Managing Greenhouse Gas Emissions Research Articles

Upcycling heteroatoms-containing plastics via bimetallic synergistic catalysis: Unveiling the role of O and Cl in C-H bond cleavage

Given the complicated compositions and hazards of heteroatoms-containing plastics, the efficient upcycling remains a huge challenge. Herein this work proposed an innovative route via dual-stage pyrolysis-catalysis platform to upcycle heteroatoms-containing plastics for high-purity H2 and carbon nanotubes (CNTs) production. Among HY-supported metallic catalysts, bimetallic Fe-Co/HY achieved the maximum H2 yield (41.25 mmol/gplastic) and selectivity (71.76 vol%), alongside the carbon production of 520 mg/gplastic, revealing a catalytically synergistic effect between Fe and Co. Of the plastic individuals/combinations, the plastic combination (PW2) revealed the highest hydrogen efficiency (87.03 %) and H2 efficiency (49.71 %). Regarding the interactions among polyolefins, polyesters, Cl-containing plastics, ternary plastics (PE-PET-PVC) exhibited the higher H2 yield (35.33 mmol/gplastic), hydrogen efficiency (91.40 %), and H2 efficiency (49.14 %) than individual counterparts. The CNTs yield and purity gained from ternary PE-PET-PVC even outperformed these results obtained from individual PE (yield: 326.7 mg/gplasticvs 323.9 mg/gplastic; purity: 93.5 % vs 90.3 %). That was because the chlorinated aryloxy radicals generated from PVC and PET facilitated the cleavage of C (sp3)-H bonds, thereby enhancing the hydrogen extraction and carbon formation. Besides, NiO and NiAl2O4 on the catalyst were converted into NiCl2 by PVC-derived Cl· or HCl, subsequently being reduced into reactive Ni0. Additionally, bimetallic Ni-Fe/HY during CO2-mediated pyrolysis-catalysis displayed the highest H2 yield (55.67 mmol/gplastic), syngas purity (82.39 %), H2 efficiency (62.34 %), and CNTs yield of 367 mg/gplastic, reflecting an apparent synergistically catalytic effect between Ni and Fe. Overall, this study provides a superb solution in heteroatoms-containing plastics upcycling and greenhouse gas emission management.

From bricks to bytes: Verifiable data for decarbonizing the building sector

Amidst the pressing need to combat climate change and curb greenhouse gas (GHG) emissions, the building sector emerges as a pivotal sector, substantially impacting worldwide emissions. Despite efforts to improve energy efficiency and incorporate non-fossil energy sources, the sector still lags in achieving the necessary decarbonization goals. Existing Building Energy Management Systems primarily prioritize economic criteria, overlooking the vital aspect of emissions reduction. Energy Informatics and Information Systems hold the potential to bridge this gap by enabling precise and verifiable GHG emissions accounting, end-to-end real-time tracking, and automated verification within Energy Management Systems (EMS). This paper presents research on designing the advancement of EMSs in the form of a Building Energy Emission Management System (BEEMS) leveraging verifiable emission data for emission-based actions. The central research question revolves around designing BEEMS to facilitate emission-based actions based on verifiable data. Following a multi-step approach, the research methodology encompasses a comprehensive literature review and iterative evaluation of our design principles through a workshop and semi-structured interviews with experts from industry and research. The contributions include a conceptual architecture of a BEEMS and six design principles for future BEEMS development. Ultimately, this research strives to facilitate end-to-end verifiable GHG emissions management in the building sector to enable emission-based energy consumption decisions, contributing to the existing body of knowledge of the Energy Informatics field on BEEMS.

Organic Fertilizers and Bio-Waste for Sustainable Soil Management to Support Crops and Control Greenhouse Gas Emissions in Mediterranean Agroecosystems: A Review

Agriculture is facing several challenges related to its sustainability. In this regard, the need to reduce its environmental impact related to the use of synthetic inputs and its potential role in mitigating global warming and climate change call for a review of crop management. In this context, and in the framework of achieving sustainable development goals, the use of organic fertilizers and bio-waste represents a valuable contribution to the agricultural transition towards a bioeconomy model by reducing the negative impacts of waste disposal. Farmyard manure, composts, digestate from agrifood processes, and biochar are, among organic fertilizers, commonly used to manage soils and support crop growth. These fertilizers can provide essential nutrients, improve structure, and enhance microbial activity, thus increasing soil fertility and agriculture sustainability. While organic fertilizers offer the benefits of soil fertility and plant nutrition, their impact on greenhouse gas (GHG) emissions is complex and varies depending on factors such as fertilizer type, soil conditions, and management practices. Although organic fertilizers may initially increase GHG emissions, they often lead to carbon sequestration in soils highlighting a negative C balance. Additionally, organic fertilizers promote a reduction in fossil fuel consumption used for synthetic fertilizer production, further contributing to GHG emissions’ reduction. Therefore, while organic fertilizers pose challenges in managing GHG emissions, their various benefits warrant careful consideration and strategic implementation in agricultural systems.

Smart Agriculture and Greenhouse Gas Emission Mitigation: A 6G-IoT Perspective

Smart farming has emerged as a promising approach to address the agriculture industry’s significant contribution to greenhouse gas (GHG) emissions. However, the effectiveness of current smart farming practices in mitigating GHG emissions remains a matter of ongoing debate. This review paper provides an in-depth examination of the current state of GHG emissions in smart farming, highlighting the limitations of existing practices in reducing GHG emissions and introducing innovative strategies that leverage the advanced capabilities of 6G-enabled IoT (6G-IoT). By enabling precise resource management, facilitating emission source identification and mitigation, and enhancing advanced emission reduction techniques, 6G-IoT integration offers a transformative solution for managing GHG emissions in agriculture. However, while smart agriculture focuses on technological applications for immediate efficiency gains, it also serves as a crucial component of sustainable agriculture by providing the tools necessary for long-term environmental supervision and resource sustainability. As a result, this study also contributes to sustainable agriculture by providing insights and guiding future advancements in smart farming, particularly in the context of 6G-IoT, to develop more effective GHG mitigation strategies for smart farming applications, promoting a more sustainable agricultural future.

Energy Diplomacy in the Era of Energy Transition

The development of international relations after the 1973 oil crisis was accompanied by the emergence of such phenomena and concepts as global and regional energy security, energy security of states, foreign energy policy and energy diplomacy. Institutionalization and development of mechanisms ensuring energy security – including global energy security – occurred and continues to occur under the conditions of dominance of hydrocarbon fossil fuels in the world energy balance, as well as in the context of energy consumption worldwide. The priorities of its provision at the global, regional and state levels were and are the security of demand, supply and transit of hydrocarbon raw materials, and the diversification of energy sources. After signing the Paris Climate Agreement in 2015, efforts are being made to accelerate the low-carbon transformation of the world economy and the pace of the global energy transition. This involves mechanisms for responsible investment, carbon regulation, greenhouse gas emissions management (climate management); uses a variety of socially significant interpretations of ongoing climate change. These processes are increasingly determining the foreign energy policy of states, international energy diplomacy and influencing the previously formed mechanisms for ensuring energy security. The article is aimed at generalization and systematization of the ongoing changes in the activities of both traditional international centers and institutes of global energy policy, and relatively new international platforms in the subject area under consideration, primarily the Conferences of the Parties to the United Nations Framework Convention on Climate Change and their impact on energy policy and energy diplomacy.

A Review on the Process of Greenhouse Gas Inventory Preparation and Proposed Mitigation Measures for Reducing Carbon Footprint

Greenhouse gases trap heat in the atmosphere, causing the Earth’s surface temperature to rise. The main greenhouse gases are carbon dioxide, methane, nitrous oxide, perfluorocarbons, hydrofluorocarbons, and sulfur hexafluoride. Human activities are increasing greenhouse gas concentrations rapidly, which is causing global climate change. Global climate change is increasing environmental and public health problems. To reduce greenhouse gas emissions, it is necessary to identify where the emissions are coming from, develop a plan to reduce them, and then implement and monitor the plan to ensure that emissions are actually reduced. Anthropogenic global climate change has large and increasingly adverse economic effects. Cities emit the most greenhouse gas due to fossil fuel burning and power usage. The four major greenhouse gas emitters are energy, transportation, waste management, and urban land use sectors. Organizations should prepare action plans to lower their greenhouse gas emissions and stop the worst consequences of climate change. These action plans require companies and local authorities to submit their greenhouse gas emissions reports on a yearly basis. A greenhouse gas emissions management system includes several processes and tools created by organizations to understand, measure, monitor, report, and validate their greenhouse gas emissions. Two of the most widely adapted frameworks for greenhouse gases inventory reporting are ISO 14064 and the greenhouse gas protocol. This review paper aims to identify some of the key points of GHG inventory preparation and mitigation strategies.

The impacts of environmental collaboration on the environmental performance of agri-food supply chains: a mediation-moderation analysis of external pressures

ABSTRACT Although researchers have investigated the relationship between inter-organisational collaboration and firm performance, there is scattered evidence on the relationship between environmental collaboration and environmental performance in agri-food supply chains. This study assesses the effects of environmental collaboration on five dimensions of environmental performance (greenhouse gas emissions management, energy management, food waste management, food safety management, and water footprint management) in agri-food supply chains, particularly when mediated and moderated by customer and regulatory pressures. This study used a survey of Chilean agri-food companies. The data were analyzed using partial least squares structural equation modelling. We found that environmental collaboration positively influences all five dimensions of environmental performance and that customer and regulatory pressures mediate this relationship. The dimension most affected by environmental collaboration was water footprint management. Finally, we provide recommendations for improving the environmental performance of companies in agri-food supply chains through collaboration.

Managing greenhouse gas emissions using a neural network from gas generating plants

Managing greenhouse gas emissions using a neural network from gas generating plants

A Platform for GHG Emissions Management in Mixed Farms

This research introduces an innovative platform designed to manage greenhouse gas (GHG) emissions in mixed farms. Emphasizing the urgent need to address GHG emissions, particularly methane (CH4) and nitrous oxide (N2O), the platform targets mixed farming systems where the interplay of livestock and crop production significantly contributes to environmental impacts. Our methodology is grounded in comprehensive data collection, encompassing soil data, energy consumption, and detailed livestock information. Utilizing the Agricultural Internet of Things (AIoT), it facilitates real-time data acquisition and analysis, providing insights into various farm activities’ GHG emissions. This approach allows for precise monitoring and management of emissions from different sources, including enteric fermentation in livestock and fertilizer use in crop production. Results from the application show its effectiveness in offering a clear and interactive visualization of GHG emissions, aiding farmers in making informed decisions for sustainable farm management. The platform’s user management system, coupled with advanced data processing and visualization capabilities, underscores its potential as a vital tool for sustainable farming. Conclusively, Solution4Farming represents a significant advancement in digital agriculture, combining IoT technology with sustainable practices. Though initially designed for Romanian cattle farming, Solution4Farming’s anticipated expansion to various farming environments suggests a broader impact and relevance in sustainable agriculture.

Comprehensive analysis of refrigerant R134a: Implications for estimating and managing greenhouse gas emissions

This study introduces a comprehensive analytical method for assessing refrigerant purity, offering various insights into accurate and precise estimations of greenhouse gas (GHG) emissions and the reclamation of refrigerants. Samples of three different states of CH2FCF3 (R134a), namely recovered R134a, reclaimed R134a, and new R134a, were prepared and analyzed for all impurities. Non-condensable gases (O2, N2, CH4, CO, and H2) were analyzed using gas chromatography (GC) with a thermal conductivity detector (TCD) and a pulsed discharge detector (PDD), and unidentified complex compound impurities containing C, H, Cl, and F were investigated using GC with mass spectrometry (MS) and an atomic emission detector (AED). The purities of the three samples were determined by calculating the total quantity of impurities and their uncertainties. The calculated values for the purities of recovered R134a, reclaimed R134a, and new R134a were 953,125.38 µmol/mol (1,272.45 µmol/mol, k = 2), 998,529.67 µmol/mol (31.58 µmol/mol, k = 2), and 998,803.56 µmol/mol (32.50 µmol/mol, k = 2), respectively. The majority of impurities detected were GHGs with high global warming potentials (GWPs) up to 11,200. Certain impurities were found at concentrations exceeding 1,000 µmol/mol. The annual GHG emissions resulting only from R134a impurities in South Korea were approximately 0.01 MtCO2eq. Because of the large number of GHGs in refrigerants, a comprehensive examination of refrigerant impurities is necessary for refrigerant monitoring and GHG inventory management.

Modeling Indirect Greenhouse Gas Emissions Sources from Urban Wastewater Treatment Plants: Integrating Machine Learning Models to Compensate for Sparse Parameters with Abundant Observations.

Electricity consumption and sludge yield (SY) are important indirect greenhouse gas (GHG) emission sources in wastewater treatment plants (WWTPs). Predicting these byproducts is crucial for tailoring technology-related policy decisions. However, it challenges balancing mass balance models and mechanistic models that respectively have limited intervariable nexus representation and excessive requirements on operational parameters. Herein, we propose integrating two machine learning models, namely, gradient boosting tree (GBT) and deep learning (DL), to precisely pointwise model electricity consumption intensity (ECI) and SY for WWTPs in China. Results indicate that GBT and DL are capable of mining massive data to compensate for the lack of available parameters, providing a comprehensive modeling focusing on operation conditions and designed parameters, respectively. The proposed model reveals that lower ECI and SY were associated with higher treated wastewater volumes, more lenient effluent standards, and newer equipment. Moreover, ECI and SY showed different patterns when influent biochemical oxygen demand is above or below 100 mg/L in the anaerobic-anoxic-oxic process. Therefore, managing ECI and SY requires quantifying the coupling relationships between biochemical reactions instead of isolating each variable. Furthermore, the proposed models demonstrate potential economic-related inequalities resulting from synergizing water pollution and GHG emissions management.

The impact of environmental trade policy on regional greenhouse gas management

The study analyzes the environmental condition of regions to analyze the need to implement changes in environmental trade policy to reduce greenhouse gases and anthropogenic impacts on the regional ecosystem. Identified ways to reduce greenhouse gases, one of which is to change consumer preferences in favor of purchasing eco-friendly products. These have a minimal negative impact on the ecosystem during the life cycle without creating a large number of greenhouse gases during production that can be recycled. The study analyzes the possibilities of reducing the ecological footprint due to changes in energy consumption as the main tool for overcoming the accumulation of negative environmental effects. The environmental damage caused by the war in Ukraine is more than 50 million dollars. The environmental impact of the war in Ukraine is more than $50 million, which can be reduced through a complete reorganisation of the country’s production and everyday life. The study substantiates the environmental trade policy aimed at reducing greenhouse gases and introducing the latest technologies and digitalization achievements. Regional management of greenhouse gas emissions is proposed based on the possibility of selling one’s emissions quotas to other countries to reduce the negative environmental footprint.

A dataset of soil carbon flux in Xishuangbanna tropical rainforest ecosystem from 2003 to 2008

Long-term and large-scale carbon flux data supports research on key processes of the global carbon and water cycle. Soil is the largest carbon pool in the terrestrial ecosystem. Small variations in soil carbon can significantly impact the carbon budgets of terrestrial ecosystems. Tropical forest is a crucial carbon sink in the world. However, there have been some reports indicating a decrease in soli carbon levels, potentially approaching neutrality, as a result of soil carbon degradation caused by global changing. Thus, the long-term and continuous observation of soil carbon flux is of great significance for evaluating the role of soil carbon in the tropical carbon cycle. ChinaFLUX Observation and Research Network (ChinaFLUX) has not only conducted the observation and research on carbon flux by using vorticity correlation technology, but also carried out the long-term observation and research on surface CO2 flux by using the box method. In this dataset, we collected and sorted out the soil CO2 emission flux data and conventional meteorological data of Xishuangbanna tropical rain forest ecosystem from January 2003 to August 2008 according to the static box observation method and data quality control management of greenhouse gas emissions. The dataset consists of three types of files at daily, monthly and yearly scales, covering surface CO2 flux, pressure, atmospheric temperature, soil temperature (5 cm) and soil water content (5 cm). It is expected to provide essential data for estimating carbon balance and understanding carbon cycle processes at both tropical and global scales.

Corporate carbon management system

The basis of the company’s decarbonization is the effective management of greenhouse gas emissions. The article visualizes in graphic material the forecast values of the mass of greenhouse gas emissions in the fuel and energy sector of Russia until 2030 and determines the trends in their changes. Based on the results of the analysis, it was revealed that in order to achieve a low-carbon development path, it is necessary to introduce additional measures to reduce greenhouse gas emissions. The purpose of the scientific research is to develop a corporate carbon management system, which can become a guideline for the development of corporate systems by Russian oil and gas companies. A reliable system for recording and monitoring greenhouse gas emissions serves as the basis for obtaining up-to-date, complete and reliable data. At the same time, for the quality control of the decarbonization process, a scheme of interaction within the company should be clearly built. The development and implementation of a carbon management system will allow the company to systematically reduce greenhouse gas emissions, which will create conditions for the transformation of climate risks associated with government regulation into the category of opportunities such as entering carbon markets, attracting investors, etc. The authors note that in most large Russian companies have already developed and introduced carbon management systems into production. After analyzing the current greenhouse gas accounting system of JSC “Zarubezhneft’’, the authors propose to create a carbon management system taking into account the specifics of the company, which consists in organizing activities on the territory of different countries (Cuba, Bosnia and Herzegovina, Egypt, Uzbekistan, Indonesia, Vietnam and Russia). It is proposed to adapt the methodological approaches for calculating greenhouse gas emissions to the requirements of the legislation in force in the territory where the production facilities of the JSC “Zarubezhneft’’ are located, and also to apply national coefficients in the calculation to ensure more accurate emission estimates. The result of the study is the development of the concept of the carbon management system of JSC “Zarubezhneft’’.

CO2-mediated catalytic upcycling of plastic waste for H2-rich syngas and carbon nanomaterials

To establish a reliable disposal platform of plastic waste, this work developed a novel dual-stage CO2-medaited decomposition-catalysis route by applying multi-functional zeolite-supported bimetallic catalysts. Catalytic upcycling of plastic was first performed in Ar as a reference environment. Bimetallic Fe-Co/ZSM5 catalyst achieved the highest gas yield (53.98 mmol/g), with a H2 proportion of 62.17 vol%. It was evidenced that the Fe-Co alloy had an apparent positive synergistic effect on catalytic cracking and reforming of intermediate volatiles into H2-rich fuel gas and pure carbon nanotubes (CNTs). Regarding CO2-mediated decomposition-catalysis of plastic, there was an apparent synergistic effect between metallic Ni and Fe on gas production so that bimetallic Ni-Fe catalyst gained the maximum cumulative gas yield of 82.33 mmol/g, with a syngas purity of ∼74%. Ni-Fe/ZSM5 also achieved the maximum hydrogen efficiency (87.38%) and CO2-to-CO conversion efficiency (98.62%), implying hydrogen content in plastic and oxygen content in CO2 were essentially converted into gases. Additionally, bimetallic Ni-Fe catalyst revealed the highest carbon production (33.74 wt%), witnessing a synergistic enhancement of 43.45%; specially, approximately 257 mg/g CNTs were anchored on Ni-Fe/ZSM5, with a CNTs purity of over 76%. Overall, this study offers a superb solution in plastic waste valorization and greenhouse gas emission management.

Вуглецеві кредити та офсети в контексті державної політики сталого розвитку

Introduction. Overcoming the coronavirus crisis made it possible to return the focus of the authorities to global issues of sustainable recovery, which are directly related to the so-called green course and the transition to a low-carbon economy. At the international level, the Intergovernmental Panel on Climate Change (IPCC) has implemented a number of initiatives that determine the importance of reducing greenhouse gas emissions on the planet, including carbon dioxide (CO2). Worthy of special attention is the fact that it is necessary to implement appropriate strategies of state support and the involvement of progressive financial instruments in order to develop the priorities of the low-carbon economy. Problem Statement. Assessment of prospects for the development of carbon credits and offsets in the context of expanding the range of monetary and fiscal instruments of state regulation of sustainable development. Purpose. To substantiate the essential characteristics of carbon credits and offsets with the aim of providing proposals for the use of foreign experience to create an effective state mechanism designed to stimulate their use for the reconstruction of the economy of Ukraine, namely qualitative recovery, based on maintaining the appropriate level of environmental, social and management components, stimulating the financing of relevant projects and programs. Methods. General scientific and special methods were used, in particular: scientific abstraction and epistemological (content) analysis, synthesis, induction and deduction, analogies and systematization, system-structural analysis, expert evaluation method, index method and grouping method. Results. The article examines the modern environment of sustainable development, considers the state and the potential of popularizing carbon credits and offsets on the way to sustainable development, prospects and tools for developing the relevant market. In addition, the study emphasizes the stages of formation of the carbon credits market. Emphasis is placed on the possibilities of interaction between the participants of the carbon credit market. In view of expanding the practical application of carbon credits, the differences between carbon credits and offsets are emphasized. Forecasts of the development of the global market of carbon credits and offsets were analyzed. Fiscal instruments of influence on the European market of carbon credits and offsets were considered, which made it possible to assess the applied aspects of their application, in particular for the recovery of the economy of Ukraine. Conclusions. Carbon credits are a kind of asset, namely, they make it possible to determine the rights to emit carbon gases. Instead, carbon offsets have a “passive” nature, because they are represented by units that confirm the possibility of reducing these emissions. The annual growth of the volume of carbon credits and offsets in the world determines the need to strengthen the system of state regulation of the processes that take place in the market. Accordingly, the world is integrating the tools of monetary and fiscal policy into the system of managing greenhouse gas emissions in various spheres of economy. The recovery of Ukraine's economy requires the implementation of a qualitatively new sustainable development policy. In particular, it is worth applying rather successful experience of stimulating the use of carbon credits and offsets. The pricing system and fiscal policy measures (regulation of the amount of taxation of carbon emissions) will be of decisive importance for the development of the market. This direction of research is worthy of the attention of domestic scientists and practitioners, which will contribute to the reconstruction and strengthening of the competitive positions of the national economy on international markets.

Suggestions for Improving Greenhouse Gas Emission Reduction Policies

To address global climate change, the Paris Agreement requires parties to take action to reduce greenhouse gas (GHG) emissions. At present, the greenhouse effect has caused more serious environmental problems, and in response to this phenomenon, various countries have formulated corresponding emission reduction policies. In recent years, China's development process has also begun to note that the country's development must not be at the expense of the environment. Therefore, the management of greenhouse gas emissions is also being strengthened. Based on this, this paper provides a analysis of the meaning of greenhouse gas emission reduction policies and suggestions for improving them, with the aim of providing ideas for their implementation and thus helping to improve the environment in general.

Factors Affecting the Usage Intention of Environmental Sustainability Management Tools: Empirical Analysis of Adoption of Greenhouse Gas Protocol Tools by Firms in Two Countries

Mitigating the greenhouse gas (GHG) emission problem is one efficient way to respond to climate change challenges. Firms must proactively manage GHG emissions, with increasing pressure from various stakeholders to be environmentally responsible. GHG Protocol Tools help in managing GHG emissions. However, besides responsibility, the factors that influence the adoption and implementation of GHG Protocol Tools is sparsely investigated in empirical research, although studies point to different benefits and pressures influencing adoption. This study examines the factors affecting GHG Protocol Tool usage in organizations in China and South Korea. We consider two contrasting perspectives, affordance-based perceived benefits and constraint-based perceived pressures through imitating others, for GHG Protocol Tool adoption. Survey data from samples of firms from both countries are used for analysis. Results of empirical analyses indicate that perceived benefits and pressures have a positive relationship with the usage intention of GHG Protocol Tools. In comparison, the perceived benefits play a more critical role than the perceived pressures. Comparative analysis is conducted to explore the differences between Chinese and Korean firms, and study implications are discussed.

A study of management decisions to adopt emission reduction measures in heavy industry in an emerging economy

Heavy industry can face challenges in choosing applicable climate change mitigation measures due to a lack of technical background and practical guidance. A better understanding of these determinants is needed to design region-specific climate policies that most effectively enable more ‘successful’ low carbon transitions. Set in an emerging economy, this study aims to understand the determinants which underlie investment decision-making in greenhouse gas reduction. It relies on empirical research using an exploratory case study method in the leading cement company in Indonesia. The results show four key determinants influencing (constraining) adoption were (1) the primacy of profit-seeking objectives in operational planning and development; (2) the availability of sources (clinker substitutes and alternative energy fuels); (3) the limited access to cash capital; and (4) the complexity in implementing emissions reduction projects. The inquiry also compares determinants in an emerging and developed country to provide a comparative perspective on emissions management in manufacturing. It appears that firms from the industrial sector in emerging economies have investment strategies that are largely characterised by activities that accentuate achieving financial benefits or best value for money or cost savings in a short time frame, or ‘short-termism’. Currently, greenhouse gas emissions management activities tend to be second-preference strategies for firms in emerging economies, at least in the industrial manufacturing sector.

Современное углеродное регулирование в России: оценка ограничений и возможные пути решений

With the climate agenda becoming increasingly important at the state level, we need to develop approaches and implement measures to effectively manage greenhouse gas emissions, as well create a regulatory framework that will contribute to the wider adoption of low-carbon development practices. Climate regulation laws are currently being actively developed and improved in Russia. Some aspects of the existing laws require clarification. The article analyzes aspects of corporate management in the field of climate change adaptation, the legal framework providing climate regulation and some of its vulnerabilities, as well as ways to eliminate the identified shortcomings.