- Open Access
Managing planted forests for multiple uses under a changing environment in China
© Liu et al.; licensee Springer. 2014
- Published: 26 November 2014
Planted forests are expanding throughout the world, and now account for 7% of global forest cover and provide more than 60% of global industrial round wood. Negative ecological and social impacts of the establishment of planted forests and the challenges of their multi-purpose management have also given rise to concern. China has been playing an important role in global expansion of planted forests while reducing emission from deforestation and forest degradation.
This article attempts to conduct an overall analysis and review of the current status, challenges and future perspectives of planted forests in China to obtain a better understanding on how to manage planted forests for multiple uses under a changing environment. Data from several national forest inventories and other sources, as well as new empirical data, were used for a statistical analysis on the dynamics of planted forests in China.
Planted forests in China have undergone a continuous expansion in the past 20 years, which has significantly contributed to an increase in total forest cover and timber supply as well as other ecosystem services like carbon sequestration. The three key driving forces for this expansion were government programmes, and market and technology development. However, the predominance of very few tree species in the plantations, uneven spatial distribution, skewed age-class distribution, and low volumes in growing stock, coupled with increasing complexity of multiple purpose forestry management under a changing environment, have generated several major challenges confronting planted forests in China.
A strategic transition in the management of Chinese planted forests is needed, with a shifting emphasis from area expansion to stand productivity and quality enhancement, from traditional timber production to multi-purpose management for forest goods and services, and from monoculture plantations to biodiversity rich mixed forests. A landscape-design approach and adaptive management practices should be put in place to meet the diversified demands of stakeholders for different goods and ecosystem services while enhancing forest resilience under the changing climate.
- planted forests
- multiple uses
- ecosystem services
- carbon sequestration
- timber production
- water conservation
- climate change adaptation
- landscape management
Planted forests are composed of trees established through planting and/or through deliberate seeding of native or introduced species for productive and protective purposes. Such forests have been expanding rapidly in all regions of the world reaching 264 million ha in 2010 (FAO, 2010), of which nearly 48% was established within the past 20 years. These planted forests are mainly distributed in Asia, accounting for 46% of the total world planted forest area, followed by 26% in Europe and 14% in North America. China alone accounts for 23% of the total planted forest area in the world, with a rapid expansion rate of 1.76 million ha annually, contributing significantly to the offsetting of annual net global loss of 6.77 million ha in the past 20-year period (FAO, 2010). Besides the expansion of the planted forests, the natural forests in China have been also increasing with a net gain of 9.57 million ha since 1998 when China launched the Natural Forest Protection Program (State Forestry Administration (referred as SFA below), 2014).
Although planted forests represent only 7% of the global forested area, their contribution to the global industrial round wood production exceeds 60% (Carle and Holmgren, 2008). It is expected that the expansion of planted forests will continue or even accelerate in many parts of the world in order to meet the increasingly diversified demands on forest goods and services from the society. Given the current expansion trend, a further rise in the area of planted forests up to 300 million hectares by 2020 can be anticipated (FAO, 2010). Planted forests are therefore expected to increasingly contribute to the world's supply of wood, fibre, fuel and non-timber forest products (NTFPs), as well as provide environmental and social services. In particular, the central role of planted forests in mitigating climate changes, conserving biodiversity, combating land degradation and developing green economy has been increasingly recognised in the evolving international processes and financing mechanisms (Winjum and Schroeder, 1997; Paul et al, 2012). At the same time, negative ecological and social impacts of planted forests and the challenges confronting planted forests have also given rise to serious concern across the globe (Winjum and Schroeder, 1997; Booth, 2013; Ferraz et al, 2012).
Due to its important role in global expansion of planted forests, China's experience provides a deep insight into the mechanisms underlying the successful development of planted forests. The impacts of planted-forest development on timber markets and the environment are of significance to policy-makers, planners and forest managers. A number of studies carried out in the world predict the future contribution of planted forests to economic, environmental and social services. However, there have been no comprehensive analyses on the development of planted forests in China so far, even though global assessments of planted forest resources and outlook studies for wood from planted forests, best practice guidelines and many interesting cases of country applications from around the world have been documented (FAO, 2006a, 2006b; Kröger, 2012; Carle and Holmgren, 2008; Cossalter and Barr, 2005; FAO, 2010). This paper presents an overview on the current status and driving forces of planted forest development in China, and describes the major challenges and future perspectives of China's planted forests. The authors' aim is that this article will provide useful information and experiences for other developing countries, and assist with understanding the overall situation of the planted forest resource in China and its future development strategies under climate change.
The method applied in this paper is basically analysis of the available data and other information. The data used are publicly available except where specifically stated. Most of data used for the analysis originate from the Food and Agriculture Organization (FAO) statistics, the national forest inventories and the forestry statistics by the Chinese Government referenced herein. The FAO statistics, mainly the Global Forest Resources Assessment 2010, provide a good database for global and regional analysis. Forest resources inventories have been conducted periodically in China for about 40 years. The data from eight times national forest inventories have been used to explore the dynamics of planted forests in China using information on tree species, age structure and spatial distribution and so on. The data on planting area, investments and so on have been derived from the Chinese Forestry Statistical Yearbook published annually by the Government. In order to explore the forces driving establishment of new forests at local level, an economic investigation was conducted in 2011 for a comparative cost-benefit analysis through interviews with 50 farmers from the Banqiao village and the Guantang village in the city of Qinzhou in the Guangxi region of China where Eucalyptus spp. plantations have been greatly expanded in the last decade.
Historically, China was rich in forest resources and biodiversity due to its vast geographical areas and highly diversified climate conditions that provided favourable environments for widely varying forest ecosystems ranging from boreal forests in the north to tropical rain forests in the south. Most forests were public assets and strong centralised governance ensured their strict protection against unauthorised occupation and illegal logging except during the declining period of Qing dynasty in the latter part of nineteenth century and the first half of the twentieth century. Post revolution, China's forestry development has experienced an oscillating process, as in most places across the world (Lane and McDonald, 2002), characterised by three distinct phases of: (i) over-logging and deforestation resulting in reduction in the extent and quality of forest cover, (ii) massive reforestation and afforestation across the country with a few species for increased production of timber and other forest products, and (iii) shifting focus of management from production-centred forestry towards higher emphasis on ecological rehabilitation, environmental amelioration and provision of ecosystem services (S. Liu et al., 2011).
Types of planted forests
China's Forest Law (1998) classifies the five major types of forests based on their management objectives, namely: (i) timber forest, with the main purpose of producing timber, including bamboo forests which are utilised for bamboo wood; (ii) economic forest, with the main management emphasis on forest products other than timber, such as fruit, nuts, herbs, bark, leaves, tree sap, flower buds and tender sprouts, and raw materials for forestry chemical industries etc. (In China's forest inventory system, economic forest is measured only in terms of area, but not stocking volume.); (iii) fuel-wood forest, with the main purpose of producing fuel wood; (iv) protection forest, with the main emphasis on protection and provision of services; and (v) special use forest, with the purpose of special use such as national defence, environmental conservation, scientific experiments etc.
Composition of types of planted forests in China
1000 m 3
Dominant tree species in planted forests
According to the characteristics of trees in terms of height and trunk, the planted forests are classified as high forests, economic forests and bamboo forests in China's forest inventory (Xiao, 2005). High forest is the one that originates from seed or from planted seedlings, with standalone trunks and height over six metres. Economic forest as one of the five major types of forests is separated from the high forest when describing the dominant tree species. Bamboo forest refers to the forest land spanning more than 0.067 ha (one Chinese moo) and growing bamboo species with a diameter at breast height of over 2 cm. The latest national forest inventory shows that the planted forests consist of 47 million ha of high forests, 19.8 million ha of economic forests and 2.4 million ha of bamboo forests.
Composition of dominant tree species (group) in Chinese planted high forests
Dominant tree species
1000 m 3
Pinus tabulaeformis Carr.
Pinus elliottii Engelm.
Robinia pseudoacacia L.
Age classes of planted forests
Age structure of planted high forests
1000 m 3
Close to mature
Spatial distribution of planted forests
Spatial distribution of planted forests in China
Region and province
1000 m 3
South and southwest region
North and East Plain region
Ecosystem goods and services from planted forests
Planted forests, like natural forests and many other types of vegetation, provide ecosystem goods and services that significantly contribute to human well-being. Currently, the annual harvest from planted forests reaches 155 million cubic metres, accounting for 46% of the total wood production (SFA, 2014). Being one of the leading timber consumers in the world, China's wood demand has been rapidly growing with the increasing national economy and population. The increasing gap between China's timber supply and demand has to be mostly fulfilled from its own planted forests although some timber is imported from planted forests in countries such as New Zealand.
Besides timber products, planted forests also contribute to economic development and livelihood by providing NTFPs. Of the total economic forests of the country, 96% is planted forests, producing 133.8 million tons of NTFPs in 2011 (of which, 114.7 million tons of fruits, 9.3 million tons of dry fruits/nuts, 1.4 million tons of tea, 1.6 million tons of woody oil and etc), accounting for 23% of the total output value of forestry industry (SFA, 2011b).
At the same time, planted forests play a key role in ecological improvement by enhancing environmental services of biodiversity conservation, carbon sequestration and hydrological regulation greatly contributing to the China's strategic goals of ecological restoration, ecological security and ecological civilisation (SFA, 2009). The monetary value of the major forest ecosystem services such as water conservation, soil conservation, carbon sequestration and oxygen release, nutrient accumulation, atmosphere environment purification, and biodiversity conservation, was estimated to be about 10.01 trillion CNY/year (approximately 1.48 trillion US$/year) and is equivalent to one third of China's annual gross domestic product (GDP) (Niu et al, 2012). Of these, carbon (C) sequestration by planted forest is the most important service with about 0.3 Pg C having been sequestrated by planted forests in China since the mid-1970s. The rapidly increasing C stock (and C density) in China's planted forests has been a major contribution to the increase in the global forest C sink over the period (Fang et al., 2001; Piao et al., 2009; Pan et al., 2011). Since most of these planted forests are still very young and have not always benefited from the greatly increased public investment in forest technology and management in China, it is reasonable to assume that the full potential of planted forests in China to accumulate additional biomass in living trees and in forest soils has not yet been achieved (Fang et al., 2007).
(a) Government-initiated programmes
This is by far the most important driving force for stimulating the rapid and massive expansion of planted forests in China. Government initiated programmes either offer adequate financial supports or create an enabling environment for private investment in tree planting through attractive incentives. The implementation of the six key national forestry programmes in the past three decades, including the Key Shelterbelt Development Programs (SDP), the Natural Forest Protection Program (NFPP), the Conversion of Cropland to Forest Program (CCPF), the Sandification Control Program for Areas in the Vicinity of Beijing and Tianjin (SCP), the Wildlife Conservation and Nature Reserves Development Program, and the Forest Industrial Base Development Program (FIBDP), generated a great momentum for developing planted forests (S. Liu et al., 2011). Data for the period 1990 to 2012 showed that these six key forestry programmes have funded afforestation area of 78.2 million ha, contributing 62% of the total planted area (SFA, 2013a).
Over the last decade deep changes encompassing social, economic, ecological and political aspects have occurred in China generating an enabling environment for forest resource management at local, county, provincial and national levels. Among these perhaps the most important and far-reaching is forest tenure reform through which the management control right over 180 million ha of collective forestlands has already been passed into the hands of the individual households (SFA, 2013b). The Government hopes that this step will prove to be a great incentive and impetus to forest owners to further expand fast-growing and high-yielding planted forests for maximising economic benefit for themselves and, in the process, bring a wide range of ecological and social benefits to the larger society around them. While it is still too early to make informed judgments about the ecological outcome of one of the greatest steps ever undertaken in the ecological history of mankind, the interim indications are positive in nature, especially in south and southwest China where more favourable climatic conditions for tree growing occur. In addition to these land reforms, private investment in the forestry sector has also been increasing in all regions of China from 22% of the total forestry investment in 2004 when the reforms initiates at pilot scale to 63% of that in 2012 (SFA, 2013a), with private owners now managing more than 60% of the total planted forest area (SFA, 2014).
(b) Market growth
A comparative cost-benefit analysis of annual crops (wheat and soybean) and Eucalyptus spp.
a) Cost-benefit analysis of growing a wheat and soybean as an annual crop (Unit: CNY/ha)
Two crops in a year: wheat + soybean
yield per ha (kg)
Net profit per year per ha
Net profit over 5 years
b) Cost-benefit analysis of growing Eucalyptus spp. (Unit: C NY/ha)
Costs of planting and management
Seedlings(0.5 CNY/plant×1500 plant/ha, including 150 plants for replanting)
Planting(0.6 CNY/hole×1500 holes/ha)
fertilisers (3.5 CNY/plant×1500 plants/ha)
tending/fertilising(525 CNY/ha×4 times)
Costs of harvesting
harvesting and transportation(50 CNY/m3 ×150 m3/ha)
Taxes and dues
Total cost (over 5 years)
Yield per ha in 5 years (m3)
Total benefit (over 5 years)
Total over 5 years
(c) Technology development
Wider application of new technology is helping to improve the quantity and quality of trees, including improvement of growth rates, disease and pest resistance, tree form and wood-fibre quality, and ease of processing. It is also helping to expand the use of resources previously considered uneconomic (lesser known species, small piece sizes) and non-forest fibre resources such as wood residues and recycled materials (Wijewardana, 2005). Tissue culture and clonal reproduction are widely used in China as the most effective ways of providing a large quantity of high-quality seedlings for developing massive planted forests in relatively short periods (Lan and Gu, 2002). Increased yields can offer major economic advantages to planted forests based on biotechnology (Sedjo, 2004). Depending on the relative final returns of growing trees or wood processing, growing large trees over long rotations may be replaced with short-rotation management of small trees for production of fibre and biomass. Market competitiveness will be significantly influenced by the application of either traditional genetic and silvicultural-improvement practices, and wood processing techniques in planted forest development, or some new technical innovations beyond traditional forestry areas, such as new composite materials and bio-energy.
Like many other countries in the world, planted forests in China have been exposed to huge challenges in terms of ecological sustainability and environmental changes. In particular, climate change has been regarded as a main disturbance driving force for the past several decades and future years to come.
Coping with uncertainties of climate change
Warming temperatures, changing precipitation patterns and extreme meteorological events are among possible threats to planted forests in China. Changes in temperature and precipitation regimes have the potential to gradually affect forests in terms of forest structure, spatial distribution, growth and productivity. Some effects from rising temperature and increasing precipitation, particularly in the colder north, may be positive for forest growth and productivity, while others (e.g. increased fire occurrence and pest and disease outbreaks) may be negative (S. Liu et al., 2011). In addition, changing climate can affect hydrological processes and water yields of forested watersheds, as well as the downstream water availability for both people and wetland ecosystems (Minshal, 1988; Poff and Ward, 1989; Poff, 1996; Sun et al., 2008). Climate extremes can be highly detrimental to forest ecosystems. For instance, the icy-rain and snowfall that occurred during the early spring of 2008 caused severe forest losses and destroyed nearly 13% of China's total forested area (Shao et al., 2011), which resulted in habitat loss and starvation of many kinds of wildlife besides potential, cumulative, and long-term effects on natural ecosystems. The recent sustained drought in Southwest China affected more than 80% of the vegetation in three provinces of Yunnan, Guangxi and Guizhou (Wang et al., 2010). If, as anticipated, the growing concern with global warming spurs further expansion in planted forests in an effort to sequester atmospheric carbon, questions about their social and ecological effects would become more pressing. The adaptive management of planted forests needs to consider the uncertainties of climatic change and its effects on forests and environments in order to enhance the positive effects while reducing the negative effects.
Preventing forest pest, disease and fire damage
The methods of establishing (by clear felling of natural forest before planting) and managing (using slash and burn) fast-growing monoculture plantations, predominantly of Masson pine, Chinese fir and Eucalyptus robusta in southern China and poplar species and larch in northern China, have caused a decline in biodiversity and consequential lowering of ecosystem stability and soil fertility. Many of these monoculture plantations are also in poor ecological health and are very vulnerable to exacerbating disturbances such as fire, insect and disease, hurricanes, drought, and wind storms under climate change (Peng et al., 2008). In particular, the disturbance agents of insect and pests, diseases and fire are expected to become the main challenges to forest managers. A total of 292 forest pests and diseases have been identified as of special concern to planted forests in China (SFA, 2008). Pine moth (Dendrolimus spp.) infest up to 3.30 million ha across China (Luo, 2002). Furthermore, the damaged area of poplar (Populus spp.) pests reached up to 2.67 million (Luo, 2002). In 2010, 11.64 million ha of forests were attacked by pests and diseases, and 7,723 forest fire events took place in planted forests (SFA 2011).
Dealing with limitations of land availability for new planted forests
Further expansion of planted forests in China is increasingly constrained by land availability due to the limited land resources and the continuous competition with other land uses, such as agriculture, settlement and infrastructure development. At present, about 30 million ha of land area potentially available for planted forests suffers from poor climate and soil conditions and it would be a technologically and economically challenging task to bring them under tree-growing regimes (SFA, 2014). In particular, there is less land available for planted forests in eastern regions compared with western areas. Although land is available especially in north-western areas, water resources are very scarce there. Developing planted forests in water-limited areas where the annual precipitation is below 400 mm would potentially exacerbate water shortages due to the increased evapotranspiration, especially under climate-change scenarios. Some studies have shown that the vegetation composition in terms of forest, shrub and alpine meadows could affect the amount of water yield in a watershed (Jiang et al., 2004; Y. Liu et al., 2006) and that the annual mean runoff coefficient and evapotranspiration (ET) may be closely related to landscape structure of watersheds (Li et al., 2006; Jiang et al., 2004; Y. Liu et al., 2006, 2008). At a macro-scale, it is important to consider the natural climatic constraints of water availability as well as the appropriate choice of species/varieties and associated forest management options that are suitable for water conservation. At the meso-scale, the proportion of native forest plays an important role in the reduction and regulation of water use, and therefore a system of mosaic landscape management may be able to stabilise water flow across plantation landscapes (Ferraz et al., 2012).
China's National Forestry Strategy sets a goal of further expanding 40 million ha of planted forests in 2020 against the baseline of 2005 (SFA, 2009a). However, there are a number of important challenges to overcome, including: the largely monoculture nature of the plantations with only a few tree species dominating the planted landscape; uneven spatial distribution; undesirable age-class distribution; relatively low volume in growing stock; coupled with the increasing complexity of managing planted forests for multiple uses under a changing environment. Changing the management strategy of planted forests from one of area expansion to one of productivity and quality enhancement cannot come too soon. This change would occur by transforming forest management regimes from those relying solely on massive artificial regeneration and afforestation to ones focusing more on tending and natural regeneration. Such a change would enable the forest managers to contribute to climate mitigation and adaptation, water and biodiversity conservation by implementing management plans that comprehensively integrate economic (productivity and growth), social (equity of access to water and land-use conflicts) and environmental (climate change and biodiversity impacts) benefits from planted forests.
Planted forests are increasingly playing an important role in China for wood and non-wood forest products, carbon sequestration, soil stabilisation, and a range of other ecosystem services. Sustainability of planted forests in terms of desired goods and ecosystem services, and diversified adaptive options for different stakeholders to cope with global change and land use conflicts is a growing concern. Understanding of the short-term and long-term impacts of climate change on trees and forests is of great importance to identify the adaptation potentials, and to find ways of improving vitality and resilience of planted forests. There is a need to undertake a wide range of adaptation actions at different management levels that seek to appropriately modify rotation length, tree species, stand structure and growth and yield models, and at the genetic level that prepare the planted forests to benefit from the pending changes in the climate. Adaptation and mitigation must be considered in parallel and should be integrated together into current management regime of planted forests. Recognition of the interrelationships among land use and balancing of trade-off among multiple ecosystem services should underlie the management of planted forest landscapes. There are considerable uncertainties about potential impacts of climate change on planted forests and this knowledge gap needs to be narrowed down through focused research in a wide range of ecological regions.
Shirong Liu, Professor in forest ecology and vice president of the Chinese Academy of Forestry; Shuirong Wu, Professor in forest resources and environmental economics, and forest policy; and Hui Wang, Associate Professor in forest ecology and soil science.
This study was funded by the Ministry of Science and Technology (2012BAD22B01), the Ministry of Finance (201404201) and the National Natural Science Fund Committee (31270681). We gratefully acknowledged the cordial invitation and the support from the organising committee of the Third International Congress on Planted Forests (ICPF) for the authors to attend and make a keynote presentation for the Asian perspective in Session 1 "Global Perspective on Planted Forest Development" in the plenary meeting of ICPF, held in Estoril, Portugal, on May 20-21, 2013. We thank Dr Promode Kant for his valuable comments and help with the English.
Publication of this supplement was funded by the New Zealand Forest Research Institute Limited (trading as Scion).
This article has been published as part of JOURNAL Volume 44 Supplement 1, 2014: Proceedings of the Third International Congress on Planted Forests. The full contents of the supplement are available online at http://www.nzjforestryscience.com/supplements/44/S1.
- Booth TH: Eucalypt plantations and climate change. Forest Ecology and Management 2013, 301: 28–34. [http://dx.doi.org/10.1016/j.foreco.2012.04.004]View ArticleGoogle Scholar
- Carle J, Holmgren P: Wood from planted forests: a global outlook 2005–2030. Forest Products Journal 2008,58(12):6–18.Google Scholar
- Cossalter C, Barr C: Fast-growing plantation development and industrial wood demand in China's Guangxi Zhuang Autonomous Region. (A Report Prepared for the Guangxi Forestry Bureau and the World Bank) Bogor, Indonesia: Center for International Forestry Research 2005.Google Scholar
- Fang JY, Chen AP, Peng CH, Zhao SQ, Ci L: Changes in forest biomass carbon storage in China between 1949 and 1998. Science 2001, 292: 2320–2322. 10.1126/science.1058629PubMedView ArticleGoogle Scholar
- Fang JY, Guo ZD, Piao SL, Chen AP: Terrestrial vegetation carbon sinks in China, 1981–2000. Science in China(D-Earth Science) 2007, 50: 1341–1350. 10.1007/s11430-007-0049-1View ArticleGoogle Scholar
- FAO: Global planted forest thematic study: results and analysis. 2006a.Google Scholar
- FAO: Responsible management of planted forests: voluntary guidelines. 2006b.Google Scholar
- FAO: Global Forest Resources Assessment 2010. 2010.Google Scholar
- Ferraz SFB, Lima WP, Rodrigues CB: Managing forest plantation landscapes for water conservation. Forest Ecology and Management 2012, 301: 58–66. [http://dx.doi.org/10.1016/j.foreco.2012.10.015]View ArticleGoogle Scholar
- General Bureau of State Forestry: Statistics on the national forest resources (1973–1976). (In Chinese). Beijing, P. R. China: General Bureau of State Forestry; 1977.Google Scholar
- Jiang H, Liu SR, Sun PS, An SQ, Zhou GY, Li CY, Wang JX, Yu H, Tian XJ: The influence of vegetation type on the hydrological process at the landscape scale. Canadian Journal of Remote Sensing 2004,30(5):743–763. 10.5589/m04-033View ArticleGoogle Scholar
- Kröger M: Global tree plantation expansion: a review. (ICAS Review Paper Series No 3) The Netherlands: Initiatives in Critical Agrarian Studies, Land Deal Politics Initiative and Transnational Institute 2012. [https://helda.helsinki.fi/bitstream/handle/10138/39217/Markus_Kroeger_ICAS_WP_3_EN.pdf?sequence=2]Google Scholar
- Lan Y, Gu W: Advances in trees asexual reproduction. World Forestry Research 2002, 6: 25–30. (in Chinese)Google Scholar
- Lane M, McDonald G: Towards a general model of forest management through time: evidence from Australia, USA, and Canada. Land Use Policy 2002, 19: 193–206. 10.1016/S0264-8377(02)00014-5View ArticleGoogle Scholar
- Li CW, Ge JP, Liu SR, Sun PS: Landscape pattern and eco-hydrological characteristics at the upstream of Minjiang River, China. Frontiers of Biology in China 2006,1(4):455–462. 10.1007/s11515-006-0062-3View ArticleGoogle Scholar
- Liu S, Yong L, Zhang Y, Guo Z, Zhang L, Li C, Wang J: Landscape ecology contributions to forestry and forest management in China: progresses and research needs. In Landscape ecology in forest management and conservation: challenges and solutions for global change. Edited by: C Li, R Lafortezza, & J Chen,. Beijing, P. R. China: Springer, Higher Education Press; 2011:22–45.View ArticleGoogle Scholar
- Liu YH, An SQ, Deng Z, Fan N, Wang Z, Zhou C, Liu S: Effects of vegetation patterns on yields of the surface and subsurface waters in the Heishui Alpine Valley in west China. Hydrology and Earth System Sciences Discussions 2006, 3: 1021–1043. 10.5194/hessd-3-1021-2006View ArticleGoogle Scholar
- Liu YH, Fan NJ, An SQ, Bai XH, Liu FD, Xu Z, Wang ZS, Liu SR: Characteristics of water isotopes and hydrograph separation during the wet season in the Heishui River, China. Journal of Hydrology 2008, 353: 314–321. 10.1016/j.jhydrol.2008.02.017View ArticleGoogle Scholar
- Luo XH: Plantations and the sustainable development of Chinese forestry. Journal of Fujian Forestry Science and Technology 2002,29(2):69–71.Google Scholar
- Minshal GW: Stream ecosystem theory: A global perspective. Journal of the North American Benthological Society 1988,7(4):263–288. 10.2307/1467294View ArticleGoogle Scholar
- Ministry of Forestry: Statistics on the national forest resources (1977–1981). (In Chinese). Beijing, P. R. China: Ministry of Forestry; 1983.Google Scholar
- Ministry of Forestry: Statistics on the national forest resources (1984–1988). (In Chinese). Beijing, P. R. China: Ministry of Forestry; 1989.Google Scholar
- Ministry of Forestry: Statistics on the national forest resources (1989–1993). (In Chinese). Beijing, P. R. China: Ministry of Forestry; 1994.Google Scholar
- Niu X, Wang B, Liu S, Liu C, Wei W, Kauppi PE: Economical assessment of forest ecosystem services in China: Characteristics and implications. Ecological Complexity 2012, 11: 1–11. doi:10.1016/j.ecocom.2012.01.001View ArticleGoogle Scholar
- Pan YD, Birdsey RA, Fang JY, Houghton RA, Kauppi PE, Kurz WA, Phillips OL, Shvidenko A, Lewis SL, Canadell JG, Ciais P, Jackson RB, Pacala SW, McGuire AD, Piao SL, Rautiainen A, Sitch S, Hayes D: A large and persistent carbon sink in the world's forests. Science 2011, 333: 988–993. 10.1126/science.1201609PubMedView ArticleGoogle Scholar
- Peng SL, Wang DX, Zhao H, Yang T: Discussion the status quality of plantation and near nature forestry management in China. Journal of Northwest Forestry University 2008, 23: 184–188.Google Scholar
- Piao S, Fang J, Ciais P, Peylin P, Huang Y, Sitch S, Wang T: The carbon balance of terrestrial ecosystems in China. Nature 2009, 458: 1009–1013. 23 April 10.1038/nature07944PubMedView ArticleGoogle Scholar
- Poff LN: A hydrogeography of unregulated streams in the United States and an examination of scale-dependence in some hydrological descriptors. Freshwater Biology 1996, 36: 71–91. 10.1046/j.1365-2427.1996.00073.xView ArticleGoogle Scholar
- Poff LN, Ward JV: Implications of streamflow variability and predictability for lotic community structure: A regional analysis of streamflow patterns. Canadian Journal of Fisheries and Aquatic Sciences 1989, 46: 1805–1817. 10.1139/f89-228View ArticleGoogle Scholar
- Rudel K: Tree farms: Driving forces and regional patterns in the global expansion of forest plantations. Land Use Policy 2009, 26: 545–550. 10.1016/j.landusepol.2008.08.003View ArticleGoogle Scholar
- Sedjo R: Global supply and demand for forest products: some important trends. Washington, DC: Resources for the Future; 2004.Google Scholar
- Shao Q, Huang L, Liu J, Kuang W, Li J: Analysis of forest damage caused by the snow and ice chaos along a transect across southern China in Spring 2008. Journal of Geography Science 2011,21(2):219–234. 10.1007/s11442-011-0840-yView ArticleGoogle Scholar
- Sohngen B, Sedjo R: The potential role of plantations in future timber supply. Washington, DC: Resources for the Future; 1999.Google Scholar
- State Forestry Administration (SFA): Statistics on the national forest resources (1994–1998). (In Chinese). Beijing, P. R. China: SFA; 2000.Google Scholar
- State Forestry Administration (SFA): Bulletin of Chinese forest resources in 2005. (In Chinese). Beijing, P. R. China: China Forestry Publishing House; 2005.Google Scholar
- State Forestry Administration (SFA): Overview on Forest Pests and Disease in China. (In Chinese). Beijing, P. R. China: China Forestry Publishing House; 2008.Google Scholar
- State Forestry Administration (SFA): The Forestry Action Plan to Address Climate Change. (In Chinese). Beijing, P. R. China: China Forestry Publishing House; 2009a.Google Scholar
- State Forestry Administration (SFA): Report on Forest Resources of China - based on the Seventh National Forest Inventory. (In Chinese). Beijing, P. R. China: China Forestry Publishing House; 2009b.Google Scholar
- State Forestry Administration (SFA): Technical regulations for inventory for forest management planning and design (GB/T 26424–2010). (In Chinese). Beijing, P. R. China: China Standards Press; 2011a.Google Scholar
- State Forestry Administration (SFA): China Forestry Statistical Yearbook 2011. (In Chinese).Beijing, P. R. China: China Forestry Publishing House; 2011b.Google Scholar
- State Forestry Administration (SFA): China Forestry Statistical Yearbook 2013. In Chinese. Beijing, P. R. China: China Forestry Publishing House; 2013a.Google Scholar
- State Forestry Administration (SFA): Report on Chinese Forestry Development 2013. (In Chinese). Beijing, P. R. China: China Forestry Publishing House; 2013b.Google Scholar
- State Forestry Administration (SFA): General Situation of Forest Resources in China- based on the Eighth National Forest Inventory. 2014.Google Scholar
- Sun PS, Liu SR, Jiang H, Lu YL, Liu JT, Lin Y, Liu XL: Hydrologic effects of NDVI time series in a context of climatic variability. Journal of the American Water Resources Association 2008,44(5):1132–1143. 10.1111/j.1752-1688.2008.00256.xView ArticleGoogle Scholar
- Wang W, Wang WJ, Li JS, Wu H, Xu C, Liu T: The impact of sustained drought on vegetation ecosystem in Southwest China based on remote sensing. Procedia Environmental Sciences 2010, 2: 1679–1691.View ArticleGoogle Scholar
- Wijewardana D: Markets perspectives for timber from planted forests. New Zealnd Journal of Forestry 2005, 34–41. MayGoogle Scholar
- Winjum JK, Schroeder PE: Forest plantations of the world: their extent, ecological attributes, and carbon storage. Agricultural and Forest Meteorology 1997, 84: 153–167. 10.1016/S0168-1923(96)02383-0View ArticleGoogle Scholar
- Xiao X: National forest inventory of China. (In Chinese). Beijing, P. R. China: China Forestry Publishing House; 2005.Google Scholar
- Zhang Y, Tachibana S, Nagata S: Impact of socio-economic factors on the changes in forest areas in China. Forest Policy and Economics 2006, 9: 63–76. 10.1016/j.forpol.2005.02.005View ArticleGoogle Scholar
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