Sustainable Low-Carbon Production: From Strategy to Reality
Abstract
:1. Introduction
2. Literature Review
2.1. Analysis of Policies and Strategies for the Goals of the Low-Carbon Transition
2.2. Analysis of Measures and Results from Low-Carbon Transition Deployment
3. Materials and Methods
4. Results and Discussion
4.1. SWOT-Radar Screen Analysis
4.1.1. SWOT-RS at International Strategy Level
4.1.2. SWOT-RS at National Strategy Level
4.1.3. SWOT-RS at Company Strategy Level
4.1.4. Integrated Analysis
4.2. Analysis Using Tropes Zoom Tool
4.2.1. Analyses of Facilitating Measures
4.2.2. Analysis of Planned Results
5. Conclusions
- For policymakers: the conclusions of the investigation have the potential to help in drafting new and improved versions of the documents that have an increased chance to be accepted and applied by the companies operating in the manufacturing sector due to the better correlation of intentions and possibilities in the field;
- For companies: the findings enable businesses in the production sector to follow more concrete goals with higher effectiveness and with less uncertainty and confusion about maintaining an adequate strategic direction, in line with societal expectations;
- For researchers: the methodological approach proposed can represent a more grounded way of approaching the topic of policy research, which is inherently elusive, while the results can form the basis of future empiric studies;
- For the sustainable development movement: the involvement of manufacturers in a prominent capacity can potentially empower the attainment of the goals of UN’s Agenda 2030, especially goal 9—Industry, Innovation and Infrastructure, goal 12—Responsible Consumption and Production and goal 13—Climate Action as mentioned by [47].
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
References
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Present | Future | ||
---|---|---|---|
Advantages. -> S: Strengths | Disadvantages. ->W: Weaknesses | Advantages. ->O: Opportunities | Disadvantages. ->T: Threats |
People are open to accepting carbon neutrality Most people want to contribute to decarbonization Climate change and energy policies support “net zero” transition | Low company involvement Products and solutions are not yet available The goal of decarbonization has not been completely adopted in the public opinion | New job opportunities in the green industries Authorities are pushing for adoption and implementation | International political support can easily change The relationship between climate and weather takes a long time to be absorbed |
Strong stakeholder alliances with the NGO sector | High pollution levels besides carbon emissions | Creation of global networks to support decarbonization | Extreme climate change is already here |
Increasing level of environmental ambitions overall Express desire for more involvement and concrete decisions | Waste quantities are very high (e.g., food, packaging) Not all economic sectors are equally affected and involved | Reducing health costs of citizens due to a better environment Reducing expenses with food, utilities, energy, etc. | Limited understanding of the relation between economic development and climate change in the industry |
Stimulation of sustainable economic growth Acceleration of the transition to clean energy Increasing spending for specific climate issues | Limited resources (e.g., financial, human, know-how) Different priorities depending on the level of development of countries Social cohesion varies among countries | Climate-based competitive advantages Developing new value chains, expanding others Improving the strategic resilience of Europe’s industrial supply chains | Economic issues (e.g., inflation, crises) Unstable geopolitical situation Legacy decision-making processes at the European level |
Elimination of coal-fired and other fossil fuel power plants De-pollution of energy-intensive industries Investments in the circular economy, green economy, bioeconomy, etc. | Carbon emissions from other sectors are not focused upon (e.g., agriculture, construction, etc.) Continued use of fossil fuels, especially in transport | Accelerating the transition towards a “net zero” economy Development of advanced CCS technologies | Effects of carbon emission from outside the EU Long-term (over a century) observation of the results of current measures |
Increased coherence and adoption of European strategies in all member states Development of the EU ETS and institutional support Environmental protection is at the core of the EU’s mission | Few controls are implemented with the strategies and constraint mechanisms are incompletely defined Competing strategies addressing similar topics | Ambitious targets for 2030 and 2050 New and stricter regulations concerning some sectors (e.g., vehicles, air travel) Participation in COP and other global decision bodies and events | Lack of involvement of certain countries Slow progress in many environmental directions Different approaches to economic development depending on living standards |
Present | Future | ||
---|---|---|---|
Advantages. -> S: Strengths | Disadvantages. ->W: Weaknesses | Advantages. ->O: Opportunities | Disadvantages. ->T: Threats |
The responsibility of consumers is increasing Promotion of the transition to a green and circular economy is vigorous | The current Romanian policy framework is difficult to navigate Overarching goals are not clear for all parties involved | Ambitious carbon emission reduction targets until 2030 and further on Clean technologies more readily available Attracting new investments to solve climate issues is possible | The resources needed will be more difficult to obtain Romania is still lagging behind many EU economies |
Involvement of local and regional authorities through public consultations | Conflicting interests and targets of various stakeholders | Government must continuously adhere to European guidelines | Lack of international assistance and support as the economy develops |
Existing national strategies for climate change mitigation Existing sectoral initiatives for decarbonization | Failure to comply with the proposed deadlines Insufficient financial resources Lack of more specialized or localized policy documents | EU has the most ambitious decarbonization process worldwide Structure of many European programs supports country-level deployment | Economic and social instability, concurrent crises Continuously evolving body of knowledge in the field |
Multiple programs that support energy transition and efficiency, as well as electric/hybrid transport | Limited institutional capability to manage and monitor the program results | Alignment to EU average in economic and social terms | Legacy industries employ a significant number of people |
Increase transparency in decision planning Assimilation of useful knowledge from academia | Poor communication and general awareness of the strategic directions | Increasing citizen and stakeholder engagement in strategic planning | Failure to comply with the requirements may lead to drastic penalties for Romania |
Increasing the level of information of the population regarding the reduction of emissions Implementation of specific courses in the field of carbon emissions in schools | Considerable red tape and lack of digitalization at the moment In-depth topics related to decarbonization are not discussed | Support of the European Commission for skill development Sharing best practices with other countries involved | Climate change and industry transformation processes are complex and difficult to encompass in training |
Dedicated long-term programs to train human resources Increasing overall competence in the economy | Lack of incentives for the involvement of the private sector in creating competences | Integration of Romanian universities in European alliances | Complex solution protection and deployment process |
Elaboration of the National Smart Specialization Strategy | Failure to comply with commitments in financing RDI | Improving the regulatory environment Creating strong public-private partnerships | Failure to allocate sufficient funds or use them effectively |
Present | Future | ||
---|---|---|---|
Advantages. -> S: Strengths | Disadvantages. ->W: Weaknesses | Advantages. ->O: Opportunities | Disadvantages. ->T: Threats |
Implementation of modern environmental policies, standards and models | Insufficient qualified people Insufficient available know-how | Good capability for adaptation and development Increasing environmental awareness | Adaptation to the local culture can be difficult Competitive pressures in the global marketplace |
Products with a low carbon footprint | Failure to understand the complex relations regarding carbon emissions along the lifecycle | New markets and customers that are environmentally conscious | Lack of cooperation with the public sector and the customers |
Processes with a low carbon footprint | Failure to understand the steps to be taken to improve the processes Integration of environmental performance KPIs | Use in the change of the company brand image Correlation with CSR initiatives | Increased regulatory requirements and compliance costs |
Ability to forecast environmental impact is increasing | Companies are unprepared in case of major crises | Emerging product-service systems that can gain market share | Poor environmental policies pose operational and financial risks |
Modern equipment is both highly productive and environment-friendly The appearance of carbon footprint calculation software | Lack of resource efficiency in many situations Time needed to adopt and learn to use new technologies | Leveraging networks, associations and know-how hubs, including DIHs | Diminishing public financial support Decarbonization will become commonplace, not a differentiator |
The emergence of advanced emission reduction technologies | Obsolete technology in companies that is still usable from an economic perspective | Industry 5.0 is emerging based on AI technologies and will apply to decarbonization | International competitors have advanced technologies compared to Romanian companies |
Interest for professional development on this topic is high Emerging training programs for decarbonization | Demanding work environments with intense competition Little time to focus on environmental aspects | Exchange experience in various associative structures More external training courses (formal and informal) | Changing generations in the workforce Remote work can remain poorly integrated |
Infrastructure and communication equipment under development and modernization | Insufficient digitalization of processes Carbon-intensive transport options reduce performance | Substantial funds allocated to the infrastructure and to company competitiveness development | Projects in the field have a slow pace and encounter many difficulties |
Romania-based manufacturing companies are aligned with the requirements of the EU | Local environmental problems affect companies as well as people | The consumer market is large and diversified in Romania, accommodating low carbon options | External events and possible exposure to calamities |
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Szabo, D.; Dragomir, M.; Țîțu, M.; Dragomir, D.; Popescu, S.; Tofană, S. Sustainable Low-Carbon Production: From Strategy to Reality. Sustainability 2023, 15, 8516. https://doi.org/10.3390/su15118516
Szabo D, Dragomir M, Țîțu M, Dragomir D, Popescu S, Tofană S. Sustainable Low-Carbon Production: From Strategy to Reality. Sustainability. 2023; 15(11):8516. https://doi.org/10.3390/su15118516
Chicago/Turabian StyleSzabo, Denisa, Mihai Dragomir, Mihail Țîțu, Diana Dragomir, Sorin Popescu, and Silvia Tofană. 2023. "Sustainable Low-Carbon Production: From Strategy to Reality" Sustainability 15, no. 11: 8516. https://doi.org/10.3390/su15118516
APA StyleSzabo, D., Dragomir, M., Țîțu, M., Dragomir, D., Popescu, S., & Tofană, S. (2023). Sustainable Low-Carbon Production: From Strategy to Reality. Sustainability, 15(11), 8516. https://doi.org/10.3390/su15118516