Conference PaperPDF Available

Global Mass Timber Panel (MTP) Industry During the COVID-19 Pandemic: Initial Findings

Authors:

Abstract and Figures

For nearly two years, the COVID-19 pandemic has continued to affect global economies in various ways. It has been disrupting supply/value chains of manufacturers in all sectors, and the mass timber panel industry has not been an exception. However, the exact extent of the impact is difficult to measure by conventional means because the mass timber panel industry is specialty oriented and does not follow a commodity model of other forest products sectors. It has navigated without losses the global recession of 2008. Global surveys of the industry conducted before 2020 have hinted an exponential increase of its output volume (projected more than 2 million cubic meters for 2020) and a healthy growth in regions outside Central Europe. The objective of presented project was to use another survey designed to capture the effect of current crisis. The paper presents preliminary outcomes available ahead of the formal conclusion of that survey.
Content may be subject to copyright.
1
Global Mass Timber Panel (MTP) Industry During the COVID-19 Pandemic:
Initial Findings
Pipiet Larasatie1*, Lech Muszyński1, Eric Hansen1
1Department of Wood Science and Engineering, Oregon State University. Address: Richardson Hall, Corvallis
OR 97331 USA. Email: pipiet.larasatie@oregonstate.edu , lech.muszynski@oregonstate.edu ,
eric.hansen@oregonstate.edu
*Corresponding author; ORCID 0000-0001-5861-7618; www.competitive-forest.com
Abstract
For nearly two years, the COVID-19 pandemic has continued to affect global economies in various ways. It has
been disrupting supply/value chains of manufacturers in all sectors, and the mass timber panel industry has
not been an exception. However, the exact extent of the impact is difficult to measure by conventional means
because the mass timber panel industry is specialty oriented and does not follow a commodity model of other
forest products sectors. It has navigated without losses the global recession of 2008. Global surveys of the
industry conducted before 2020 have hinted an exponential increase of its output volume (projected more
than 2 million cubic meters for 2020) and a healthy growth in regions outside Central Europe. The objective of
presented project was to use another survey designed to capture the effect of current crisis. The paper
presents preliminary outcomes available ahead of the formal conclusion of that survey.
Keywords: Cross-laminated timber, CLT, CLT business, CLT manufacturers, MTP business, MTP manufacturers,
survey, industry survey.
Introduction, scope and main objectives
The global economy, fueled by sustainability concerns to save the planet, is moving towards using renewable
materials for producing sustainable products. This trend has accelerated the use of wood in many aspects of
life, including as construction materials. Wood is believed to make the urban and built environment a more
sustainable space by providing an alternative to steel and concrete construction (Milaj et al. 2017).
With current innovations in engineered wood products, such as mass timber panels (MTP) and advanced
construction technologies, wood has been increasingly perceived as a viable option for high-rise building
material. Compared with concrete and steel buildings, high-rise buildings made mostly from wood are
perceived more aesthetically pleasing, creating a positive living environment, and using materials that regrow
(Larasatie et al. 2018). Due to these reasons, wood has important roles for achieving sustainable development
goals (SDGs), particularly goal no. 11 (sustainable cities and communities) and no. 12 (responsible
consumption and production).
The MTP industry is most prominently represented by adhesive-bonded structural cross-laminated timber
(CLT), a commercially fabricated massive composite panel product comprised of cross-layered pieces of
dimension lumber or structural composite lumber (SCL) bound together by structural adhesives. However, in
this paper, we include some information on similar cross-laminated mass-timber panels made of dimension
lumber but bonded with nails or hardwood dowels. While the most apparent distinction between these three
is the way the layers are bonded together, they also differ substantially in the raw material sourcing,
manufacturing technologies, load bearing capacities, and, consequently in the scope of potential uses.
2
Based on two global MTP industry surveys conducted in Year 2016 (the first survey) and 2019 (the second
survey), 46 plant tours, and supplemented with information obtained from other sources, we observe
increasing production of a complimentary set of cross-laminated, of mass timber panel products using glue,
nails, wooden dowels and other alternative panel integration systems (Albee et al. 2018; Larasatie et al. 2020;
Muszynski et al. 2017; 2021; 2020). In most countries outside the Alpine Region of Europe, growth of the MTP
industry has been encouraged by governments motivated by the desire to find a stable, economically viable
outlet for substantial volumes of domestic lumber of lesser quality.
The state of the MTP industry at the end of 2019 could be characterized as strong. At that time, we estimated
the global annual output of the CLT industry to be approximately 1.44 million m3, based on 60 production
lines. The global annual per-shift capacity in 2019 attributed to 58 specific production lines was about 0.94
million m3. The Alpine region still accounted for over 70% the output volume and nearly 62% of the annual
per-shift capacity (Jauk 2019). Accounting for known CLT operations for which the produced
volumes/capacities were outdated or not available, the total 2019 output was estimated to be in a range of
1.6-1.8 million m3. Considering the number of high-capacity plants that came on line or reached full capacity in
2020, annual production was expected to reach 2.0-2.5 million m3, or more than twice as much as estimated
output volume in 2015/16 (Muszynski et al. 2017).
At the threshold of the 2020s the mass-timber panel (MTP) industry continued its exponential growth across
the globe, including production on each of the inhabited continents. More than 25 years into development of
CLT technology the industry still felt young and full of potential. However, that upbeat picture did not include
the COVID-19 pandemic. The big question since its onset in the first quarter of 2020 is how the pandemic
impacts the MTP industry and what are the perspectives of MTP players regarding the post-pandemic new
normal. Therefore, in this paper, the aim of the 2021 survey (the third survey) has been to capture the effect
of the global COVID-19 crisis on the MTP industry.
This paper is based on the initial findings of the third survey, along with previous reports of the first and
second surveys (Larasatie et al. 2020; Muszynski et al. 2017; 2021; 2020). The principal premise of this work is
that existing CLT operations across the globe provide a living laboratory for understanding the state-of-the-art
and the development of the CLT industry.
Methodology/approach
The questionnaire for the third survey was carefully adapted from the first two. The changes focused at
replacing a set off questions related to more static aspects of the technology with questions related directly to
the effect of the pandemic. The updated survey was translated into seven languages: German, Italian, French,
Japanese, Russian, Spanish, and Chinese by a professional translation company based in the U.S. Each
translation to a foreign language was then translated back to English by native speakers of the respective
languages who were familiar with the industry and the professional terminology used in the survey.
Divergences between original and back-translated version were then discussed and corrected.
Each of language version of a questionnaire was placed into Qualtrics, an online survey platform, for
appropriate delivery for easy access by the target respondent. Each respondent also had access to the English
version of the questionnaire. We generated unique survey links for every targeted respondent to check the
progress of their responses and guide follow up contacts.
Our population was 122 global mass timber panel (MTP) manufacturers known to the research team at the
time of deploying the survey. The list of companies used in the first and second surveys were revised and
expanded to include a possibly complete representation of companies producing cross laminated panels
constructed with mechanical connectors (nails and hardwood dowels) as well as companies who launched
production until early 2021. The information on new companies was acquired through trade journals, online
3
searches, personal contacts, and regional trade associations. Whenever possible, the questionnaires were sent
to individual contacts, targeting company owners, executives, sales managers, and/or production engineers.
General company emails were used when no personal contact could be identified. Data collection was
incomplete at the time of this writing, but consisted of 15 responses, representing a 12% response rate.
Initial findings
To ensure anonymity, information is presented in aggregate format and when discussing regional differences,
the data is parsed by large regions defined in a way to avoid exposing information from a single manufacturer
(Figure 1). Nearly half of responses comes from North American companies, followed by other countries in
Europe than Alpine region (27%), Asia Pacific including Australia and New Zealand (20%), and Alpine region in
Europe (0.07%). These companies are varied in their annual MTP production output, ranging from one to six
digits of m3/year.
Fig. 1: CLT/MTP producing regions.
Ownership of the CLT/MTP plants varies from family enterprises to international holdings. Since almost all
panels are custom produced for specific projects, there is no size standard for MTP panels. As a result, press
types and sizes greatly varied (Figure 2).
Fig. 2: a) DYI hydraulic press; b) press embedded in a turn-key automated line.
4
When asked to compare their CLT/MTP production before the outbreak of COVID-19 and following
implementation of various closures and restrictions to their current production, our respondents to-date are
perfectly divided into three categories of those who managed to increase the production, some were forced to
decrease the production level, while others maintain the production at the pre-covid level. For companies who
stated an increased production, it is mainly due to previously planned business expansion. While companies
experiencing a decreased number cited changes in demand as the cause.
COVID restrictions on the workplace and the inability of employees to work due to COVID (like) symptoms
have affected one company to reduce 75% of its production, compared to the pre covid. The other company,
with 70% of decreased production than the pre covid mentioned an increase in raw material cost as one of the
major problems.
Three of our respondents mentioned there are changes in their markets before and after COVID-19. Two of
them have an increase in medium-scale public buildings while another respondent has more demand in single
family residential housing for the last year.
Discussion and conclusions
Since the publication of the first survey (Muszyński et al. 2017), substantial production capacity has been
added outside the Alpine region of Europe, including a new plant in South Africa, a pilot plant in China, two
short lived lines in Indonesia and feasibility studies conducted in South Korea, Brazil, and Chile. In most
countries outside the Alpine Region, the growth of CLT/MTP industry has been encouraged by the
governments. It is motivated by the desire to add economic values for their domestic lumber, with some lesser
quality species. The incentive programs used as a tool in these campaigns vary by country in terms of scale,
form, and duration. It is important to note that not all of these programs are successful.
Despite a history of over twenty years in Alpine Europe, cross-laminated timber is still a relatively new product.
Industrial organization theory suggests that innovativeness differs across an industry’s life cycle (Utterback
1994). Product innovation is higher during early stages of the life cycle and declines as industries mature, while
process innovation gains importance in later stages. Evidence of this early product innovation is creation of
dowel-bonded, cross-laminated panels; nail bonded, cross-laminated solid wood wall; mass plywood panels;
and dowel laminated timber (DLT) decks, produced in North America, in which all laminations run parallel to
each other.
Given the unique nature of the industry, we are not confident that mass timber panels will follow the
theorized pattern where one dominant product design is accepted, becomes a standard, and subsequently
manufacturers concentrate on process efficiencies. It is important to stress that the mass timber panel
industry is an exception to the traditional commodity-oriented forest products industry at large, even if one
compares it to other sophisticated Engineered Wood Products (EWP) such as glulam, Laminated Veneer
Lumber (LVL), Parallel Strand Lumber (PSL), or I-joists.
Large panel dimensions, weight, and high unit value work against standardization (Muszyński et al. 2021). In
fact, almost all mass timber panels are custom manufactured for specific jobs, which requires a substantial
level of flexibility in the manufacturing process. Previous findings show that a very low percentage of mass
timber panels are produced as “blanks” (Muszyński et al. 2017), and even these are made “to order”, not
placed into inventory. Due to this, we do not expect a significant amount of standardization or
commoditization to take place in the short to medium time frame. This is despite the fact that standardization
is the normal approach for mainstream forest sector companies when they develop new products, and is an
expectation often expressed by experts both within and outside the industry.
When considering the development of the mass timber sector, it must always be kept in mind that
manufacturing mass timber panels is one component of a complex process that results in a final product, a
usable structure. Panels are not directly marketed to general consumers. Success of a panel manufacturing
5
operation requires a deep immersion in a complex building ecosystem and a greater than in traditional
construction technologies level of integration of project management along the supply chain. This is why many
mass timber panel producing companies house their own engineering design teams and almost as many own
construction services companies. Vertical integration through control of these operations within that
ecosystem assures a seat at the table and helps guarantee a market.
The adoption/diffusion of a new product into the market is typically a lengthy process led by “innovators”
(Rogers, 2003). The signature mass timber buildings being created around the globe today are designed by
innovating teams which almost invariably include panel manufacturers along with partners representing other
elements of the supply chain involved in projects from their earliest stages. Early adopters learn from the
experiences of innovators. If the outcomes achieved by the innovators are sufficiently positive, these early
adopters then enter into the picture, and this is when product volumes can see significant growth. Eventually,
the less innovative members of the marketplace also adopt the product or technology. The ecosystem
described above likely slows the adoption/diffusion process since alignment of multiple innovators is
necessary, not just a single buyer adopting a new product.
Given currently available information, we feel it is safe to predict further product innovation as the global mass
timber panel industry continues slow- to medium-paced growth, even as the ultimate impact of pandemic on
the industry remains unclear. It is also safe to say that innovation in the production of panels is closely related
to innovation in connectors, construction technology, integrated project management and a constellation of
allied products and services they depend on.
Acknowledgements
This project was funded by USDA ARS program. The authors also acknowledge supports from Taylor Barnett
and Evan Bright.
The views expressed in this information product are those of the author(s) and do not necessarily reflect the
views or policies of FAO.
References
Albee RR, Muszyński L, Hansen EN, Knowles CD, Larasatie P, Guerrero JEM. 2018. Recent Developments in
Global Cross-Laminated Timber (CLT) Market. In Proceedings of the 2018 World Conference on Timber
Engineering, Seoul, Korea.
Jauk, G. 2019. “Special CLT Issue.” Holzkurier.
Larasatie P, Albee RR, Muszyński L, Guerrero JEM, Hansen EN. 2020. Global CLT Industry Survey: The 2020
Updates. In Proceedings of the 2020 World Conference on Timber Engineering, Santiago, Chile.
Larasatie P, Guerrero JEM, Conroy K, Hall TE, Hansen EN, Needham MD. 2018. What Does the Public Believe
about Tall Wood Buildings? An Exploratory Study in the US Pacific Northwest.” Journal of Forestry,
116 (5): 42936. https://doi.org/10.1093/jofore/fvy025.
Milaj K, Sinha A, Miller TH, Tokarczyk JA. 2017. Environmental Utility of Wood Substitution in Commercial
Buildings Using Life-Cycle Analysis. Wood Fiber Sci, 49 (3): 33858.
Muszyński L, Hansen EN, Fernando S, Schwarzmann G, Rainer J. 2017. Insights into the Global Cross-Laminated
Timber Industry. BioProducts Business, 7792.
Muszyński L, Larasatie P, Guerrero JEM, Albee RR, Hansen EN. 2020. Global CLT Industry in 2020: Growth
beyond the Alpine Region. In Proceedings of the 63rd International Convention of Society of Wood
Science and Technology, online.
Muszyński L, Larasatie P, Hansen EN, Guerrero JEM, Albee RR. 2021. Mass-Timber Panel (MTP) Industry and Its
Supply/Value Chain. In Proceedings of the 64th International Convention of Society of Wood Science
and Technology, Flagstaff, Arizona, USA.
6
Rogers, E. 2003. Diffusion of innovations (5th ed.). New York, NY: Free Press, 551 pp.
Utterback, JM. 1994. Mastering the Dynamics of Innovation, How Companies Can Seize Opportunities in the
Face of Technological Change. Boston, MA: Harvard Business School Press, 253 pp.
ResearchGate has not been able to resolve any citations for this publication.
Conference Paper
Full-text available
Building on the first of its kind review of the global CLT industry published in 2017, this paper aims to provide insight into the global CLT industry. Based on two global CLT industry surveys, 46 plant tours, and supplemented with information obtained from other sources, we observed an increasing production trend of a complimentary cross-laminated panel products that use nails, wooden dowels and other alternative panel integration systems. In most countries outside the Alpine Region, the growth of the CLT industry has been encouraged by the governments motivated by the desire to find a stable, economically viable outlet for substantial volumes of domestic lumber of lesser quality. At the beginning of 2020, we estimated that, considering the number of high-capacity plants ready to go in line or reach full capacity in 2020, the global annual output might reach 2.0-2.5 million m 3 by the end of the year. However, this number does not reflect the impact of the COVID-19 pandemic, something we will investigate in a third survey.
Conference Paper
Full-text available
At the threshold of 2020, the cross-laminated timber (CLT) industry continues its incredible growth across the globe. The total output of the industry in 2020 is projected to reach 2 million cubic meters. The only continent where no new CLT plants come on line or are at least planned in 2020 is Antarctica. Although many new CLT lines were recently deployed outside of the Alpine region from where the industry evolved, Alpine countries still account for over 70% the output volume and nearly 62% of the annual per-shift capacity. And yet, after more than 25 years of CLT technology development, the industry still feels young and no less intriguing. The goal of this presentation is to provide updated insights into the global CLT industry structure, output potential, production profile, internal diversity, competitiveness, innovativeness, and perceived barriers to further expansion, including the unknown effects of the COVID-19 pandemic. The presentation is based on two global CLT industry surveys, 46 plant tours, and supplemental information from secondary sources. These results are intended to provide insights for potential entrants and stakeholders into the CLT manufacturing sector, including businesses along its extensive supply chain.
Conference Paper
Full-text available
Cross-laminated timber (CLT) has grown from an invention to a much-celebrated product and building technology revolutionizing the use of massive timber in construction. The CLT industry is concentrated in Alpine Europe, where the technology was originally developed. Despite great interest, the rate of adoption of CLT technology outside of the region is slow, reflecting uncertainty whether the European models can be successfully transplanted in different business environments. The goal of this project was to assist development of the CLT industry by providing insights into the global sector’s structure, output potential, production profile, internal diversity, competitiveness, approaches to innovativeness, and perceived barriers to further expansion. Survey data collected from CLT manufacturers are supplemented with information obtained from other sources including site visits and interviews. The primary finding is that the CLT manufacturing industry is very diverse and unique in the commodity-oriented forest sector in that most of its production is custom-made for specific projects. Most of the CLT is produced for small to medium-size multi-family housing, public, and industrial structures. There is a high level of collaboration along the CLT supply chain, including vertical integration. Nearly one-third of respondents are involved in building construction.
Article
Full-text available
Cross laminated timber (CLT) has, in recent years, grown from an invention to a much celebrated product and building technology revolutionizing the use of massive timber in construction. The CLT industry is concentrated in Alpine Europe, where the technology was originally developed and where most CLT is still produced. Despite great interest, the rate of adoption of CLT technology in the US is slow, reflecting uncertainty with regard to whether the European models can be successfully transplanted to the business environment of the USA. The goal of this project was to assist development of the CLT industry by providing insights into the global sector’s structure, output potential, production profile, internal diversity, competitiveness, innovativeness, and perceived barriers to further expansion. Survey data collected from 21 CLT manufacturers was supplemented with information obtained from other sources. The primary finding is that the CLT manufacturing industry is unique in the commodity-oriented forest sector in that most of its production is custom-made for specific projects. While much of the hype surrounding CLT is focused on tall buildings, most of the CLT is produced for small to mediumsize multi-family housing, public, and industrial structures. There is a high level of collaboration along the CLT supply chain, including vertical integration. Nearly one-third of respondents are involved in building construction. This first of its kind comprehensive review of the global CLT industry provides insights for potential entrants into the CLT manufacturing sector including businesses along its extensive supply chain.
Article
Little is known about what the public thinks of tall wood buildings (TWBs), which are structures made primarily from wood that are at least five stories tall. Understanding end-user beliefs can help the industry address public preferences and concerns. An online panel of 502 residents in the Portland, Oregon, and Seattle, Washington, metropolitan areas showed that only 19 percent were familiar with TWBs. The largest percentages of respondents believed that, compared with concrete and steel buildings, TWBs are more aesthetically pleasing, create a positive living environment, and use materials that regrow. However, they also believed that TWBs have greater fire risk and need more maintenance. Sizable percentages of respondents said they did not know about various durability, performance, aesthetic, and environmental attributes of TWBs. There were few meaningful differences between respondents who reported being familiar and unfamiliar with TWBs, but those who were familiar evaluated TWBs slightly more positively.
Article
Wood is the predominant construction material in the US residential sector. In commercial and midrise construction, the use of wood is limited compared with reinforced concrete and steel. Wood, being a natural, renewable material that sequesters carbon, is a natural fit for newer construction with enhanced sustainability goals. The objective of this study is to evaluate and identify the environmental utility (avoided emissions) of using wood in place of steel and concretc in the commercial construction and renovation sectors in Oregon, United States. The study used comparative, cradle-to-grave, life-cycle analysis, with Athena Impact Estimator for Buildings. Six case studies that represent different building functionalities, material systems, and construction techniques were modeled via the user interface input option, and the results were evaluated for global warming potential (GWP) and impacts on energy sources, such as fossil fuel consumption, when structural materials arc substituted using wood. Out of the six case studies, one building was completely redesigned as per current codes using wood as the major structural material. Bills of materials for both wood redesigns and the as-built designs were used as input in the software and subsequently analyzed. Results showed that the average reduction in GWP due to wood substitution was about 60% across the six case studies. These findings reinforce the perception of wood as a green building material having potential for commcrcial construction.
Article
Explores how innovation transforms industries, suggesting a strategic model to help firms to adjust to ever-shifting market dynamics. Understanding and adapting to innovation -- 'at once the creator and destroyer of industries and corporations' -- is essential with increasing fragmentation and foreign competition, and the consequent demand for high cost-value and globally appealing products. Business cycles and population ecology (which focuses on linkages between survival, population density of firms, and size and growth of the market) are used to explain the surprising amount of movemente that characterizes even the largest, most established firms. The history of innovation is explored through a diverse variety of industries -- from typewriters to incandescent light bulbs to ice. These accounts show that entrepreneur-inventors and innovative firms tend to become conservative and defensive as the market expands beyond their original concept; this is the point at which it becomes difficult for the firm, originally innovative, to keep up with market shifts. Following these trends, organizations are either organic or mechanistic. Organic firms operate in an uncertain environment, so that individuals must collaborate on frequent adjustments in a limited hierarchy with a rich flow of communication. Mechanistic organizations, on the other hand, are characterized by rigid coordination that establishes consistent routines, especially following the advent of a successful corporate innovation. Firms must accept the inevitability of change by valuing innovation even above past success; one of management's most essential roles is to find a balance between supporting new and established innovations. (CJC)
Mass-Timber Panel (MTP) Industry and Its Supply/Value Chain
  • L Muszyński
  • P Larasatie
  • E N Hansen
  • Jem Guerrero
  • R R Albee
Muszyński L, Larasatie P, Hansen EN, Guerrero JEM, Albee RR. 2021. Mass-Timber Panel (MTP) Industry and Its Supply/Value Chain. In Proceedings of the 64th International Convention of Society of Wood Science and Technology, Flagstaff, Arizona, USA.