plantations and Appendix A.2 for the rest of the interviewees (Appendix A.1 and Appendix A.2). The difference between the formats was that A1 collected more detailed information about the owners’ plantations while A2 collected information about the plantations in the páramos in general. With the exception of certain specific information in A1, the rest of the questions were similar in such a way that the information could be compared. The interviews included an introduction to the research project and also assured confidentiality. We conducted 56 interviews in Spanish between June 2013 and June 2015, and collected information on: (1) the characteristics of the plantations (date and place of establishment, extension, type of agreement if it is the case, etc.) and the applied management activities (this information was collected only from landowners); (2) the motivation for establishing pine plantations; (3) the land conditions before planting (the response from landowners related to their own plantations, the replies of the other stakeholders were related to their own experience with pine plantations); (4) the perceptions of the plantations’ positive and negative impacts (these perceptions were coded following the categories of ESs used by The Economics of Ecosystems and Biodiversity [36]; provisioning, regulating, supporting, and cultural ES); and (5) future plantations. Interviews were conducted in person by one or two members of our team. One interview was conducted via Skype. The interviews lasted between 26 and 90 min, depending on the availability of the interview subject. Where consent was granted, interviews were recorded (32 interviews) and transcribed (all 56 interviews).

3. Results

Results were grouped in two main categories: (i) stakeholder classification; and (ii) information collected in the interviews.

3.1. Stakeholder Classification

We classified the stakeholders in four groups: landowners, local governments, foresters, and nature conservationists. Stakeholders from the groups of landowners and local governments were located in the páramos of Southern Ecuador, while stakeholders from the groups of foresters and nature conservationists were represented by local, regional, national, and international organizations (Table 1).
  • Landowners; this group was represented by property owners or land managers with primary decision-making authority for the property. The properties included pine plantations located in the highlands of South Ecuador.
  • Local governments; this group was represented by representatives from the Juntas Parroquiales Rurales, the autonomous local governments decentralized from the central government; they are in charge of the protection and sustainable use of the environment and the biodiversity of their jurisdiction. For this reason, they have to promote plans and programs of conservation, afforestation, reforestation, and other actions tending towards the fulfillment of this objective. Additionally, local governments have to coordinate environmental management with other entities (public and/or private) and prevent the generation of conflicts derived from inadequate management of natural resources. For this study, we considered only local governments from territories with pine plantations (established in private properties) in the páramos of southern Ecuador.
  • Foresters; this group was represented by forestry professionals and forestry researchers working for public institutions, private organizations or companies, and universities. Of the public institutions, we selected the national and regional forestry departments, which are the entities in charge of promoting and regulating commercial forestation activities. The private companies consisted of timber companies and others that specialized in the establishment of plantations for climate change mitigation and the sustainable management of plantations. The universities included were involved in research and education. All of them were involved in activities in the páramos.
  • Nature conservationists; this group was represented by researchers and professionals engaged in the conservation of natural resources from both the public and private sectors or universities. From the public institutions we included the national department that is in charge of forest restoration. The private institutions considered were specialized in research, managements and conservation of the páramo ecosystem. Some of them were international NGOs that had local representation.

3.2. Information Collected in the Interviews

3.2.1. Characteristics and Management of the Plantations

The plantations of the 19 interviewed landowners cover a total area of 4886 ha. Excluding a single plantation of 2400 ha, the 18 remaining plantations varied in size between 19 and 350 ha with an average size of 138 ha. Of the plantation area, 70% is located above 3500 masl. The average size of the plantations increased with altitude, from 90 ha (2800–3200 masl), over 152 ha (3200–3500 masl) to 172 ha above 3500 masl. In all, 4 landowners manage their plantations autonomously, 14 have management contracts with PROFAFOR, and 1 has a contract with a local governmental institution. The contracts with PROFAFOR were signed between 1994 and 2000 for an assumed rotation time of 20 years. One of the four autonomously managed plantations has been completely harvested and two of the plantations with PROFAFOR contracts harvested a minimum percentage of their area (one 7% and the other 0.7%). Although the contracts obligate the owners to thin and prune the plantations, 80% of the plantations had not received any thinning and 20% only received thinning in limited areas. Similarly, only 33% of the plantations had received a complete pruning, while 54% had been pruned only in selected parts of the plantation and 13% had not been pruned at all. Two plantations, both located above 3500 masl, received neither thinning nor pruning.

3.2.2. Motivation for the Establishment of Plantations

Although multiple answers were possible, the results show that the majority of landowners (89%) established their plantations for the purpose of wood production, nearly a third for carbon sequestration (as part of the PROFAFOR program), while a quarter mentioned both reasons, and just one (5%) mentioned erosion prevention. These results correspond with the perception of the other stakeholders (local governments, foresters, and nature conservationists), 70% of whom perceived wood production and 11% carbon sequestration as the main motivation for establishment. They also included other purposes such as erosion prevention (14%) and water regulation and supply (8%) (Figure 2).

3.2.3. Stakeholder Perceptions of the Land Condition Previous to Afforestation

To characterize the land conditions before afforestation, we referred to the categories established by Hofstede et al. [21] in their study of the Ecuadorian páramo. Nature conservationists (75%) and landowners (74%) agreed in their perception that the category of the land used for the afforestation was “grazed páramo,” characterized by tussock grass with signs of frequent burning and the presence of cattle. Only a few landowners (21%) and foresters (7%) perceived that the plantations were established in conserved páramo, characterized by tall tussock grasses, without any signs of burning, without cattle, and with the presence of native vegetation. More than half of the foresters (60%) and half of the local government (50%) perceived that most plantations were established on both types of páramo (Figure 3).

3.2.4. Stakeholder Perceptions of the Impacts Caused by Pine Plantations

In interviews, the stakeholders noted four categories of ESs: provisioning, regulating, supporting, and cultural services. Among the ESs mentioned by at least 25% of the interview subjects, the most important subcategories were: providing wood, regulating carbon sequestration and storage, regulating water flows, regulating erosion prevention or maintenance of soil fertility, and supporting habitat for species (Table 2).
• Provisioning wood
While 70% of local governments, foresters, and nature conservationists perceived provisioning wood to be a profitable service of pine plantations in the Ecuadorian páramo, 79% of landowners were dissatisfied with the profitability of the wood produced by their plantations (Figure 4). Some landowners were dissatisfied with the current level of development of their trees, especially in the higher altitudes. As one landowner stated, “in the upper part of the plantation the pines are small, in these places the pines have not grown”. The same group of landowners complained about the high cost of managing their plantations. As one landowner expressed it, “according to the contract we had to carry out three prunings and one thinning, but we do not have enough economic resources, we just did one pruning in the entire plantation. It is clear that there will be no profits, so we are just protecting the plantation”. Regarding the management of plantations, one local government representative stated, “it is not profitable, because the income produced does not cover the cost of management”, and one nature conservationist argued “it was a great deception practiced on many communities, they all had subsidies for the establishment of the plantations, but nobody had financing for the management”. A landowner noted that some other landowners have encountered problems with the environmental authorities, “to extract the wood we need to make some roads, but the authorities do not allow this and they do not allow us to make roads because it will damage the environment, so the trees will remain where they are”. Only three landowners with plantations in lower altitudes (2800–3200 masl), who enjoyed better growth conditions, assessed provisioning wood as positive, because they had already obtained revenue from harvesting or thinning their stands.
• Regulating water flows
Nature conservationists (50%) and local government (60%) interview subjects had only negative perceptions of the impact of the plantations on regulating water flows (Figure 5). Of the foresters, 27% also had negative perceptions, with just 7% expressing positive assessments. Landowners, on the other hand, had more positive (37%) than negative perceptions (5%; Figure 5). Foresters and nature conservationists referred specifically to the negative impact. As one of them commented: “the generally rapid growth of exotic plantations is having a negative effect on the hydrological balance due to the greater use of water”. One landowner and some representatives of local governments also mentioned that “water sources near pine plantations have dried up”; “now there is drought around the plantations”. However, one of the foresters claimed that “plantations regulate the watershed water balance”. The perceptions of most of the landowners referred to their impact on springs. They explained, for example, “previously the springs were drying up; now, they are not dry, and the water flows permanently”; some of them stated that “with the establishment of the plantations the springs have recovered”.
• Regulating carbon sequestration and storage
Although 32% of the landowners said that carbon sequestration was a motivating factor for establishing a plantation, plantation impact on carbon sequestration was positively perceived by only 23% of the interviewees from among all the groups of stakeholders; 8% of the nature conservationists even expressed negative views (Figure 6). One of them explained that “in the páramo, approximately 90% of the carbon is stocked in the soil, and some studies showed that the capture of carbon in the biomass of the pines is causing a change in the soil carbon dynamics, causing a loss of soil carbon that could be large enough to offset the gains in biomass carbon”. The interview subject emphasized, “this may lead to the failure of this type of project”.
• Regulating erosion prevention and maintenance of soil fertility
Only the representatives of local governments were limited to negative perceptions of erosion prevention and maintenance of soil fertility; the other stakeholders had diverse perceptions (Figure 7). Positive perceptions were related to the recovery of degraded land. A landowner commented, “the plantations caused soil recovery, the pine needles help generate humus and shelter a diversity of insects”; one forester mentioned a case in which the control of desertification was attributed to the planting of pines, stating, “the process of desertification that comes from the Jubones river would have continued to advance if we would not have built a natural barrier using pines”. The negative perceptions focused on the alteration of the soil properties, specifically its acidity (pH). A nature conservationist mentioned, “there is an acidification of the soil and a reduction of the water retention of the soil”. On this matter, foresters and nature conservationists both observed that the impact depends on what is compared. The plantations may have a positive impact on degraded soils and a negative impact on well-preserved páramo.
• Supporting habitat
Regarding this ES, two main perceptions were reported: one regarding fauna and the other one regarding flora. In relation to fauna, all stakeholders perceived that the plantations serve as a refuge for animals. Notably, almost all landowners (89%) had this perception and only 16% of local government representatives, foresters, and nature conservationists shared this perception. All landowners mentioned the presence of deer, rabbits, or guinea pigs on their plantations, and some even mentioned seeing rare mammals, such as the mountain tapir and cougar (Figure 8a). Concerning flora, all the interviewees perceived that the plantations are causing the disappearance of native plants. For example, one stated, “studies have shown alterations in the structure and composition of vegetation and a reduction of its biodiversity,” and another said that “on plantations, the understory will not develop” (Figure 8b).

3.2.5. Future Plantations

In this part, we collected technical information related to the future management of plantations by asking questions to local governments, foresters, and nature conservationists. The majority (67%) of representatives of local governments, foresters, and nature conservationists agree that future plantations should be established only in designated areas. A technical study by the Ministry of Agriculture (MAGAP) and the Ministry of Environment found that there was an area of 2.6 million ha available for the forest plantations to be established for commercial purposes [37]. This evaluation also specified the areas where commercial plantations cannot be established, namely, native forests or páramo located above 3500 masl (north of 3° latitude) and above 3000 masl (south of 3° latitude); as well as protected areas or places with slopes greater than 50°. The stakeholders interviewed further considered areas with degraded soils for plantation establishment (60% of local government representatives, 13% of foresters, and 33% of nature conservationists). However, they agreed with the MAGAP that páramo ecosystems (30% of local government representatives, 53% of foresters, 66% of nature conservationists), protected areas (30% of representatives of local governments, 47% of foresters, 42% of nature conservationists), and places with existing water sources (20% of representatives of local governments, 13% of foresters, 17% of nature conservationists) should not be afforested using plantations. Concerning the potential for improvement of the plantations, the interviewees highlighted four topics: the proper management of the plantations (38%), establishing plantations only in appropriate places for forestry (35%), the improvement of the genetics of the forest reproductive material (19%), and encouragement of research in the public sector (19%).
This section contains the information related to the interest of the stakeholders in future research. The different stakeholders clearly differentiated topics for further research. Most landowners (68%) were interested in practical aspects related to the management of the plantations, such as the silviculture and commercialization of the wood, and 26% on the impact of the plantations on the soil. The representatives of local governments were mainly interested in the impact of plantations on hydrology (50%), while the foresters had a special interest in the impact of plantations on carbon sequestration and storage (26%), in silviculture (20%), and the generation of work. Of the foresters, 13% were also interested in the impact on hydrology, soil, natural regeneration, and reforestation with native species. The nature conservationists prioritized the impact on hydrology (33%), natural regeneration (33%), and carbon capture (17%). Finally, all landowners expressed their willingness to provide their own plantations for any type of study to support the development of any kind of future research. All stakeholders were willing to collaborate and interact with researchers.

4. Discussion

In recent years the benefits of pine plantations in the páramo have been increasingly questioned [4,12], mainly due to the awareness of the importance of the páramo’s ESs [2,4]. Most stakeholders we interviewed agreed that the triggering factor for the establishment of pine plantations in the páramo is wood production. Pines were introduced to Ecuador in the 1920s, primarily to provide fuel and timber or to restore degraded soils, generally in the highlands, including the páramo. Throughout the 1970s and 1980s, the government also promoted the establishment of planations for the same objectives [7]. Since 1993, plantations were established under contract with PROFAFOR, which are mostly located in the highlands (95%) [29], with the purpose of sequestering CO2 from the atmosphere to generate emissions-reduction credits that could be sold to industrialized countries. However, the amount of carbon credits generated depends on the amount of biomass produced and soil organic carbon stocked, which makes this aspect very important if this type of project is to be successful.
There was a discrepancy between landowners and other stakeholders in their perception of the condition of the land before afforestation. Hofstede et al. [9] and Chacon et al. [38] found in their studies that the plantations in the páramo were generally established on extensively grazed areas, which supports the landowners’ perceptions and downplays the idea that most plantations damaged páramo sites that had good conservation status.
The ES of provisioning wood was mentioned by almost all interviewees. Our study revealed an astonishing discrepancy between the landowners and the other stakeholders in their perceptions of provisioning wood. In contrast with the latter, all landowners with plantations located between 3100 and 3800 masl (79% of the plantations) were dissatisfied with the profitability of their plantations, which could be due to the unexpectedly slow growth of trees at higher elevations. This led to the fact that today, afforestation above 3500 masl is no longer recommended, as previously mentioned [39,40]. Another reason that could have affected the productivity of the plantations is deficient management practices due to the high cost of thinning and pruning. 68% of the plantations did not undertake any thinning and just 32% of the landowners have pruned their entire plantation. Other important points that should be considered and mentioned by the stakeholders are the necessity of improving the genetics of the seeds and the establishment of plantations on land suitable for wood production, rather than degraded land. On the other hand, the positive perceptions in relation to this ES could be that the interviewees associate wood productivity with the levels of production of the wood company Aglomerados Cotopaxi S.A. This company was established in 1978 in the highlands of the north-central area of Ecuador. Currently, the company has approximately 10,000 ha of pine plantations and is one of the biggest manufacturer of medium-density fiberboard (MDF) panels in the Andean region [41]. But in this case, the management of these plantations meets high standards of quality. They produce 3.6 million seedlings per year, they prepare the soil with its own substrate and apply pruning and thinning, and have forest roads to facilitate timber extraction [42]. Moreover, the company saves production costs by locating the plantations next to the production plant and has guaranteed the sale of its wood. On the contrary, all the plantations from this research located from 3460 to 3800 masl had very precarious roads that did not meet the minimum standards of forest roads [43]), which makes the commercialization of their timber even more complicated.
Concerning the regulation of water flows, in contrast to the other stakeholders and most studies, most landowners had a positive perception of this ES. Bosch et al. [44] reviewed 94 catchment experiments worldwide and found that afforestation decreases water yield. In a global synthesis of the effects of afforestation, Farley et al. [11] found reductions of annual runoff when grasslands and shrublands became afforested. The few studies done in the páramo ecosystem revealed similar results. Buytaert et al. [12] and Crespo et al. [3] studied the impact of afforestation with Pinus patula on the water yield in a páramo site in the south of Ecuador. They compared the water yield of a cultivated and a natural catchment and their results indicated an approximately 50% reduction in the water yield of the catchment covered with pines. In the scientific community, it is accepted that the total water consumption of forests is larger than that of short vegetation such as grasslands [12]. Furthermore, as trees have larger leaf area indexes and roughness, they produce higher evapotranspiration; trees’ deeper and better-developed root systems also allow them to access deeper water levels, reducing the water yield. Nevertheless, other studies support the perception of some landowners that the afforestation of degraded land can lead to improvements in the properties of the soil and therefore to the recovery of hydrological functions [45,46]. A possible reason why most of landowners perceived a positive effect of the plantations on this ES could be linked to an increase of precipitation in the area after the establishment of the plantations. In a similar study, Farley and Bremer [5] obtained a similar response from an interviewee who mentioned that on his property, pines had caused more rain than before. In a study in the Colombian Andes, Murtinho et al. [47] found that local people related changes of water scarcity with rainfall. We compared rainfall averages from 5 hydrological stations in the area [48], within the period of 1960–1994 (years of the establishment of the plantations) with the period of 1995–2013 (years of the interviews). The comparison of the averages resulted in an increase in precipitation. From 1960 to 1994 the average was 714 mm year−1, while from 1995 to 2013 it was of 1036 mm year−1. To determine the factors that caused the increase in precipitation, more research would be needed, but this fact could justify the positive perception of landowners.
The ES of regulating carbon-sequestration and -storage was the less mentioned by the interviewees. It was positively perceived by 25% of the interviewees, most of them landowners (43%), probably because the landowners assume that their plantations are contributing positively to carbon sequestration and storage, since all of these landowners have a contract with PROPAFOR and surely are familiar with the company’s program. The only negative perception came from the group of nature conservationists. The majority of positive perceptions were probably influenced by the promotion of carbon sequestration; in general, conifer forests are considered major terrestrial carbon reservoirs [49]. Nevertheless, studies worldwide have shown that the afforestation of grasslands can have differing outcomes depending on the previous condition or use of the land [50]. For instance, Berthrong et al. [51] found in a meta-analysis that afforestation with pines decreased stocks of soil organic carbon (SOC). Most studies in the Ecuadorian páramo [9,52,53,54] found a decrease in SOC, although Chacon et al. [38] found no change. Local studies are therefore recommended, as SOC may also be affected by climate and parental material, which may vary among regions [55]. The reduced number of interviewees that mentioned this ES could be explained because there is not much information concerning this topic, as more studies are still needed to better understand the effects of land use change on SOC stocks [54,56].
The foresters and nature conservationists had diverging perceptions of the impact of plantations on erosion prevention and maintenance of soil fertility of the páramo. Both groups stated that the impact depends on the characteristics of the soil when the plantation is established: if the soil is degraded, the impact of a plantation could be positive, but if the soil is in good state of conservation, then its impact is more likely to be negative. As an example of a positive impact, some foresters and nature conservationists mentioned the plantation of pines established in the dry páramo of Palmira (Chimborazo province in central Ecuador). It is believed that this plantation halted the advance of sand dunes. This argument was stated in a technical report [57]. Hofstede [58] mentioned that it is obvious that pine plantations have prevented soil erosion in some páramo areas. For the moment, these perceptions are not based on sound scientific studies; we therefore recommend a conclusive study to assess the impact of pine plantations on erosion in one of these sites. On the other hand, the perception that erosion is enhanced or soil fertility is altered by changes in soil properties is supported by most Ecuadorian studies [9,24,59], which have shown that, for different páramo study sites throughout the country, the soil is considerably drier in pine plantations. Farley and Kelly [52] found more acid soils at plantations. Nevertheless, most landowners felt that the pines had led to an improvement in soil fertility. Another important factor that affects this ES is the frequency of burning commonly associated with grazed páramo. The perceptions of the stakeholders vary depending on what type of burning management is compared. A grassland that has been burned frequently and had intensive grazing will present few remnants of original vegetation and will have big patches of bare ground. In this type of management, erosion will be enhanced [60]. A different management with sporadic burning and extensive grazing would have less impact on this ES.
The concern of many stakeholders that the plantations may have negative effects on supporting habitats for native vegetation thanks to a degradation of such habitats has been supported by some studies in the páramo of Venezuela [61] and Colombia [62]; which have found that as pine coverage increases, species diversity of native vegetation decreases. In Ecuador, Hofstede et al. [9] found different results; in some plantations, the vegetation was similar to páramo grassland, and in others the understory was completely lacking. Farley and Bremer [5] found that in pine plantation sites plant species richness vary from lower to higher and plant species composition had large changes. Other studies [63] have also found that the type and quantity of solar radiation available in a forest influences numerous physiological, morphogenetic, and reproductive processes of plants. This effect depends on the density of the plantation, the age (the taller the pines, the less light they allow to fall on the soil), and the management of the plantation (without pruning and/or thinning, less light passes through). Concerning the function of the plantations in supporting habitat for wildlife (animals), landowners differed considerably from the other stakeholders. Almost all the landowners expressed this perception, but there is very limited research to support this belief. Molina [64] studied the biology of the white-tailed deer in the páramo of Venezuela, finding that the largest number of deer sightings occurs in the plantations and 70% of the inhabitants interviewed said that pine plantations benefit deer by providing refuge. According to Molina [64], these plantations are playing a positive ecological role for the preservation of the deer and the presence of this animal will depend on the renovation of these plantations. In our research, it was the landowners who highlighted the same function that the plantations are possibly providing to the animals.
Related to the future management of the plantations, the stakeholders believed that the productivity of the plantations could improve by: enhancing their management, establishing them in sites suitable for forestation, improving the genetic quality of the seeds, and supporting more research. All of these aspects corroborate the information already collected. In relation to the stakeholders’ interest in future research, the results showed, as indicated Hein et al. [65], that stakeholders at different spatial scales have different interests in ESs. The landowners were mainly interested in the productivity of their plantations (management and commercialization) which also corroborates the intention for which most of them established their plantations. The local governments were interested in studies on the impact of the plantations on water resources, as water is one of the most valuable resources in rural areas. Foresters and nature conservationists were more interested in topics related to their areas of expertise such as the impact on carbon stocks and natural regeneration.

5. Conclusions

This study is one of the first to classify stakeholders in relation to pine plantations in the páramos of Ecuador and to report and contrast stakeholder perceptions of the impact of these plantations on the páramo ecosystem services. There are five main findings:
  • Scientific evidence should be the starting point to reconcile the different perceptions between the stakeholders. Therefore, foresters and nature conservationists should communicate the results and nature of their research with the other stakeholders [66].
  • The local knowledge provided by the perceptions of the landowners was fundamental [67] to identify gaps of knowledge related to the ES of provisioning wood and supporting habitat (wildlife refuge for animals).
  • Perceptions among stakeholders differ on several aspects, such as: wood production, water regulation and supply, and support of habitat. Even within stakeholder groups, perceptions were not uniform on topics such as the regulation of erosion prevention and the maintenance of soil fertility. This disparate views should be reconciled by more interaction between stakeholders, which will facilitate linkage and information flow [68].
  • Because wood production has been the main objective for the establishment of pine plantations in the páramo, their management must be improved; for example by establishing the plantations in lands designated for forestation, providing financial plans and silvicultural treatment, ensuring adequate road access to plantations and the fair commercialization of wood.
  • It is quite unlikely that the emission-reduction objectives intended in the contracts can be achieved, especially for the plantations located in higher altitudes. Furthermore, it must be noted that the plantations may have negative effects on the provision of other ESs, such as supporting habitats for native species and regulating water flows. Consequently, the establishment of new plantations should take into account these possible trade-offs [5,69].
Identifying these perceptions may help avoid future conflicts in the management of the natural resources of the páramo and the design of effective conservation policies. In an Andean country like Ecuador, where awareness of the importance of páramo ESs has rapidly increased and is expected to continue doing so, the validation of such perceptions in future studies is important and could ultimately result in sustainable management and improved conservation of the páramo.

Author Contributions

C.Q.D., P.C. and P.H. developed the study design; C.Q.D. collected the data; C.Q.D., M.W. and P.H. analyzed the data; C.Q.D. wrote the paper; all authors contributed to the paper’s structure and provided extensive revision. All authors read and approved the final manuscript.

Funding

The study was funded by Empresa Pública Municipal de Telecomunicaciones, Agua Potable, Alcantarillado y Saneamiento (ETAPA), Research Office of the University of Cuenca (DIUC), DFG project PAK 824/B3. Carlos Quiroz Dahik was funded via a scholarship of the Secretaría de Educación Superior, Ciencia, Tecnología e Innovación (SENESCYT). “This work was supported by the German Research Foundation (DFG) and the Technical University of Munich (TUM) in the framework of the Open Access Publishing Program.”

Acknowledgments

The authors would like to thank to all the anonymous respondents and to Luis Fernando Jara (PROFAFOR) for their collaboration in the survey.

Conflicts of Interest

The authors declare no conflict of interest.

Appendix A

Appendix A.1. Interviews Applied to Landowners

Fecha:    
Entrevistador:
1. Información general
A pesar de la importancia que tienen los páramos para el desarrollo socio-económico y ambiental de la zona Austral. Desde hace varios años estos ecosistemas están siendo alterados, donde la forestación con especies exóticas como el pino han sido comúnmente usadas para diversos objetivos que van desde el secuestro de carbono hasta la conservación de agua. Sin embargo, estas prácticas no han sido evaluadas y su manejo ha sido muy deficiente. Por esta razón, esta investigación tiene como objetivo evaluar las diferentes prácticas de manejo forestal sobre la producción de madera, biodiversidad vegetal, secuestro de carbono y regulación de agua. Para ellos varias parcelas de monitoreo serán instaladas en la zona de Yanuncay al sur del Ecuador. Al final del proyecto se espera poder dar sugerencias sobre las prácticas de manejo forestal evaluadas para que se pueda realizar un manejo sostenible en las zonas de páramo.
(La información obtenida en esta entrevista servirá para investigación científica y será anónima).
1.1. Nombre del propietario:
1.2. Lugar de la plantación:
1.3. Coordenadas y altitud:
1.4. Extensión de la propiedad:    de la plantación:
1.5. ¿Existe algún tipo de convenio?
 No___ Si ___
 Tipo: Socio Bosque___  Créditos de carbón___  Otro:___
 Institución:
 Fecha: De _____________a_____________  Área: 
1.6. Otras actividades que se realicen en la propiedad (ganadería, agricultura…)
2. Plantación
2.1. Motivo por el cual se realizó la plantación
2.2. Fecha del establecimiento de la plantación (Si hay varias plantaciones en diferentes épocas, especificar):
2.3. Especies de plantas utilizadas en la plantación:
2.4. ¿Cuáles fueron los criterios para seleccionar a esta especie? ¿Se consideraron otras especies, si es así cuales? ¿Por qué no se tomaron en cuenta otras especies?
2.5. Número de árboles por hectárea (distancia entre plantas):
2.6. ¿Cuál es la procedencia genética de los plantines? (en donde se cosecharon las semillas)
2.7. ¿En dónde se adquirieron los plantines?
2.8. Antes de la plantación, ¿Qué tipo de manejo tenía el terreno? (bosque, páramo, agricultura, ganadería, etc.)
2.9. Antes de plantar, ¿se preparó de alguna manera el terreno? (macheteo, desyerbar, abonar, herbicidas, etc.)
2.10. ¿Cuál fue el tamaño de los plantines en el momento de sembrarlos?
2.11. ¿Quién fue el responsable de realizar la plantación, y quién está a cargo ahora?
2.12. ¿Quién realizó la plantación? (mano de obra local capacitada, etc.)
2.13. Costos
 Plantines:
 De cada plantin_____
 # plantines/ha____
 costo por ha____
 # de ha ____
 costo total____
 Trabajadores:
 Pago diario por trabajador____
 #de trabajadores diarios____
 Salarios diarios____
 # de días contratados____
 Costo total por trabajadores____
 Gastos por contratación de técnicos:
 Pago por cada asistencia____
 (#)_____asistencias en ____ años
 Costo total por contratación de técnicos____
 Otros gastos:
 Inversión total:
 Existió algún tipo de subvención, o crédito
3. Manejo
3.1. ¿Existen algún tipo de regulación en cuanto al manejo?
 No___ Si___
 ¿Cuáles son las regulaciones de manejo, o las condiciones legales que se deben cumplir?
3.2. ¿Cuenta con asesoría técnica?
 No___ Si___
 ¿Quién?
 ¿Frecuencia de la asesoría?
 ¿Costos?
3.3. ¿Qué tipo de manejo ha tenido la plantación? (raleo, poda, tala, ninguno):
 ¿En qué área se hizo el manejo (en una sección o en toda la plantación)?
 ¿Cuál fue la intensidad?
 ¿Cuál fue el rendimiento?
 ¿Hubo algún ingreso?
3.4. Si ha tenido manejo, ¿con qué frecuencia se lo ha realizado?
3.5. Costo aproximado del manejo:
3.6. ¿Se han presentado algún tipo de plagas?
 No___ Si___
 ¿Cuándo?
 ¿En qué extensión?
 ¿Se aplico algún tipo de tratamiento?
 ¿Cuál fue el resultado?
 ¿Fue reembolsado este gasto, por quién, en cuánto tiempo y qué porcentaje?
3.7. ¿Han ocurrido incendios?
 No___ Si___
 ¿Cuándo?
 ¿En qué extensión?
 ¿Quién se encargó de controlarlo?
 ¿Tuvo algún costo por parte de la entidad que lo controló?
3.8. ¿Ha observado algún tipo de impacto generado por la plantación sobre la flora o fauna del lugar? ¿Si es así, se han tomado algún tipo de medidas para regular estos efectos?
4. Manejo futuro
4.1. ¿Cuál es el objetivo de manejo en su plantación?
 Producción de madera ___
 Protección del suelo (erosión) ___
 Conservación del ciclo del agua ___
 Secuestrar carbono ___
 Producción de otros productos no maderables (¿cuáles, con qué frecuencia y cuáles serían las ganancias?)
4.2. ¿Qué actividad realizará en los próximos 10 años?
 Ninguna  ___
 Poda   ___
 Raleo   ___
 Tala   ___
 No se sabe todavía ___
4.3. ¿Qué actividad realizará en los próximos 20 años?
 Ninguna  ___
 Poda   ___
 Raleo   ___
 Tala  ___
 No se sabe todavía ___
4.4. ¿Existe algún interesado en comprar la madera? (¿Quién y con qué fines, a qué precio por metro cúbico?)
4.5. ¿Existe algún tipo de convenio para conservar la plantación? (¿con qué organismo y por qué?)
4.6. Otro tipo de manejo:
5. Estudio
Para realizar este estudio posiblemente se van a requerir realizar diferentes tipos de manejo (poda, raleo, enriquecimiento con especies nativas) en determinadas parcelas de las plantaciones. La superficie de las parcelas será de 24 m × 24 m aproximadamente, se estima que para todo el estudio se requerirán 50 parcelas aproximadamente.
5.1. ¿Cuál ha sido la mayor dificultad que ha tenido con la plantación?
5.2. ¿Le parece importante que se realice este tipo de investigación?
 No___ Si___
 ¿Por qué?
5.3. ¿Estaría dispuesto a que se realice estos tipos de manejo en parcelas que se seleccionen en su propiedad?
 No___ Si___
 ¿En cuántas parcelas de la plantación se podría realizar el estudio?
 ¿Cuáles actividades sería posible hacer?
5.2. Observaciones y/o comentarios.

Appendix A.2. Interviews Applied to Local Governments, Foresters and Nature Conservationists

Fecha:
Entrevistador:
Entrevistado:
A pesar de la importancia que tienen los páramos para el desarrollo socio-económico y ambiental de la zona Austral. Desde hace varios años estos ecosistemas están siendo alterados, donde la forestación con especies exóticas como el pino han sido comúnmente usadas para diversos objetivos que van desde el secuestro de carbono hasta la conservación de agua. Sin embargo, estas prácticas no han sido evaluadas y su manejo ha sido muy deficiente. Por esta razón, esta investigación tiene como objetivo evaluar las diferentes prácticas de manejo forestal sobre la producción de madera, biodiversidad vegetal, secuestro de carbono y regulación de agua. Para ellos varias parcelas de monitoreo serán instaladas en la zona de Yanuncay al sur del Ecuador. Al final del proyecto se espera poder dar sugerencias sobre las prácticas de manejo forestal evaluadas para que se pueda realizar un manejo sostenible en las zonas de páramo.
(La información obtenida en esta entrevista servirá para investigación científica y será anónima).
  • ¿Conoce cuándo se realizaron las primeras plantaciones de plantas exóticas (pino), y cuál fue el motivo (reforestación, producción de madera, protección del suelo, etc.)?
  • ¿Cuáles fueron los criterios para seleccionar a esta especie? ¿Por qué no se tomaron en cuenta otras especies?
  • ¿Se consideraron otras especies? ¿Cuáles?
  • ¿Cuál es la procedencia de los plantines, por qué se escogió esta procedencia?
  • ¿Qué tipo de terrenos se seleccionaron para las plantaciones, hubo algún tipo de preparación del terreno antes de la plantación?
  • ¿Bajo qué marco legal se están manejando las plantaciones, qué tipo de convenios existen, quienes son los responsables, qué tipo de regulaciones existen?
  • En la actualidad, ¿cuáles serían los impactos positivos que se han generado gracias a las plantaciones? (ambientales, económicos, sociales)
  • ¿Cuáles serían los principales impactos negativos, y qué medidas se han tomado o se están tomando? (ambientales, económicos y sociales)
  • ¿Cuál es el objetivo de manejo de las plantaciones forestales (protección, producción, secuestro CO2, etc.)?
  • ¿Qué actividades se planifica realizar en los próximos años? (tipo de manejo, estudios, etc…)
  • A la institución a la cual usted representa, ¿cuáles son los aspectos que más le interesan, respecto a las plantaciones (pino)? (estudios, ventajas/desventajas, protección, producción, captura carbono, reintroducción especies nativas, etc.)
  • ¿Cuáles son las desventajas que se presentan a futuro para las plantaciones (de pino)?
  • ¿Cómo cree que las plantaciones se podrían mejorar y/o acelerar?
  • ¿Cree que las plantaciones forestales podrían mejorar la situación económica de los propietarios, industrias forestales?
  • ¿Cómo su institución podría mejorar esta situación, esta la institución activamente participando en este proceso o planea hacerlo?
  • ¿Qué áreas deberían designarse para plantaciones forestales, y cuáles no? (especificar pino)
  • ¿Apoya su institución el establecimiento de plantaciones forestales, con qué especies? (económicamente, asesoría técnica, pago por servicios ambientales, etc.)
Observaciones y/o sugerencias.

References

  1. IUCN (International Union for Conservation of Nature). High Andean Wetlands; IUCN: Gland, Switzerland, 2002. [Google Scholar]
  2. Farley, K.A.; Anderson, W.G.; Bremer, L.L.; Harden, C.P. Compensation for ecosystem services: An evaluation of efforts to achieve conservation and development in Ecuadorian páramo grasslands. Environ. Conserv. 2011, 38, 393–405. [Google Scholar] [CrossRef]
  3. Crespo, P.; Celleri, R.; Buytaert, W.; Feyen, J. Land use change impacts on the hydrology of wet Andean páramo ecocystems. In Proceedings of the Workshop on Status and Perspectives of Hydrology in Small Basins, Goslar-Hahnenklee, Germany, 30 March–2 April 2009; Volume 6. [Google Scholar] [CrossRef]
  4. Hofstede, R.; Calles, J.; López, V.; Polanco, R.; Torres, F.; Ulloa, J.; Vásquez, A.; Cerra, M. Los Páramos Andinos ¿Qué sabemos? Estado de Conocimiento Sobre el Impacto del Cambio Climático en el Ecosistema Páramo; UICN: Quito, Ecuador, 2014; ISBN 978-9978-9932-9-3. [Google Scholar]
  5. Farley, K.A.; Bremer, L.L. “Water Is Life”: Local Perceptions of Páramo Grasslands and Land Management Strategies Associated with Payment for Ecosystem Services. Ann. Am. Assoc. Geogr. 2017, 107, 371–381. [Google Scholar] [CrossRef]
  6. Farley, K.A. Grasslands to tree plantations: Forest transition in the Andes of Ecuador. Ann. Assoc. Am. Geogr. 2007, 97, 755–771. [Google Scholar] [CrossRef]
  7. Farley, K.A. Pathways to forest transition: Local case studies from the Ecuadorian Andes. J. Lat. Am. Geogr. 2010, 9, 7–26. [Google Scholar] [CrossRef]
  8. Gade, D.W. Nature and Culture in the Andes; University of Wisconsin Press: Madison, WI, USA, 1999; ISBN 0299161242. [Google Scholar]
  9. Hofstede, R.; Groenendijk, J.; Coppus, R.; Fehse, J.; Sevink, J. Impact of Pine Plantations on Soils and Vegetation in the Ecuadorian High Andes. Mt. Res. Dev. 2002, 22, 159–167. [Google Scholar] [CrossRef]
  10. Farley, K.A.; Kelly, E.F.; Hofstede, R.G.M. Soil Organic Carbon and Water Retention after Conversion of Grasslands to Pine Plantations in the Ecuadorian Andes. Ecosystems 2004, 7, 729–739. [Google Scholar] [CrossRef]
  11. Farley, K.A.; Jobbagy, E.G.; Jackson, R.B.; Jobbágy, E.G.; Jackson, R.B. Effects of afforestation on water yield: A global synthesis with implications for policy. Glob. Chang. Biol. 2005, 11, 1565–1576. [Google Scholar] [CrossRef]
  12. Buytaert, W.; Iñiguez, V.; De Bièvre, B. The effects of afforestation and cultivation on water yield in the Andean páramo. For. Ecol. Manage. 2007, 251, 22–30. [Google Scholar] [CrossRef] [Green Version]
  13. Ochoa-Tocachi, B.F.; Buytaert, W.; De Bièvre, B.; Célleri, R.; Crespo, P.; Villacís, M.; Llerena, C.A.; Acosta, L.; Villazón, M.; Guallpa, M.; et al. Impacts of land use on the hydrological response of tropical Andean catchments. Hydrol. Process. 2016. [Google Scholar] [CrossRef]
  14. Merchán, N. Pinos destructores. El Mercurio. 17 November 2013. Available online: http://www.elmercurio.com.ec/405974-pinos-destructores/#.VW2mTaamTu1 (accessed on 28 November 2017).
  15. Granda, P. Monoculture Tree Plantations in Ecuador; World Rainforest Movement: Montevideo, Uruguay, 2006. [Google Scholar]
  16. Ramos, I.; Bonilla, N. Women, Communities and Plantations in Ecuador; Hersilia, F., Ed.; World Rainforest Movement: Montevideo, Uruguay, 2008; ISBN 978-9974-8030-6-0. [Google Scholar]
  17. Urgenson, L.S.; Prozesky, H.E. Stakeholder Perceptions of an Ecosystem Services Approach to ClearingInvasive Alien Plants on Private Land. Ecol. Soc. 2013, 18. [Google Scholar] [CrossRef]
  18. Gonzales, C.; Galindo, G.; Robles, M.; Rosero, E.; Sarango, O.; Velasco, C. Gobernanza Forestal en el Ecuador; The International Tropical Timber Organization (ITTO): Yokohama, Japan, 2011. [Google Scholar]
  19. Luteyn, J.L.; Churchill, S.P.; Griffin, D., III; Gradstein, S.R.; Sipman, H.J.M.; Gavilanes, A. Páramos: A Checklist of Plant Diversity, Geographical Distribution, and Botanical Literature; New York Botanical Garden: The Bronx, NY, USA, 1999; ISBN 0893274275. [Google Scholar]
  20. Mena-Vásconez, P.; Hofstede, R.; Vásconez, P.M.; Hofstede, R. Los páramos ecuatorianos. In Botánica Económica de los Andes Centrales; Mónica, M., Øllgaard, B., Kvist, L.P., Borchsenius, F., Balslev, H., Eds.; Universidad Mayor de San Andrés: La Paz, Bolivia, 2006; pp. 91–109. [Google Scholar]
  21. Hofstede, R.; Coppus, R.; Mena-Vásconez, P.; Segarra, P.; Wolf, J. The conservation status of tussock grass páramo in Ecuador. Ecotropicos 2002, 15, 3–18. [Google Scholar]
  22. Killeen, T.J.; Douglas, M.; Consiglio, T.; Jørgensen, P.M.; Mejia, J. Dry spots and wet spots in the Andean hotspot. J. Biogeogr. 2007, 34, 1357–1373. [Google Scholar] [CrossRef]
  23. Padrón, R.S.; Wilcox, B.P.; Crespo, P.; Célleri, R.; Padrón, R.S.; Wilcox, B.P.; Crespo, P.; Célleri, R. Rainfall in the Andean Páramo: New Insights from High-Resolution Monitoring in Southern Ecuador. J. Hydrometeorol. 2015, 16, 985–996. [Google Scholar] [CrossRef]
  24. Quichimbo, P.; Tenorio, G.; Borja, P.; Cardenas, I.; Crespo, P.; Celleri, R.; Cárdenas, I.; Crespo, P.; Célleri, R. Efectos sobre las propiedades físicas y químicas de los suelos por el cambio de la cobertura vegetal y uso del suelo: Páramo de Quimsacocha al sur del Ecuador. Suelos Ecuatoriales 2012, 42, 138–153. [Google Scholar]
  25. Dahlgren, R.; Shoji, S.; Nanzyo, M. Chapter 5 Mineralogical Characteristics of Volcanic Ash Soils. Dev. Soil Sci. 1993, 21, 101–143. [Google Scholar] [CrossRef]
  26. Hofstede, R.; Mondragon, M.; Rocha, C. Biomass of grazed, burned, and undisturbed páramo grasslands, Colombia. I. Aboveground vegetation. Art. Alp. Res. 1995, 27, 1–12. [Google Scholar] [CrossRef]
  27. Greiber, T.; Schiele, S. Governance of Ecosystem Services LECTURE. 2017; 140. [Google Scholar]
  28. Jokisch, B.D. Migration and Agricultural Change: The Case of Smallholder Agriculture in Highland Ecuador. Hum. Ecol. 2002, 30, 523–550. [Google Scholar] [CrossRef]
  29. Wunder, S.; Albán, M. Decentralized payments for environmental services: The cases of Pimampiro and PROFAFOR in Ecuador. Ecol. Econ. 2008, 65, 685–698. [Google Scholar] [CrossRef]
  30. Jara, L. PROFAFOR del Ecuador, S.A., Quito, Ecuador. Personal communication, 2017. [Google Scholar]
  31. INEC (InstitutoNacional de Estadística y Censos). VII Censo de Población y V de Vivienda; Resultados Definitivos Provinciales del Azuay y Cañar; INEC: Quito, Ecuador, 2010. [Google Scholar]
  32. Hidropaute, S. Paute Integral. Available online: https://www.celec.gob.ec/hidropaute/perfil-corporativo/paute-integral.html (accessed on 26 February 2018).
  33. Grimble, R.; Chan, M.-K. Stakeholder analysis for natural resource management in developing countries. Nat. Resour. Forum 1995, 19, 113–124. [Google Scholar] [CrossRef]
  34. Russell, B.H. Research Methods in Anthropology, 4th ed.; Rowman Altamira: Lanham, MD, USA, 2006; ISBN 978-0-7591-0868-4. [Google Scholar]
  35. Payne, G.; Payne, J. Key Concepts in Social Research; SAGE Publications, Ltd.: London, UK, 2004; ISBN 9780761965428. [Google Scholar]
  36. Pushpam, K. (Ed.) TEEB The Economics of Ecosystems and Biodiversity Ecological and Economic Foundations; Earthscan: London, UK; Washington, DC, USA, 2010. [Google Scholar]
  37. MAGAP. Programa de Incentivos para la Reforestación con Fines Comerciales; Ministerio de Agricultura, Ganadería, Acuacultura y Pesca: Guayaquil, Ecuador, 2016.
  38. Chacón, G.; Gagnon, D.; Paré, D. Comparison of soil properties of native forests, Pinus patula plantations and adjacent pastures in the Andean highlands of southern Ecuador: Land use history or recent vegetation effects? Soil Use Manag. 2009, 25, 427–433. [Google Scholar] [CrossRef]
  39. Morris, A. Forestry and Land-Use Conflicts in Cuenca, Ecuador. Mt. Res. Dev. 1985, 5, 183. [Google Scholar] [CrossRef]
  40. Medina, G.; Josse, C.; Mena, P. La Forestación en los Páramos; Editorial Abya Yala: Quito, Ecuador, 2000; ISBN 9978046321. [Google Scholar]
  41. Aglomerados Cotopaxi, S.A. Aglomerados Cotopaxi Historia. Available online: http://cotopaxi.com.ec/sites/default/files/2017-08/historia.pdf (accessed on 11 May 2018).
  42. Aglomerados Cotopaxi, S.A. Plan de Manejo Forestal. Available online: http://cotopaxi.com.ec/sites/default/files/2018-01/plan de manejo forestal.pdf (accessed on 13 May 2018).
  43. Potocnik, I. The Multiple Use of Forest Roads and Their Classification. Available online: http://www.fao.org/docrep/X0622E/x0622e0a.htm (accessed on 11 May 2018).
  44. Bosch, J.M.; Hewlett, J.D. A review of catchment experiments to determine the effect of vegetation changes on water yield and evapotranspiration. J. Hydrol. 1982, 55, 3–23. [Google Scholar] [CrossRef]
  45. Ilstedt, U.; Malmer, A.; Verbeeten, E.; Murdiyarso, D. The effect of afforestation on water infiltration in the tropics: A systematic review and meta-analysis. For. Ecol. Manag. 2007, 251, 45–51. [Google Scholar] [CrossRef]
  46. Bauhus, J.; van der Meer, P.; Kanninen, M. (Eds.) Ecosystem Goods and Services from Plantation Forests; Earthscan: London, UK, 2010; ISBN 9781849711685. [Google Scholar]
  47. Murtinho, F.; Tague, C.; de Bievre, B.; Eakin, H.; Lopez-Carr, D. Water Scarcity in the Andes: A Comparison of Local Perceptions and Observed Climate, Land Use and Socioeconomic Changes. Hum. Ecol. 2013, 41, 667–681. [Google Scholar] [CrossRef]
  48. (INAMHI) Instituto Nacional de Meteorología e Hidrología Anuario Meteorológico. Available online: http://www.serviciometeorologico.gob.ec/biblioteca/ (accessed on 13 May 2018).
  49. Gucinski, H.; Vance, E.; Reiners, W.A. Potential Effects of Global Climate Change. In Ecophysiology of Coniferous Forests; Elsevier: Amsterdam, The Netherlands, 1995; pp. 309–331. [Google Scholar]
  50. Paul, K.I.; Polglase, P.J.; Nyakuengama, J.G.; Khanna, P.K. Change in soil carbon following afforestation. For. Ecol. Manag. 2002, 168, 241–257. [Google Scholar] [CrossRef]
  51. Berthrong, S.T.; Jobbágy, E.G.; Jackson, R.B. A global meta-analysis of soil exchangeable cations, pH, carbon, and nitrogen with afforestation. Ecol. Appl. 2009, 19, 2228–2241. [Google Scholar] [CrossRef] [PubMed]
  52. Farley, K.A.; Kelly, E.F. Effects of afforestation of a páramo grassland on soil nutrient status. For. Ecol. Manag. 2004, 195, 281–290. [Google Scholar] [CrossRef]
  53. Farley, K.A.; Bremer, L.L.; Harden, C.P.; Hartsig, J. Changes in carbon storage under alternative land uses in biodiverse Andean grasslands: Implications for payment for ecosystem services. Conserv. Lett. 2013, 6, 21–27. [Google Scholar] [CrossRef]
  54. Bremer, L.L.; Farley, K.A.; Chadwick, O.A.; Harden, C.P. Changes in carbon storage with land management promoted by payment for ecosystem services. Environ. Conserv. 2016, 43, 397–406. [Google Scholar] [CrossRef]
  55. Buytaert, W.; Deckers, J.; Wyseure, G. Regional variability of volcanic ash soils in south Ecuador: The relation with parent material, climate and land use. CATENA 2007, 70, 143–154. [Google Scholar] [CrossRef]
  56. Smith, P.; House, J.I.; Bustamante, M.; Sobocká, J.; Harper, R.; Pan, G.; West, P.C.; Clark, J.M.; Adhya, T.; Rumpel, C.; et al. Global change pressures on soils from land use and management. Glob. Chang. Biol. 2016, 22, 1008–1028. [Google Scholar] [CrossRef] [PubMed] [Green Version]
  57. Robles, J.; Vasconez, S.; Jara, L. Beneficios e Impactos Socioeconómicos del Programa de Forestación de PROFAFOR en Tres Comunidades Indígenas; PROFAFOR Latinoamérica: Quito, Ecuador; Ministerio de Agricultura, Ganadería, Acuacultura y Pesca: Guayaquil, Ecuador, 2015.
  58. Hofstede, R. Aspectos técnicos ambientales de la forestación en los Páramos. In La Forestación en los Páramos. Serie Páramo, N°6; Abya Yala, Ed.; GTP: Quito, Ecuador, 2000; ISBN 9978-04-632-1. [Google Scholar]
  59. Harden, C.P.; Hartsig, J.; Farley, K.A.; Lee, J.; Bremer, L.L. Effects of Land-Use Change on Water in Andean Páramo Grassland Soils. Ann. Assoc. Am. Geogr. 2013, 103, 375–384. [Google Scholar] [CrossRef]
  60. Hofstede, R. The Effects of Grazing and Burning on Soil and Plant Nutrient Concentrations in Colombian Paramo Grasslands. Plant Soil 1995, 173, 111–132. [Google Scholar] [CrossRef]
  61. Ohep, N.; Herrera, L. Impacto de las Plantaciones de Coníferas Sobre la Vegetación Originaria del Páramo de Mucubají; Universidad de Los Andes: Bogotá, CA, USA, 1985. [Google Scholar]
  62. Van Wesenbeeck, B.K.; van Mourik, T.; Duivenvoorden, J.F.; Cleef, A.M. Strong effects of a plantation with Pinus patula on Andean subpáramo vegetation: A case study from Colombia. Biol. Conserv. 2003, 114, 207–218. [Google Scholar] [CrossRef]
  63. Valladares, F.; Aranda, I.; Sánchez-Gomez, D. Ecología del Bosque Mediterráneo en un Mundo Cambiante; Ministerio de Medio Ambiente: Madrid, Spain, 2004.
  64. Molina, M. Conocimiento de la biología del venado de páramo (Mammalia, Cervidae, Odocoileus) por los campesinos de Los Andes de Mérida, Venezuela. Bol. Antropol. 2004, 22, 269–285. [Google Scholar]
  65. Hein, L.; van Koppen, K.; de Groot, R.S.; van Ierland, E.C. Spatial scales, stakeholders and the valuation of ecosystem services. Ecol. Econ. 2006, 57, 209–228. [Google Scholar] [CrossRef]
  66. Hunter, P. The Communications Gap between Scientists and Public: More Scientists and Their Institutions Feel a Need to Communicate the Results and Nature of Research with the Public; European Molecular Biology Organization: Heidelberg, Germany, 2016; Volume 17. [Google Scholar]
  67. Mathé, S.; Rey-Valette, H. Local Knowledge of Pond Fish-Farming Ecosystem Services: Management Implications of Stakeholders’ Perceptions in Three Different Contexts (Brazil, France and Indonesia). Sustainability 2015, 7, 7644–7666. [Google Scholar] [CrossRef]
  68. Calder, I.R. Forests and Hydrological Services: Reconciling public and science perceptions. Land Use Water Resour. Res. 2002, 2, 1–12. [Google Scholar] [CrossRef]
  69. Balvanera, P.; Uriarte, M.; Almeida-Leñero, L.; Altesor, A.; DeClerck, F.; Gardner, T.; Hall, J.; Lara, A.; Laterra, P.; Peña-Claros, M.; et al. Ecosystem services research in Latin America: The state of the art. Ecosyst. Serv. 2012, 2, 56–70. [Google Scholar] [CrossRef]
Figure 1. Map of Ecuador indicating the extent of the páramo ecosystem and the location of pine plantations corresponding to the group of landowners.
Figure 1. Map of Ecuador indicating the extent of the páramo ecosystem and the location of pine plantations corresponding to the group of landowners.
Sustainability 10 01707 g001
Figure 2. Stakeholder motivations (landowners) and perceptions (local governments, foresters, and nature conservationists) for the establishment of pine plantations in the highlands of Ecuador (multiple answers possible).
Figure 2. Stakeholder motivations (landowners) and perceptions (local governments, foresters, and nature conservationists) for the establishment of pine plantations in the highlands of Ecuador (multiple answers possible).
Sustainability 10 01707 g002
Figure 3. Stakeholder observations (landowners) and perceptions (local governments, foresters, and nature conservationists) about the prior condition of the land before the establishment of pine plantations in the highlands of Ecuador.
Figure 3. Stakeholder observations (landowners) and perceptions (local governments, foresters, and nature conservationists) about the prior condition of the land before the establishment of pine plantations in the highlands of Ecuador.
Sustainability 10 01707 g003
Figure 4. Stakeholder perceptions of the impact of pine plantations on provisioning wood.
Figure 4. Stakeholder perceptions of the impact of pine plantations on provisioning wood.
Sustainability 10 01707 g004
Figure 5. Stakeholder perceptions of the impact of pine plantations on regulating water.
Figure 5. Stakeholder perceptions of the impact of pine plantations on regulating water.
Sustainability 10 01707 g005
Figure 6. Stakeholder perceptions of the impact of pine plantations on regulating carbon sequestration and storage.
Figure 6. Stakeholder perceptions of the impact of pine plantations on regulating carbon sequestration and storage.
Sustainability 10 01707 g006
Figure 7. Stakeholder perceptions of the impact of pine plantations on regulating erosion and maintenance of soil fertility.
Figure 7. Stakeholder perceptions of the impact of pine plantations on regulating erosion and maintenance of soil fertility.
Sustainability 10 01707 g007
Figure 8. Stakeholder perceptions of the impact of pine plantations on supporting habitat. (a) Perceptions related to wildlife refuge, and (b) perceptions related to native vegetation.
Figure 8. Stakeholder perceptions of the impact of pine plantations on supporting habitat. (a) Perceptions related to wildlife refuge, and (b) perceptions related to native vegetation.
Sustainability 10 01707 g008
Table 1. Stakeholders classification in relation to pine plantations in the páramo ecosystem of Ecuador.
Table 1. Stakeholders classification in relation to pine plantations in the páramo ecosystem of Ecuador.
Stakeholder ClassificationStakeholderInstitutional LevelEnvironmental Interest
LandownersPine plantation ownersLocal on-siteTimber production, conservation
Local governmentsLocal authoritiesLocalBiodiversity conservation, timber production, and conflict avoidance
ForestersCompaniesLocal, regional, nationalClimate change mitigation, sustainable forestry, advice on the creation and implementation of sustainable forest management policies
Forest departmentsLocal, regional, nationalPlantation productivity, sustainable management of commercial plantations
UniversitiesLocal, regional, nationalResearch, sustainable management of plantations
Wood industryRegional, nationalPlantation productivity
Nature conservationistsConsortiumRegional, national, internationalApplied research, information exchange and policy development
CorporationRegional, national, internationalResearch, training, and technical support of the sustainable management of the páramo
Environmental departmentsLocal, nationalForestry regulation on protected areas
NGOsRegional, national, internationalPreservation and restauration of ecosystems in the highlands
Private mercantile trustLocal, regionalResearch, monitoring, forest restoration, and planting in the highlands
UniversitiesRegional, nationalResearch, sustainable management of the páramo
Table 2. Summary of categories, subcategories, and brief description of the ESs mentioned by the interviewees. The table includes the percentage of respondents that mentioned each ES in the context of the research. Adapted from [36] and interviews with stakeholders.
Table 2. Summary of categories, subcategories, and brief description of the ESs mentioned by the interviewees. The table includes the percentage of respondents that mentioned each ES in the context of the research. Adapted from [36] and interviews with stakeholders.
CategorySubcategoryBrief DescriptionRespondents (%)
ProvisioningRaw materiales (wood)Ecosystems provide a great diversity of materials including wood.91
FreshwaterEcosystems regulate the flow and purification of water. Vegetation and forests influence the quantity of water available locally.2
RegulatingCarbon sequestration and storageEcosystems regulate the global climate by storing and sequestering greenhouse gases. Forest ecosystems are carbon stores.27
Water flowsEcosystems and living organisms create buffers against natural disasters, thereby preventing possible damage. For example, wetlands can soak up flood water. Regulation of natural drainage, irrigation and drought prevention.45
Erosion prevention and maintenance of soil fertilitySoil erosion is a key factor in the process of land degradation and desertification. Vegetation cover prevents soil erosion. Soil fertility is essential for plant growth.57
SupportingHabitat for species (refugium)Habitats provide everything that an individual plant or animal needs to survive: food, water, and shelter. Each ecosystem provides different habitats that can be essential for a species’ lifecycle.70
CulturalEcotourismEcosystems and biodiversity play an important role for many kinds of tourism, which in turn provides considerable economic benefits. Cultural and eco-tourism can also educate people about the importance of biological diversity.4

Share and Cite

MDPI and ACS Style

Quiroz Dahik, C.; Crespo, P.; Stimm, B.; Murtinho, F.; Weber, M.; Hildebrandt, P. Contrasting Stakeholders’ Perceptions of Pine Plantations in the Páramo Ecosystem of Ecuador. Sustainability 2018, 10, 1707. https://doi.org/10.3390/su10061707

AMA Style

Quiroz Dahik C, Crespo P, Stimm B, Murtinho F, Weber M, Hildebrandt P. Contrasting Stakeholders’ Perceptions of Pine Plantations in the Páramo Ecosystem of Ecuador. Sustainability. 2018; 10(6):1707. https://doi.org/10.3390/su10061707

Chicago/Turabian Style

Quiroz Dahik, Carlos, Patricio Crespo, Bernd Stimm, Felipe Murtinho, Michael Weber, and Patrick Hildebrandt. 2018. "Contrasting Stakeholders’ Perceptions of Pine Plantations in the Páramo Ecosystem of Ecuador" Sustainability 10, no. 6: 1707. https://doi.org/10.3390/su10061707

Note that from the first issue of 2016, this journal uses article numbers instead of page numbers. See further details here.

Article Metrics

Back to TopTop