Forest Bioeconomy from the Perspectives of Different EU Countries and Its Potential for Measuring Sustainability
Abstract
:1. Introduction
- RQ1: Is the forest bioeconomy defined in the same way in the studied countries?
- RQ2: Is it possible to consider the support provided through the Rural Development Programme (RDP CZ 2014–2020) as supporting the forest bioeconomy in Czechia?
- RQ3: Will the amount of support change after considering the specific national definitions of the forest bioeconomy?
2. Materials and Methods
2.1. Forest Bioeconomy in Selected EU Countries
- Czechia: The concept of the bioeconomy in Czechia from the perspective of the MoA for 2019–2024 [58]; Strategic framework of the circular economy of Czechia 2040 [59]; The concept of state forest policy until 2035 [60]; The concept of the MoA for the economic policy of the Forests of Czechia, State Enterprise [61]; and the publication BIO HUB CZ [62].
- Slovakia: Low-carbon development strategy of Slovakia until 2030 with an outlook to 2050 [69]; Draft of integrated national energy and climate plan for 2021–2030 [70]; Bioeconomy case study: The wood biomass sustainability criteria in Slovakia [71]; Strategy for bioeconomy in Slovakia—The contribution of the Slovak bioeconomy to the strategic plan SPP 2021–2027 report [72]; and Navrátilová et al. [73,74].
2.2. Rural Development Programme 2014–2020 Analysis
- (a)
- The project name;
- (b)
- The project description;
- (c)
- The project results.
- (a)
- The total expenditure of the project;
- (b)
- The subsidy amount approved—EU;
- (c)
- The subsidy amount approved—national resources;
- (d)
- The subsidy amount approved—total.
2.3. Summary Analysis
3. Results
3.1. Forest Bioeconomy Analysis of the Studied Countries
3.2. Factual Analysis of the Rural Development Programme 2014–2020
3.3. Financial Analysis of the Rural Development Programme 2014–2020
- The reconstruction and renewal of forest roads;
- Construction of new forest roads;
- Flood protection measures (includes projects on building and repairing retention reservoirs and water areas in the forest, watercourse repair, the stabilisation of ravines, remediation of slopes, biotechnical anti-erosion measures in the forests, the reconstruction of water structures and riverbeds, restoration and repair of stone dams, restoration of bridges, etc.);
- Restoration, reconstruction, and transformation of vegetation;
- Construction of fences (in order to protect amelioration/strengthening trees);
- Support of recreational forest functions (includes projects introducing barriers to direct forest visitors, the reconstruction and creation of sports trails and infrastructure, construction and reconstruction of hiking and nature trails, rest areas, and other visitor infrastructure, the construction and renovation of forest parks, etc.);
- Acquisition of machinery and technology for forestry;
- Acquisition of machinery and technology for the timber industry.
3.4. Summary Analysis
4. Discussion
5. Conclusions
- RA1 (research answer): The concept of the FBE is not defined and perceived in the same way in the official documents of the studied countries. The difference also emerges because not all the studied countries have their own bioeconomy strategies. This strategy enables a better grasp and definition of the topic. For countries such as Czechia and Slovakia, it is necessary to use other supporting documents to determine a definition and to proceed from the implicit statement of the FBE. For a more precise statement, further research should, if possible, include focused interviews with representatives of the state administration of the studied countries.
- RA2: Funds provided for forestry operations through the RDP CZ can only partially be perceived as supporting the bioeconomy from the perspective of Czechia. There are doubts as to which operations (see Table 5) of the RDP CZ can be included in the FBE. Above, we described the difference between our analysis versus the perception of the MoA representative (interview). This was caused by the lack of a unified Czech strategy.
- RA3: The amount of FBE support certainly varies according to national specificities. This difference is due to the inconsistent concept of the FBE across all the studied countries. Thus far, there is no single concept that allows for a comparison of the financial support at the country level.
Author Contributions
Funding
Data Availability Statement
Acknowledgments
Conflicts of Interest
References
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Wood (forest biomass) as a forest product |
Non-productive (ecosystem) forest functions |
Mitigation of climate change impacts |
Utilisation of forest production waste |
Research and education in forestry |
New technologies (digitisation, information, and communication technology (ICT), etc.) |
Sustainable development (closer-to-nature forestry) with an emphasis on biodiversity |
Economic aspect of forestry |
Production of wood/wood-based products |
Italy | Finland | Czechia | Slovakia | Germany | |
---|---|---|---|---|---|
Wood (forest biomass) as a forest product | YES | YES | YES | YES | NO |
Wood—the main renewable resource (renewable forest biomass) and its availability | yes | yes | yes | yes | × |
Support of bioenergy, efficient use of forest biomass for energy production | yes | yes | yes | yes | × |
Support of high demands for solid fuels from biomass, bioenergy, and other innovations (e.g., in construction) | yes | × | × | × | × |
Support of fast-growing crops | × | × | yes | × | × |
Classification of wood as a strategic commodity of the state | × | × | yes | × | × |
Non-productive (ecosystem) forest functions | YES | YES | YES | NO | YES |
Support and development of non-productive (ecosystem) forest functions | yes | yes | yes | × | yes |
Higher use of non-wood production forest functions (mushrooms, berries, cork, etc.) | yes | × | × | × | × |
Supporting the emergence of new opportunities and new business models based on the valuation of ecosystem services | × | × | yes | × | × |
Mitigation of climate change impacts | YES | YES | YES | YES | YES |
Climate smart forestry | yes | × | × | × | × |
Reducing greenhouse gas emissions | yes | yes | yes | yes | yes |
Reducing the impact of expected global climate change and extreme weather events | × | × | yes | × | × |
Utilisation of forest production waste | YES | NO | NO | NO | YES |
Circular bioeconomy—e.g., the use of waste and residue in forestry | yes | × | × | × | yes |
Diversification of farms and forests within a circular bioeconomy | yes | × | × | × | × |
Research and education in forestry | YES | NO | YES | NO | NO |
Support of educational programmes in forestry | yes | × | yes | × | × |
Passing on good, traditional practices to young foresters and forestry entrepreneurs | yes | × | × | × | × |
Creation of strategic materials in the field with a higher use of wood mass, wood research, and bioeconomy | × | × | yes | × | × |
Strengthening the importance of research and innovation in forestry | × | × | yes | × | × |
Support of research and technological development in order to increase the competitiveness of the forestry sector | × | × | yes | × | × |
Greater use of a growing number of EU programmes and growing scientific and technological interest in forestry | yes | × | × | × | × |
New technologies (digitisation, ICT, etc.) in forestry | NO | YES | YES | NO | YES |
Use of ICT in logging | × | yes | × | × | × |
Use of digital innovations (e.g., in breeding) | × | × | × | × | yes |
Use of biotechnologies in forestry | × | × | yes | × | × |
Sustainable development (closer-to-nature forestry) with an emphasis on biodiversity | YES | YES | YES | YES | YES |
Establishment of mixed forests, semi-natural management of commercial forests, increasing the stability and vitality of forests | × | yes | yes | yes | yes |
Sustainable water management in the forestry sector | × | yes | × | × | × |
Preserve and increase biodiversity in forest ecosystems, their integrity and ecological stability, dead wood | × | × | yes | yes | × |
Expanding the area of forest land | × | × | yes | × | × |
Increasing emphasis on the achievement of the goals of sustainable development | yes | × | × | × | × |
Economic aspect of forestry | YES | YES | YES | NO | NO |
Maintaining and increasing the contribution of forestry and forests to rural development | yes | × | yes | × | × |
Reduction in wood imports, increase in self-sufficiency | yes | × | × | × | × |
Creating functional value chains and supply networks | yes | yes | yes | × | × |
Certification support (PEFC, FSC) | yes | × | yes | × | × |
Increase in the primary wood processing capacity, including other related fields | × | × | yes | × | × |
Construction of infrastructure for access to remote forests | yes | × | × | × | × |
Increasing the economic viability and competitiveness of sustainable forest management | × | × | yes | × | × |
Production of wood/wood-based products | YES | YES | YES | NO | NO |
Sustainable construction (use of wood), wooden buildings | yes | yes | × | × | × |
Nanocellulose support | × | yes | × | × | × |
Support of wood fibre packaging | × | yes | × | × | × |
Support of biorefineries processing forest biomass | × | yes | × | × | × |
A widespread culture of wood-related crafts | yes | × | × | × | × |
Export of finished wood products (i.e., furniture, window frames, special paper) | yes | × | × | × | × |
Development of innovative wood-based production, management, and services | yes | × | × | × | × |
Development of new certified products, wood composite materials | yes | yes | yes | × | × |
Categories—Supported Areas | Total Project Expenditure | Subsidy Amount Approved—EU | Subsidy Amount Approved—National Sources | Subsidy Amount Approved—Total |
---|---|---|---|---|
Reconstruction + renewal of forest roads | 47,448,773 | 15,481,743 | 16,281,980 | 31,763,722.58 |
Construction of new forest roads | 1,786,503 | 644,401 | 657,420 | 1,301,821.21 |
Flood protection measures | 3,280,932 | 1,201,811 | 1,226,091 | 2,427,902.67 |
Restoration, reconstruction, and transformation of vegetation | 71,997,141 | 8,978,709 | 9,383,827 | 18,362,535.49 |
Construction of fences (in order to protect amelioration/strengthening trees) | 4,234,023 | 1,352,725 | 1,380,063 | 2,732,788.43 |
Support of recreational forest functions | 7,855,546 | 3,055,127 | 3,116,853 | 6,171,980.37 |
Acquisition of machinery and technology for forestry | 71,045,607 | 14,030,646 | 14,314,129 ER | 28,344,775.07 |
Acquisition of machinery and technology for the timber industry | 13,205,789 | 2, 446,948 | 2,496,384 | 4,943,331.81 |
Total | 220,854,315 | 47,192,110 | 48,856,747 | 96,048,857.63 |
Categories—Supported Areas | Concurrence with | ||||
---|---|---|---|---|---|
Italy | Finland | Czechia | Slovakia | Germany | |
Reconstruction + renewal of forest roads | YES | × | × | × | × |
Construction of new forest roads | YES | × | × | × | × |
Flood protection measures | YES | YES | YES | YES | × |
Restoration, reconstruction, and transformation of vegetation | YES | YES | YES | × | YES |
Construction of fences (in order to protect amelioration/strengthening trees) | YES | YES | YES | YES | × |
Support of recreational forest functions | YES | YES | YES | × | YES |
Acquisition of machinery and technology for forestry | × | YES | YES | × | YES |
Acquisition of machinery and technology for the timber industry | YES | YES | YES | × | × |
Categories—Supported Areas | Italy | Finland | Czechia | Slovakia | Germany |
---|---|---|---|---|---|
Reconstruction + renewal of forest roads | 31,763,723 | × | × | × | × |
Construction of new forest roads | 1,301,821 | × | × | × | × |
Flood protection measures | 2,427,903 | 2,427,903 | 2,427,903 | 2,427,903 | × |
Restoration, reconstruction, and transformation of vegetation | 18,362,535 | 18,362,535 | 18,362,535 | × | 18,362,535 |
Construction of fences (in order to protect amelioration/strengthening trees) | 2,732,788 | 2,732,788 | 2,732,788 | 2,732,788 | × |
Support of recreational forest functions | 6,171,980 | 6,171,980 | 6,171,980 | × | 6,171,980 |
Acquisition of machinery and technology for forestry | × | 28,344,775 | 28,344,775 | × | 28,344,775 |
Acquisition of machinery and technology for the timber industry | 4,943,332 | 4,943,332 | 4,943,332 | × | × |
Total | 67,704,083 | 62,983,314 | 62,983,314 | 5,160,691 | 52,879,291 |
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Rinn, R.; Palátová, P.; Kalábová, M.; Jarský, V. Forest Bioeconomy from the Perspectives of Different EU Countries and Its Potential for Measuring Sustainability. Forests 2023, 14, 33. https://doi.org/10.3390/f14010033
Rinn R, Palátová P, Kalábová M, Jarský V. Forest Bioeconomy from the Perspectives of Different EU Countries and Its Potential for Measuring Sustainability. Forests. 2023; 14(1):33. https://doi.org/10.3390/f14010033
Chicago/Turabian StyleRinn, Radek, Petra Palátová, Markéta Kalábová, and Vilém Jarský. 2023. "Forest Bioeconomy from the Perspectives of Different EU Countries and Its Potential for Measuring Sustainability" Forests 14, no. 1: 33. https://doi.org/10.3390/f14010033
APA StyleRinn, R., Palátová, P., Kalábová, M., & Jarský, V. (2023). Forest Bioeconomy from the Perspectives of Different EU Countries and Its Potential for Measuring Sustainability. Forests, 14(1), 33. https://doi.org/10.3390/f14010033