ArticlePDF Available

Abstract and Figures

9.1. Introduction Forest-based industries-pulp and paper, solid wood products, and a number of downstream value-added wood-based manufacturers-have received limited attention in the pursuit of a successful implementation of EU and national bioeconomy strategies. According to Eurostat, the pulp and paper and solid wood products industries accounted for about 4.4% (€277 billion) of the production value and 5.4% (1.61 million) of total EU employment in manufacturing in 2013. The importance of the sector is far greater if one were to include forestry and logging and downstream wood-based industries (furniture, energy, chemicals, etc.). The global and European forest-based industries are undergoing major structural changes (Hansen et al, 2013). Most notably, the consumption of graphic papers has been declining in most OECD countries and increasingly also in non-OECD countries, such as China, due to the increasing use of electronic media. Moreover, the consumption and production of wood-based products is increasingly shifting from the previously leading forest industry regions of North America, Western Europe, and Japan to the rapidly growing large economies of China, Brazil, and India. Furthermore, with emerging new biobased products, such as biofuels and bioplastics, the boundaries with other sectors, such as energy, chemical and textile industries, are expected to become increasingly blurred. These changes are producing a growing diversity and complexity in the forest sector, presenting what are likely to be ever greater economic and policymaking challenges in Europe and worldwide in the future. The outlook for European forest-based industries depends on the perspective. In terms of market growth, looking only at large volume traditional products (sawn wood, wood-based panels, pulp and paper) may yield a different picture compared to one that considers also new or emerging wood-based bioproducts. The aim of this section is to assess ongoing trends and likely future developments of European forest-based products markets, considering the most recent research, expert assessments, and available data.
Content may be subject to copyright.
126
What is the current state of forest
product markets and how will they
develop in the future?
Ragnar Jonsson, Elias Hurmekoski, Lauri Hetemäki,
Jeffrey Prestemon
3.9.1. Introduction
Forest-based industries – pulp and paper, solid wood products, and a number of down-
stream value-added wood-based manufacturers – have received limited attention in
the pursuit of a successful implementation of EU and national bioeconomy strategies.
According to Eurostat, the pulp and paper and solid wood products industries account-
ed for about 4.4% (€277 billion) of the production value and 5.4% (1.61 million) of total
EU employment in manufacturing in 2013. The importance of the sector is far great-
er if one were to include forestry and logging and downstream wood-based industries
(furniture, energy, chemicals, etc.).
The global and European forest-based industries are undergoing major structur-
al changes (Hansen et al, 2013). Most notably, the consumption of graphic papers has
been declining in most OECD countries and increasingly also in non-OECD countries,
such as China, due to the increasing use of electronic media. Moreover, the consump-
tion and production of wood-based products is increasingly shifting from the previous-
ly leading forest industry regions of North America, Western Europe, and Japan to the
rapidly growing large economies of China, Brazil, and India. Furthermore, with emerg-
ing new biobased products, such as biofuels and bioplastics, the boundaries with other
sectors, such as energy, chemical and textile industries, are expected to become increas-
ingly blurred. These changes are producing a growing diversity and complexity in the
forest sector, presenting what are likely to be ever greater economic and policymaking
challenges in Europe and worldwide in the future.
The outlook for European forest-based industries depends on the perspective. In
terms of market growth, looking only at large volume traditional products (sawn wood,
wood-based panels, pulp and paper) may yield a different picture compared to one that
considers also new or emerging wood-based bioproducts. The aim of this section is to as-
sess ongoing trends and likely future developments of European forest-based products
markets, considering the most recent research, expert assessments, and available data.
3.9
Published in Georg Winkel (editor). 2017. Towards a sustainable European forest-based
bioeconomy – assessment and the way forward. What Science Can Tell Us 8, European
Forest Institute.
Towards a sustainable European forest-based bioeconomy – assessment and the way forward
127
3.9.2. Large volume forest-based products
European forest-based industries have been facing major changes in the 2000s compared
to the period 1960–2000, which was characterised by stable market growth for all large-vol-
ume forest products (Hetemäki and Hurmekoski, 2016). The trends from this century are
likely to continue to shape the traditional forest-based industry over the next 10 to 15 years.
Economic globalisation has led to increased trade and a global market for wood-based
products. Focal points of forest products manufacture have become progressively more
spatially separated, with companies placing manufacturing plants at different geograph-
ic locations along the value chain from the forest to the consumer. Intensively managed
forest plantations in the southern hemisphere are gradually replacing temperate and
boreal forests as the predominant raw material resource for the manufacture of wood
products, not least wood pulp, where production has increasingly been moved to Latin
America. Furthermore, while demand for traditional forest-based products is growing
quickly in China, India, and other developing countries – in line with their rapid growth
in income – demographic and economic development is not supporting sustained growth
in Europe. It should be noted that growth is higher in Eastern Europe than in Western
Europe. Europe is a net exporter of most large volume forest-based products, and is ex-
pected to remain so in the medium term (UNECE/FAO, 2011).
The progress in digital information and communication technology (ICT) is having
a negative impact on the demand for graphic paper (Pöyry, 2015). The decline of news-
print consumption started in the USA in the late 1980s, and the substitution impact of
digital ICT has gradually spread to other graphics paper products and markets, includ-
ing emerging economies such as China. Packaging and hygiene paper consumption,
on the other hand, continues to increase in Europe and globally.
EU renewable energy targets continue to stimulate an increasing demand for ener-
gy wood, thereby also influencing the markets for many established forest-based prod-
ucts (Solberg et al, 2014). Bioenergy provides opportunities for new markets for forest
and industrial residues and for post-consumer wood. Selling chips, sawdust, bark or
pellets to energy firms provides income for the sawmill industry. Chemical pulp pro-
ducers may also profit from growing bioenergy markets by producing bioenergy (heat,
power, biofuels) as a side stream of the pulping process. On the other hand, particle
-
board and pulp and paper industries tend to suffer from the development of bioenergy
markets, due to higher prices for wood raw material (Johnston et al, 2016; Jonsson and
Rinaldi, 2017). This suggests a need for improved forest management to increase tim-
ber growth rates, advances in harvesting and technical efficiencies in manufacture, and
acceleration in cascaded uses of woody biomass to avoid further crowding out of ma
-
terial uses by energy uses. There is still considerable uncertainty related to future EU
climate and energy policies, though. A crucial consideration is to what extent, and in
which form, the support for wood-based energy will continue. Moreover, there is uncer-
tainty as to the extent and timing in the emergence of economically feasible alternative
renewable energy technologies.
All in all, there are signs that economic development and demand for traditional,
large-volume wood products in Europe has become decoupled from GDP growth, as
is apparent from Fig. 15. The decoupling results from declining graphic paper markets
due to digital ITC and stagnating solid wood products market as a consequence of de-
mographic developments, while the climate and energy policy environment is favour-
ing the use of wood fuels.
128
w h at s c i e n c e c a n t e l l u s
3.9.3. New forest-based products
The concept of “new forest products” or “innovative bioproducts” has been increasing-
ly on the policy and industry agenda in the 2000s (Philippidis et al, 2016; Cowie et al,
2014). There are two reasons for this. Firstly, there is a clear desire by policymakers and
others to reduce the fossil fuel dependency of the global economy. Secondly, the forest
industries seek to diversify their businesses, due to stagnant or declining markets for a
number of traditional products. As there is no established definition for new products,
it is useful to distinguish the following categories:
1. Old products with newly increasing demand due to changes in the operating en-
vironment. For example, dissolving pulp for the textile industry due to the need
to find substitutes for cotton, as its production competes for land with food and
feed production and consumes scarce water resources for irrigation.
2.
Old products with incremental improvements, such as lighter weight or lower
production costs. For example, paper and packaging coatings and fillers based
on nanocellulose.
3. Novel products or products with radical improvements. For example, the use of
nanoscale organic matter in electronics.
In the future, the relative importance of new products can be expected to grow further.
It is conceivable that, beyond 2030, there will be a large number of product categories,
none of which dominates the sector to the extent that paper and wood products did in
the past century, particularly in terms of value (see Figure 16). However, currently it
seems that there will be only a few individual product groups whose annual produc-
tion volume in the EU will exceed one million metric tons or a million cubic meters per
year by 2030, such as biofuels, dissolving pulp (for textiles, etc.), and engineered wood
Figure 15. Consumption per capita of forest-based products and GDP growth in Europe (excluding Russia)
(Data: FAOSTAT, World Bank).
60
70
80
90
10
0
110
12
0
130
14
0
150
60
70
80
90
1
00
110
120
130
1
40
150
1992 1993 1994 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015
Index 2000 = 100
Packaging paper & board
Graphic paper
Wood pulp
Sawnwood
GDP per capita (real)
Wood-based panels
Wood fuel
Consumption per capita in Europe (excl. Russia)
Towards a sustainable European forest-based bioeconomy – assessment and the way forward
129
products (notably cross laminated timber). This would be in the face of around 105 Mm
3
sawn wood production and 37 Mt of pulp production in the EU in 2015.
The long-term outlook for other product categories appears more uncertain at the
moment. For example, there is no policy pull for bioplastics like that experienced in bi-
ofuels, which is why the production of biofuels is expected to reach seven million met-
ric tons in the EU by 2020, compared to less than one million metric tons of bioplas-
tics (Pöyry, 2016). The majority of these volumes are based on agricultural feedstock,
yet wood-based feedstock can be significant in regions with a high dependency on for-
est industry. Yet, the increasing political commitment for a circular economy (European
Commission, 2015), and the problems caused by plastic waste (e.g. ocean pollution), may
change this trend in the coming decades.
Although small in terms of volume, the new products are often expected to provide
high value. The secondary wood products sector (joinery and carpentry, prefabricated
wooden buildings, etc.) already exceeds the sawmilling sector in terms of production
value in the EU, despite an estimated 10 times lower production volume. If forest bi-
omass-based production was to capture only 1% market share of the global fuels and
plastics markets, it would create new turnover of €40 billion for the forest-based sector
(Pöyry, 2016). However, very little independent research exists to judge the likelihood
or possible impacts of such developments, partly because data on the emerging prod-
ucts are elusive. Nonetheless, the unit value of biofuels or bioplastics is not necessari-
ly high, compared to some of the established forest products, such as sanitary papers.
The interdependencies between forest product markets may play an even stronger
role in the future, as the residues from the production of intermediate wood products
(most notably sawn wood and pulp) account for a significant source of raw material for
Figure 16. Examples of the possible end uses of new wood-based products (Cowie et al, 2014; Pöyry, 2016).
HIGH VALUE
Medical, environmental, and industrial sensors
Water and air filtration
• Cosmetics
Organic LEDs
Flexible electronics
• Photovoltaics
Recyclable electronics
Battery membranes
• Insulation
Aerospace structure & interiors
• Aerogels
Food & feed additives
Paints and coatings
• Textiles
Biofuels (crude oil, diesel, ethanol, jet fuel)
Construction elements
Cement additives or reinforcement fibers
Automotive body & interior
Packaging & paper coatings
Paper & packaging filler
Plastic packaging
Intelligent packaging
Hygiene and absorbent products
HIGH VOLUME
130
w h at s c i e n c e c a n t e l l u s
the production of energy, wood-based panels, and chemicals that can substitute for oil-
based products. For example, the global forest industry produces annually 50 million
metric tons of lignin. In the absence of other uses, lignin is typically used directly for
energy production; however, in the future it could be used for a various assortment of
fuels, platform chemicals and plastics (Pöyry, 2016). The profits from current products
may provide the funding for investments in new products, or the new products will help
to sustain the production of established products, through improved utilisation of side-
streams. For example, the profitability of sawn wood production is to some extent de-
pendent on the ability to sell mill residues for energy production or wood-based panel
manufacture. Furthermore, with shrinking demand for electricity in some regions, due
to declining energy-intensive industrial activity and increasing energy-efficiency, invest-
ments in further processing of by-products into higher value-added products may guar-
antee the continued operation of sawmills.
The interdependencies may also pose challenges, such as in the case of increasing
pulp production capacity in Finland and Sweden. Due to integrated pulpwood and log
procurement – i.e. the important role of sawmills as suppliers of chips for pulping – the
investments in pulp capacity also necessitate a major increase in sawmilling, yet the de-
mand for sawn wood may not grow at the same pace as the demand for market pulp.
Take home messages:
On a global level, continued growth in the production and consumption of for-
est-based products – with the exception of graphics paper that competes with
electronic ICT – is expected. However, in the EU, sawn wood, pulp and paper
markets are likely to experience stagnation until 2030, because of unfavourable
demographic developments, slow economic growth, increasing global compe-
tition, and a number of market-specific drivers, notably progress in digital ICT.
The outlook for the forest-based products sector in the EU contrasts with 20th
century experiences, when production and consumption of all forest-based prod-
ucts followed economic development and population growth. The changing sit-
uation is due not only to the long-lasting economic downturn, but also the re-
sult of numerous structural changes.
Global trends, notably demographic developments and progress in electronic
ICT, will likely continue for many decades. The outlook for major forest-based
product markets outlined above thus provides a reasonable baseline for fu-
ture developments of the sector. However, there are a number of uncertainties
around future developments.
A prominent uncertainty concerns the evolution of climate and energy policies, as
they have been shown to exert a strong influence on forest-based products markets.
Yet another uncertainty regards growth prospects of emerging forest-based prod-
ucts. Even though they may not turn out to be very important in terms of vol-
ume, they may provide significant economic value by 2030.
Finally, the trend analysis outlined above does not consider potential game chang-
ers or wild cards, such as technological breakthroughs or, for example, the in-
troduction of a strong support scheme for negative emissions.
Given the importance of global forest products markets to the economy, employ-
ment and forests, and the changes taking place in the markets, the overall scale of
independent, transparent academic market research is alarmingly low. There is also
a need to better connect market developments to wider sustainability concerns.
Towards a sustainable European forest-based bioeconomy – assessment and the way forward
131
References
Cowie, J., Bilek, E., Wegner, T.H., Shatkin, J.A., 2014. Market projections of cellulose nanomateri-
al-enabled products – Part 2: Volume estimates. Tappi Journal 13, 57–69
European Commission, 2015. Closing the Loop – an EU Action Plan for the Circular Economy, Eu-
ropean Commission, Communication COM (2015) 614/2.
Hansen, E., Panwar, R., Vlosky, R. (Eds.), 2013. The Global Forest Sector: Changes, Practices, and
Prospects. CRC Press.
Hetemäki, L. and Hurmekoski, E., 2016. Forest Products Markets under Change: Review and Re-
search Implications. Current Forestry Reports 2, 177-188. DOI 10.1007/s40725-016-0042-z
Johnston, C.M.T., van Kooten, G.C., 2016. Global trade impacts of increasing Europe’s bioenergy
demand. Journal of Forest Economics 23, 27–44.
Jonsson, R and, Rinaldi, F., 2017. The impact on global wood-product markets of increasing con-
sumption of Zood pellets within the European Union. Energy 133, 864–878.
Philippidis, G., M’barek, R., Ferrari, E., 2016. Drivers of the European Bioeconomy in Transition
(BioEconomy2030): An exploratory, model-based assessment. Joint Research Centre, Europe-
an ommission.
Pöyry Inc., 2015. World fibre outlook up to 2030. Vantaa, Finland.
Pöyry Inc., 2016. The Recarbonisation Trilogy. Pöyry Point of View – January 2016.
Solberg, B., Hetemäki, L., Kallio, A.M.I., Moiseyev, A., Sjølie, H.K., 2014. Impacts of forest bioen-
ergy and policies on the forest sector markets in Europe-what do we know? in: Pelkonen, P.,
Mustonen, M., Asikainen, A., Egnell, G., Kant, P., Leduc, S., Pettenella, D. (Eds.), Forest Bioen-
ergy for Europe. What Science Can Tell Us 4. European Forest Institute.
UNECE/FAO, 2011. The European forest sector outlook study II 2010–2030.
Policy recommendations:
It is important to understand various interdependencies between material and
energy uses of wood, as well as between existing and emerging markets. Policy
decisions, particularly those directed at the scale and scope of renewable ener-
gy standards, targets and incentives, are likely to markedly influence future de-
velopments of traditional forest-based industries due to these various depend-
encies (synergies as well as competition) between forest products markets.
To promote synergies and reduce as much as possible any undue crowding out
of material uses of wood through lop-sided support to energy uses, measures
to enhance material efficiency, such as cascading, should prove useful.
Increasing diversity and complexity of forest products markets implies difficul-
ties for monitoring the development of the sector. It also makes the design of
regulation more complicated. Therefore, there is an increasing need for policy
coordination across different policy sectors, as well as a long-term stable policy
environment that helps to reduce uncertainties and, consequently, makes the
investment environment more predictable.
... Dramatic changes in global forest industry markets during the 2000s [7,8] have also changed the chains of activities that create and add value to forest products through different phases of production to final consumption. With new products and processes, changes in value chains are expected to continue [9]. ...
... Globalization, assisted by the costreducing effects of technological development, has led to increased trade in forest products and the possibility to utilize materials from different sources. Consumption and production are shifting from the traditional forest industry regions of North America, Western Europe, and Japan to rapidly growing markets like China [8]. ...
... The last stage of the FWC covers demand for changes in end markets, which are drivers of changes along the entire FWC, from consumer or industrial end user to the use of forest resources and forest management. Emerging new product groups related to construction and packaging, textiles, biofuels, and platform chemicals [8,9] will also change the supply needs of forest-based raw materials in the near future. An example of such a change is the collection of forest energy from harvesting residues and stumps. ...
Article
Full-text available
Purpose of Review This review aims to discover the most common topics and trends in international scientific forest sector research between January 2000 and December 2019 and to test the suitability of a quantitative topic-modeling method to extract topics from the data. The results will be helpful for both researchers and policy decision-makers in identifying emerging research topics and possible research gaps. The analysis framework covers the complete forest wood chain (FWC) with PESTE factors. PESTE is applied to analyze political, economic, social, technological, and ecological/environmental factors affecting the FWC. Recent findings In the last two decades, forests and the forest sector have been impacted by several global changes, policies, and megatrends. Previous systematic syntheses of forest sector research reveal that economic, policy, and social research have remained underrepresented in the forest sector literature. Research areas related to forest ecology and climate change have been increasing. More recently, growth has also been detected in social aspects especially related to the increasing literature on forest ecosystem services. Results A total of 160 topics were extracted from 14,470 abstracts of 15 leading international peer-reviewed forest science journals. The ecological topics of forest resources and technological topics of industry and products were by far the two largest subject areas. Ecological topics increased, while technological topics slightly decreased, during the period between 2000 and 2019. A clear decline in the share of topics concerning end-product markets was detected. Indeed, changes in end markets drive changes in the entire forest wood chain. To support the goal of a transition from a fossil-based economy to a bioeconomy, it will be important to increase academic research on policy impacts, as well as social and ecological sustainability issues to cover all the stages of the FWC more evenly. The topic-modeling method was a useful tool in data mining, but human intelligence is needed to interpret and classify the topics extracted by this approach.
... In contrast, the demand for wood panels has been very strong in the last few decades, and that for packing papers and board has closely followed the pattern for economic growth. The power of policy as driving force for the consumption of forest products is reflected in the fact that the world wood fuel demand has been declining, but in the EU the development has been exactly the opposite due to the renewable energy polices favouring bioenergy development (Jonsson et al., 2017). ...
... The industrial use of forest biomass is expected to become increasingly diversified across the world (Hetemäki, 2014;Hetemäki et al., 2017;Hurmekoski et al., 2018;Jonsson et al., 2017). Two major drivers exist for this trend. ...
... Recently, a number of studies have provided an overview of the emerging forest-based market and potential developments in the coming decades (Hetemäki, 2014, Hurmekoski et al., 2018Jonsson et al., 2017). The most significant emerging wood-based product markets are in the construction, textile, chemical (including polymers) and biofuel industries, and a number of small upstream niche markets such as cosmetics, food additives and pharmaceuticals (Hurmekoski et al., 2018). ...
Chapter
Full-text available
The Wicked Problem of Forest Policy - edited by William Nikolakis July 2020
... In contrast, the demand for wood panels has been very strong in the last few decades, and that for packing papers and board has closely followed the pattern for economic growth. The power of policy as driving force for the consumption of forest products is reflected in the fact that the world wood fuel demand has been declining, but in the EU the development has been exactly the opposite due to the renewable energy polices favouring bioenergy development (Jonsson et al., 2017). ...
... The industrial use of forest biomass is expected to become increasingly diversified across the world (Hetemäki, 2014;Hetemäki et al., 2017;Hurmekoski et al., 2018;Jonsson et al., 2017). Two major drivers exist for this trend. ...
... Recently, a number of studies have provided an overview of the emerging forest-based market and potential developments in the coming decades (Hetemäki, 2014, Hurmekoski et al., 2018Jonsson et al., 2017). The most significant emerging wood-based product markets are in the construction, textile, chemical (including polymers) and biofuel industries, and a number of small upstream niche markets such as cosmetics, food additives and pharmaceuticals (Hurmekoski et al., 2018). ...
Chapter
Cambridge Core - Ecology and Conservation - The Wicked Problem of Forest Policy - edited by William Nikolakis
... In the context of circular economy, it is crucial to reuse it. Reusing this waste is critical for the sustainable and environmental friendly material development, taking into consideration the life cycle assessment of products and the sequestration of carbon in wood [20,21]. Sawdust has already been explored as absorbent material for different substances, like heavy oil and oleic acid [22][23][24]. ...
Preprint
Full-text available
A sustainable matrix based on eucalyptol essential oil/sawdust was developed and applied on one-sided laminated plywood. This finish aims to serve as a eucalyptol odor slow release. Eucalyptol odor release was monitored with gas chromatography coupled with a flame ionization detector (GC-FID: Limits of Detection and Quantification of 0.70 g/m 3 and 2.11 g/m 3 , respectively, and with linearity up to 18.6 g/m 3). Measurement of the eucalyptol odor released was performed during a six-month period and it was found that the release followed a first-order exponential decay with a decay rate constant of 0.0169 per day. The half-life was determined to be of 48 days. The granulometry and particle size porosity of sawdust were analyzed by Scanning Electron Micros-copy. Sawdust size fraction between 112-200 μm showed best eucalyptol absorption capacity with 1:3 masses ratio (sawdust:eucalyptol). The time capacity of eucalyptol release depends of composite eucalyptol-sawdust quantity. Where this relation was determined: 15.0 grams of composite eucalyptol-sawdust by 0.8 mm diameter aperture gave 6 months of eucalyptol release, that was considered very positive, understanding high volatility of eucalyptol and a small quantity of composite for further products. The new product is characterized by a carbon footprint (consider-ing the industry frontiers) of 5.94 kg CO2eq/m 2 of plywood floor.
... Only 19% of the respondents had no formal education; the table shows that larger percentage of the respondents had primary, secondary and tertiary education. Apparently, educational background may not be a determining factor in the consumption of Blighia sapida and this finding is supported by Subhrendu and Erin (2001), Jonsson et al., (2017) and Buongiono (2018) who reported that there are no restrictions in consumption as regards households or qualifications and there is a wide range of use of forest products which will keep increasing in the future. Table 2 shows that 25% of the respondents were familiar with Blighia sapida while an alarming 75% others were unfamiliar. ...
... Only 19% of the respondents had no formal education; the table shows that larger percentage of the respondents had primary, secondary and tertiary education. Apparently, educational background may not be a determining factor in the consumption of Blighia sapida and this finding is supported by Subhrendu and Erin (2001), Jonsson et al., (2017) and Buongiono (2018) who reported that there are no restrictions in consumption as regards households or qualifications and there is a wide range of use of forest products which will keep increasing in the future. Table 2 shows that 25% of the respondents were familiar with Blighia sapida while an alarming 75% others were unfamiliar. ...
... According to a recent survey in Indonesia in the Bogor City and Bogor District, wood consumption per capita was generally 0.1 m 3 /person/year [3]. To increase wood consumption more, studies are needed to improve the quality of wood products and the use of wood in various fields [4]. ...
Article
Full-text available
As part of the search for useful wood species as an eco-friendly and sound-absorbing material, the sound-absorbing properties of the Chinese parasol tree (Firmiana simplex (L.) W.Wight) and Chinese tulip poplar (Liriodendron chinese) were investigated. The pore structure of their transverse sections and the porosity (through-pore porosity, blind-pore porosity, and closed-pore porosity) according to their physical pore shapes were investigated. In conclusion, the sound absorption performance of the Chinese parasol tree and Chinese tulip poplar showed a positive linear relationship with their through-pore porosity. In addition, compared with other porous or fibrous sound-absorbing materials, their sound-absorbing capacities were found to be satisfactory. Both of these species are expected to be valuable as eco-friendly sound-absorbing materials.
... In the past few years, the growing role of the bioeconomy in the building sector has highlighted the role of wood-based products. Jonsson et al. (2017) estimate that engineered wood products, notably cross-laminated timber, will represent one of the largest forestbased product categories in Europe by 2030, exceeding one million metric tons per year. Wood-based building products are a valuable resource that not only perform their technical function but might also help combat climate change (Churkina et al., 2020). ...
Article
Full-text available
Purpose Doctoral candidates possess specialized knowledge that could support sustainability transitions. Doctoral education, however, often focusses on discipline-specific topics and working methods, making it difficult to “see the bigger picture”. This summer school on wood construction gathered doctoral candidates from different fields to explore how solutions to complex sustainability issues could be found by working together across disciplines and by engaging multiple stakeholders. The purpose of this study is to report the pedagogical approaches taken and to understand whether these fostered the candidates’ ability to develop systemic solutions and professional competency. Design/methodology/approach Twenty doctoral candidates from various backgrounds participated in a two-week summer school organized by a consortium of four universities. Interdisciplinary groups worked on real-life challenges using a systemic approach to co-create tangible solutions. To support the creation of socio-technical innovations, stakeholders and experts from different fields were involved. The participants completed two questionnaires during the summer school to help elucidate their learning experiences. Findings The doctoral candidates showed strong willingness to cooperate across disciplines, though they found it important to connect this learning experience to their research. The candidates reported that the experience enhanced their ability to work in a multidisciplinary capacity. The experience identified a solid basis for interdisciplinary learning principles that could be replicated. Originality/value The summer school focussed on an innovative learning experience based on a systems thinking approach and the development of interdisciplinary capacity in the research-business ecosystem.
Chapter
Full-text available
The state of the world’s managed forests is determined by the societal demands for wood resources and other ecosystem services. The forest-based sector is experiencing a number of structural changes, which makes the task of looking ahead important, but challenging. One of the main trends in the forest-based industries is diversification. On one hand, this refers to the emergence of new factors influencing the demand for forest-based products, which leads to substitution between forest-based products and alternative products. On the other hand, it refers to new market opportunities for forest-based industries in, for example, the construction, textiles, packaging, biochemicals and biofuels markets. As the importance of some of the traditional forest-based industries, such as communication papers, is declining, and new opportunities are simultaneously emerging, the sector will not necessarily be dominated by single sectors in the long term. However, research illuminating the possible impacts of the expected structural changes of the forest-based sector remains scarce. The uncertainties in the future outlook of the forest-based sector also imply great uncertainties in the demand for roundwood globally, and by extension, the extent of trade-offs between different ecosystem services and land uses.
Article
Full-text available
This paper evaluates, via a laboratory assessment, the physical properties (BS EN 323:1993, BS EN 324) and mechanical performance (BS EN 310: 1993) of hybrid particleboards using agricultural wastes, namely coconut fibre and sawdust. The process begins with the preparation of the materials where they are sieved and retained with the 5-mm sieve and then oven-dried. The hybrid particleboard mixed with the addition of resin (urea formaldehyde) was sprayed and hot pressed. The hot press temperature was set at 180 °C, with the resin content of 8 wt.% and the design density of 650 kg/m3 used in producing the particleboard. The percentage/ratio of the composition of sawdust (SD) to coconut fibre (CF) varied ranging from 100SD:0CF to 70SD:30CF, 50SD:50CF, 30SD:70CF, and 0SD:100CF. Meanwhile, as for the thickness of the boards, it was categorised into three groups which are 16 mm, 20 mm, and 32 mm. The particleboards were conditioned to the room temperature for seven days before being tested for physical properties and mechanical performances. The results show that the most optimum composition of sawdust to coconut fibre is 0% sawdust to 100% coconut fibre (0SD: 100CF) and the optimum thickness is 20 mm, where its density is 761.99 kg/m3, swelling thickness is 11.98%, and water absorption at 37.64%. With the modulus of elasticity of 1510 N/mm2, the modulus of rupture of 17.8 N/mm2, and the internal bonding of 1.08 N/mm2, they satisfied the universal standard of Particleboard Type P3 of BS EN 312:2010.
Article
Full-text available
Background In terms of global forest product market developments, the twenty-first century has been in many ways very different from the twentieth century—striking structural changes have taken place. The global forest sector can be interpreted to be in a phase of creative destruction—an era characterized by a major decline of a number of established products and businesses, and simultaneous emergence of new products and businesses. Main FindingsThe forest product research field appears to be lacking the tools for formally assessing the significance and extent of the changing production and consumption patterns. That is, the mainstream of quantitative forest product market research has relied to a large extent on forest sector modelling, focusing on questions related to the impacts of policies, sufficiency of wood resources, trends in the production of primary wood products, and international competitiveness. In doing so, they have paid less emphasis on some of the equally important questions, such as value added development, employment issues, structural changes, the diffusion of new products and services, and the realistic contribution of the forest-based sector to the global sustainability challenges. When considering the importance of global forest product markets to the economy, employment and forests, and the changes taking place in the markets, the scale of research on forest product markets is alarmingly low. Conclusions This review clearly points to a need to significantly increase the volume of academic research and education on the global and regional forest-based product markets.
Article
Full-text available
Nanocellulose has enormous potential to provide an important materials platform in numerous product sectors. This study builds on previous work by the same authors in which likely high-volume, low-volume, and novel applications for cellulosic nanomaterials were identified. In particular, this study creates a transparent methodology and estimates the potential annual tonnage requirements for nanocellulose in the previously identified applications in the United States (U.S.). High, average, and low market penetration estimates are provided for each application. Published data sources of materials use in the various applications provide the basis for estimating nanocellulose market size. Annual U.S. market potential for high-volume applications of nanocellulose is estimated at 6 million metric tons, based on current markets and middle market penetration estimates. The largest uses for nanocellulose are projected to be in packaging (2.0 million metric tons), paper (1.5 million metric tons), and plastic film applications (0.7 million metric tons). Cement has a potential nanocellulose market size of over 4 million metric tons on a global basis, but the U.S. market share estimated for cement is 21,000 metric tons, assuming market penetration is initially limited to the ultra-high performance concrete market. Total annual consumption of nanocellulose for low-volume applications is less than 10% of the high-volume applications. Estimates for nanocellulose use in emerging novel applications were not made because these applications generally have yet to come to market. The study found that the majority of the near-term market potential for nanocellulose appears to be in its fibrillar versus crystalline form. Market size estimates exceed three prior estimates for nanocellulose applications, but the methodologies for those studies are not transparent.
Article
Full-text available
European governments are rapidly turning to biomass to comply with the EU's legislated renewable energy targets for 2020 and 2030. To do so, EU member states will likely have to increase imports of biomass from timber rich regions, which will undoubtedly disrupt international wood product markets. In this study, a static global forest trade model of coniferous wood products is used to examine the effects of expanded demand for wood pellets in Europe to generate reliable electricity. Positive mathematical programming (PMP) is used to calibrate the model to 2012 bilateral trade flows. To assess the impact of increased wood-pellet demand on global forest products, we consider a scenario where EU demand for wood pellets doubles. Model results suggest increases in the world prices of industrial roundwood (1%), particleboard ($34/m3), fibreboard ($30/m3), pulp ($65/t) and pellets (71% to 128%), while the prices of sawnwood and plywood & veneer are projected to fall by $12/m3 and $4/m3, respectively. The gains and losses are unevenly distributed between timber rich and timber poor regions; Russia, Canada and the U.S. experience large net welfare gains of $706 million, $544 million and $416 million, respectively, while Asia loses $1.8 billion. In the forest products sector, the gains outweigh losses with economic benefits increasing by some $4.9 billion, but this is a cost to the consumers of electricity and/or taxpayers in the regions implementing these renewable energy policies. The price of wood pellets is projected to rise between $107 and $154 per tonne. The findings highlight the need to account for the interconnections among softwood forest products globally.
Article
Full-text available
The main political objectives of EU's renewable strategy are decreased use of fossil energy sources, reduced CO2 emissions and increased energy self sufficiency. Wood based bioenergy plays an important role in this strategy. The potential increase in wood demand for bioenergy production is of high interest for the EU forestry and forest industries due to its impacts on wood prices, profitability of forestry and forest industries, rural employment, recreation and forest ecology. In recent years, several studies have addressed the development of the wood demand for bioenergy, policies affecting it, and the above-mentioned impacts. To facilitate the use of the results by policy makers and other forest and energy sector stakeholders, a synthesis of the studies is in place. What are the policy relevant messages that come out of the studies, and what are the primary issues we lack science based information on? This report seeks addressing these questions, reviewing five recent studies that analyse renewable energy sources (RES) policy implications to forest industry and forest biomass markets with the focus on economic analyses of these implications. The objectives of the report are to summarize major results from these studies, discuss their main policy implications, and identify issues where further research seems most important. The five studies are briefly described in Table E1.
Closing the Loop-an EU Action Plan for the Circular Economy
European Commission, 2015. Closing the Loop-an EU Action Plan for the Circular Economy, European Commission, Communication COM (2015) 614/2.
The Global Forest Sector: Changes, Practices, and Prospects
  • E Hansen
  • R Panwar
Hansen, E., Panwar, R., Vlosky, R. (Eds.), 2013. The Global Forest Sector: Changes, Practices, and Prospects. CRC Press.
Drivers of the European Bioeconomy in Transition (BioEconomy2030): An exploratory, model-based assessment
  • G Philippidis
  • R M'barek
  • E Ferrari
Philippidis, G., M'barek, R., Ferrari, E., 2016. Drivers of the European Bioeconomy in Transition (BioEconomy2030): An exploratory, model-based assessment. Joint Research Centre, European ommission.