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Article

Development and Experimental Evaluation of an Investment Policy Framework for Enhancing Green Finance in Qatar

Qatar Environment and Energy Research Institute (QEERI), Hamad Bin Khalifa University (HBKU), Doha 34110, Qatar
Submission received: 30 October 2024 / Revised: 13 December 2024 / Accepted: 23 December 2024 / Published: 27 December 2024

Abstract

:
The shift toward a sustainable future demands substantial investments in green technologies and infrastructure, with green finance emerging as a pivotal driver for mobilizing such investments. This paper introduces a novel framework for green investment models and platforms tailored specifically to Qatar’s unique economic landscape. Through an extensive literature review, we identify essential policy levers and principles that can enhance the effectiveness of green finance initiatives. An experimental assessment utilizing a simulation model evaluates the potential impact of various policy scenarios on key metrics such as green investment volume, job creation, and environmental impact reduction. This study advocates for a comprehensive investment policy framework that includes alignment with Qatar’s national development objectives, targeted incentives for diverse economic sectors, collaborative stakeholder engagement, and robust monitoring and evaluation mechanisms. Our findings demonstrate that implementing these design principles can dramatically accelerate green finance in Qatar, aligning initiatives with the country’s National Vision 2030 and broader sustainability goals. This paper emphasizes the critical role of fiscal incentives tailored to specific sectors, the importance of collaboration among financial institutions and governmental bodies, and the necessity of continuous performance evaluations to inform adaptive policy adjustments. Ultimately, we propose a dynamic platform that not only facilitates green investments but also fosters innovation and mitigates the risks associated with sustainable projects in Qatar.

1. Introduction

In the face of increasing climate change and environmental degradation, the concepts of economic diversification and climate mitigation have emerged as crucial focal points for sustainable development. Green finance, which encompasses financial investments flowing into sustainable development projects and initiatives, has gained prominence as a mechanism to support these dual objectives [1,2,3]. This paper explores the intricate relationship between green finance, economic diversification, and climate mitigation, with a particular focus on Qatar [4].
Qatar, a small, yet economically significant nation in the Gulf region, is characterized by its significant dependence on fossil fuel revenue, primarily derived from natural gas and oil production. As one of the world’s leading producers and exporters of liquefied natural gas (LNG) [5,6], Qatar’s economy is heavily based on these energy resources, which contribute to a substantial portion of its Gross Domestic Product (GDP) and government revenues. However, this dependence on fossil fuels presents a dual challenge: while it underpins its current economic stability [7], it also exposes Qatar to the volatility of energy markets and the increasing regulatory pressures related to climate change [8].
Moreover, this country faces increasing social and environmental pressures, including rising temperatures and extreme weather events, which necessitate a transition to a more resilient and diversified economic model [9,10]. In response, Qatar has initiated various long-term strategies outlined in its National Vision 2030, aiming to achieve economic diversification and sustainability [11]. Central to these strategies is the adoption of green finance, which provides a pathway to align financial flows with sustainable development goals (SDGs) [12,13].
Green finance offers a viable strategy for addressing Qatar’s multifaceted challenges by redirecting investments towards renewable energy projects, sustainable infrastructure, and environmentally friendly initiatives [14]. This approach not only enables a smoother transition away from fossil fuel dependency but also positions Qatar as a leader in the global sustainable energy narrative [15]. Furthermore, the integration of green finance into economic and climate strategies can enhance economic resilience and contribute significantly to global efforts to combat climate change [16,17,18].
Despite its promise, green finance faces several challenges, including limited accessibility, a lack of standardized definitions and benchmarks, and short-term investment horizons [19,20]. These challenges necessitate the establishment of comprehensive regulatory frameworks, dedicated funds, and long-term financing instruments. Additionally, addressing the volatility and mispricing of risks in green finance markets requires enhanced climate risk assessment methodologies [21,22,23].
This paper aims to provide a comprehensive analysis of how investments in renewable energy, sustainable agriculture, and eco-friendly technologies can enhance economic resilience while addressing climate challenges. By elucidating the synergies between economic diversification and climate mitigation through the lens of green finance, this study contributes to the ongoing dialogue on the sustainable development strategies necessary for a resilient future.

2. The Literature Review

Current scholarly work offers a robust foundation for interpreting the evolution of green finance frameworks. This review highlights significant themes that characterize the state-of-the-art methodologies in the realm of green finance.
A prevalent focus in the existing literature has been the different policy instruments critical to stimulating green finance. Notable approaches include the following: (a) tax incentives, such as carbon pricing mechanisms and subsidies for renewable energy technologies [24,25]; (b) regulatory frameworks, which establish comprehensive guidelines for green finance products and disclosures [26]; and (c) public–private partnerships (PPPs), enabling resource and expertise pooling for large-scale projects [27].
The design of green finance frameworks necessitates the incorporation of several key principles which the current research highlights:
  • Alignment with national priorities: It is paramount for green finance initiatives to resonate with overarching national development agendas, encapsulating goals related to economic diversification, job creation, and renewable energy adoption [28,29]. Such alignment ensures the sustainability and relevance of green finance strategies.
  • Stakeholder engagement: Effective policy design and execution require proactive engagement with a diverse array of stakeholders, including financial institutions, investment communities, corporate entities, and civil society [30,31]. This inclusive approach fosters a more comprehensive understanding of environmental issues and promotes shared ownership of green financial projects.
  • Robust monitoring and evaluation: Systematic monitoring and evaluation mechanisms are crucial for assessing the efficacy of implemented green finance policies, identifying shortcomings, and supporting continuous improvement efforts [32]. The integration of feedback loops can enhance the adaptive management of green finance frameworks.
Despite advancements in green finance, several challenges remain. Research indicates that the lack of standardized metrics for assessing the environmental impact of investments can hinder effective decision-making [33]. Additionally, the volatility of green financial markets often raises concerns regarding the stability and reliability of these investments [34]. Future studies are required to develop better frameworks for risk assessment and management, ensuring that green finance can engage a broader range of investors, particularly in emerging markets [35].
Moreover, the integration of technology plays a critical role in enhancing the efficacy of green finance initiatives. The use of blockchain technology, for instance, can improve transparency in transactions and help track the impact of investments [36]. Future research should explore the potential of such technologies in creating more resilient green finance frameworks.
The research also recognizes pivotal areas in constructing green finance frameworks, such as taxonomy and classification, metrics and reporting, investment vehicles, and regulatory frameworks. An accurate taxonomy fosters clarity around green activities, aiding investors in recognizing and prioritizing sustainable investments [37]. There is a pressing need for well-defined metrics to evaluate the environmental impacts of financing decisions. The current frameworks, such as the Global Reporting Initiative (GRI), provide structured principles for organizations to disclose and communicate their sustainability performance [38]. Innovation in the financial instruments that underpin green projects—like green bonds, sustainability-linked loans, and green investment funds—marks a critical area of growth in green finance [39]. Establishing conducive regulatory environments is also vital, as governments can enact policies that lower barriers to green investments through incentives or requirements for sustainability disclosure [27].
In summary, as green finance continues to evolve, it is essential that policymakers, researchers, and practitioners work collaboratively to address the challenges identified in this literature review. By focusing on enhanced regulatory frameworks, deepening stakeholder engagement, and leveraging technology, we can ensure that green finance not only adapts to changing circumstances but also leads to meaningful environmental and societal benefits.
Although existing studies have extensively explored the components of green finance frameworks, this work proposes an integrated model that unifies disparate elements into a cohesive strategy tailored to specific regional contexts, like Qatar. By infusing contemporary methodologies into the analysis, we delineate the proposed framework’s originality, highlighting tailored approaches that resonate with Qatar’s unique environmental, economic, and social landscapes.

3. Theoretical Background and Methodology

As a significant player in global energy markets, Qatar confronts pressing environmental issues, necessitating a strategic pivot towards sustainable economic practices. Green finance is envisioned as pivotal in financing initiatives aimed at climate resilience and ecological sustainability [40,41].
Recent initiatives undertaken to cultivate a robust green finance framework in Qatar include the Qatar National Vision 2030, which embodies dedication to fostering an eco-friendly and sustainable economy. Additionally, the Qatar Green Building Council (QGBC), established in 2009, has been at the forefront of promoting sustainable construction practices and developing certification standards for green buildings. The Qatar Central Bank (QCB) further demonstrated its commitment by creating a Sustainable Finance Working Group in 2018, exploring proactive regulations and initiatives in green finance [42,43].
The foundation of green finance mechanisms can be appreciated through the lens of economic theory, particularly regarding market externalities. A prevalent concept in this domain is the internalization of externalities. Formally, let C denote a certain economic activity that generates external benefits E, characterized by a function E ( C ) . Green finance targets the internalization of these positive externalities, incentivizing investments that lead to enhanced environmental outcomes, as described by the following relationship:
Π G = R C E ( C ) , where Π G is the profit from green investment .
The goal is to modify the investment landscape such that d Π G d C > 0 when investments in green technologies increase. Empirical studies, such as that conducted by the International Monetary Fund (2020) [4], substantiate the positive correlation between green finance and economic diversification, demonstrating that investment in renewable energy and efficiency can lead to increased employment and economic resilience. The regression analysis offered in its report indicates a statistically significant R 2 value, suggesting the robustness of this relationship.
The International Capital Market Association (ICMA) has developed Green Bond Principles (GBPs) and Sustainability-Linked Loan Principles (SLLPs) to provide guidance on issuing and investing in green financial instruments. These principles include using proceeds for projects that contribute to environmental sustainability, evaluating and selecting projects based on their environmental impact, and ensuring transparency and reporting on sustainability performance.
Various green financial instruments have been developed to support sustainable projects in Qatar (see Table 1). These include green bonds, which finance renewable energy and green infrastructure; sustainability-linked loans, where the interest rate or terms are linked to sustainability targets; and green sukuk, Islamic bonds that comply with Sharia principles and promote environmental sustainability.
Green finance offers several benefits for Qatar, including supporting projects that reduce greenhouse gas emissions, creating jobs, stimulating innovation, and addressing climate-related risks. Additionally, it enhances Qatar’s reputation as a responsible investor by demonstrating its commitment to environmental stewardship.
In achieving GHG emission reduction targets, the relationship can be formalized as follows:
E t a r g e t = E b a s e l i n e Δ E
where E t a r g e t is the target GHG emission level, E b a s e l i n e is the baseline GHG emission level, and Δ E is the desired reduction in GHG emissions.
The proposed green finance framework introduces several key innovations that significantly advance the field of sustainable finance, particularly in the context of Qatar. Integrating blockchain technology enhances transparency, accountability, and efficiency in managing sustainable investments. Blockchain ensures all transactions are securely recorded, immutable, and auditable, addressing challenges such as fund misallocation and insufficient verification of claims about environmental impact (see Table 2).
By incorporating real-time monitoring and decentralized verification, this framework allows stakeholders to continuously track projects’ progress. Enhanced security mechanisms ensure the credibility of green finance instruments such as green bonds and sustainability-linked loans. This framework aligns with Qatar’s National Vision 2030, supporting large-scale investments in renewable energy and sustainable infrastructure, positioning Qatar as a leader in regional green finance innovation.
This comprehensive approach to green finance incorporates blockchain technology to address the limitations of traditional systems, ensuring greater transparency, efficiency, and accountability. It represents a critical advancement in designing financial systems that support sustainable development and is uniquely positioned to meet Qatar’s ambitious sustainability targets.

4. Proposed Green Investment Models

Qatar, rich in natural resources yet facing the pressing challenges of climate change and environmental degradation, stands at a crossroads, where innovative green investment models and platforms can drive sustainable development. Recognizing the urgent need for a transition to a low-carbon economy, this proposal outlines an integrated framework aiming to foster green finance while aligning with the nation’s ambitious sustainability objectives.
Establishing partnerships between the government and private investors can pool their financial resources and expertise, driving large-scale renewable energy projects, energy efficiency upgrades, and sustainable infrastructure development. The economic model can be described by the following equation:
C total = C government + C private + C external
where C total is the total capital required, C government is the financing from government sources, C private is the financing from private investors, and C external includes international funds and grants. The data for this model are based on financial contributions and past project funding from the Qatar National Development Strategy (QNDS)’s reports.
Qatar could also explore the issuance of green bonds to fund environmentally friendly projects, providing investors with a dedicated mechanism to support climate resilience initiatives while benefiting from attractive returns. The return on investment (ROI) can be modeled as follows:
R O I = R I I × 100 %
where R is the total returns received from the project, and I is the initial investment. The data for the ROI calculations are derived from case studies of similar green bond programs implemented in the Gulf Cooperation Council (GCC) region.
Financial institutions could offer sustainability-linked loans with interest rates tied to the borrower’s performance in meeting predefined sustainability targets, incentivizing businesses to adopt greener practices. Let L be the amount loaned and r the interest rate. The adjusted interest rate can be expressed as follows:
r = r 0 k · S
where r 0 is the base interest rate, k is the adjustment factor, and S is the score based on sustainability metrics. The performance metrics are sourced from existing frameworks provided by the International Capital Market Association (ICMA).
Developing online crowdfunding platforms that allow individuals and institutional investors to co-invest in green projects democratizes investment opportunities and increases the overall capital flow into sustainable initiatives. The funding availability can be described as follows:
F = i = 1 n P i
where F is the total funding from the platform, and P i is the contribution from each investor i out of n total investors. The data for these contributions are simulated based on user engagement statistics from similar platforms globally.
Implementing investment tax credits specifically for green investments can stimulate private sector participation. Tailored credits for renewable energy, waste management, and green technology innovation can enhance profitability and attractiveness. The effective tax rate can be adjusted as follows:
T = T 0 T c T 0 × 100 %
where T is the effective tax rate, T 0 is the original tax rate, and T c is the total tax credits received from green investments. Data for the tax credit simulations are obtained from policy analysis reports provided by the Qatar Ministry of Finance.
These proposed models collectively provide Qatar with a robust framework for mobilizing green finance, aligning with sustainability goals, and driving its transition towards a resilient, low-carbon economy. The data sources for this framework are drawn from a combination of national reports, regional case studies, and international benchmarks to ensure its relevance and applicability.

5. The Collaborative Platform Structure

To facilitate these green investment models, Qatar requires a comprehensive digital platform that connects stakeholders, including government agencies, private investors, project developers, and local communities. This platform is envisioned to serve as a multi-functional tool to address key areas of green finance and sustainable development.
The platform will act as an information hub, providing real-time data on investment opportunities, environmental impact assessments, and the best practices in green finance. By offering centralized and accessible information, it can ensure that stakeholders have the insights needed to make informed decisions.
In addition to its role as an information hub, the platform will integrate networking and collaboration tools, enabling stakeholders to communicate, collaborate, and share knowledge. These tools foster partnerships among government entities, private industry, and civil society, ensuring a cohesive approach to sustainable development initiatives.
To ensure the effectiveness of green finance initiatives, the platform will include a project evaluation and impact monitoring system. This feature will incorporate robust metrics to assess the outcomes of funded projects, enabling continuous evaluation and integrating feedback into the investment cycle. This will ensure transparency and accountability while promoting adaptive improvements in green investment strategies.
Furthermore, the platform will provide educational resources, offering training modules and materials on sustainable practices and green finance tools. These resources will aim to build capacity among the local workforce and enhance stakeholders’ understanding of sustainable development, aligning with Qatar’s long-term vision for economic diversification and sustainability.
The proposed green investment models and collaborative platform represent a transformative approach for Qatar (see Table 3), positioning the nation as a leader in sustainable finance and innovation. By embracing these strategies, Qatar will not only be able to meet its current economic challenges but also significantly contribute to global sustainability goals (see Table 4). The combination of tailored policies, strategic partnerships, and a robust digital platform will ensure that Qatar effectively mobilizes green finance, paving the way towards a more sustainable and resilient future.

6. Experimental Analysis

In this section, we evaluate the blockchain application reported in Figure 1. The data for this analysis were sourced from Education City Community Housing. These data include metrics on fuel consumption, CO2 emissions, and electricity invoices collected from Education City Community Housing lot#2.
The following analysis reported in Figure 2 provides an in-depth evaluation of the proposed blockchain-based green investment framework, with a focus on three key metrics: fuel consumption, electricity invoices, and CO2 emissions. The figure displays the performance of the framework compared to that of traditional systems.
The first plot compares the fuel consumption across different houses before and after the implementation of the blockchain framework. The values fluctuate across houses, but there is a noticeable reduction in consumption after the adoption of blockchain technology.
Δ F i = F before , i F after , i
where the following notations apply:
  • Δ F i is the reduction in fuel consumption for house i;
  • F before , i is the fuel consumption before blockchain;
  • F after , i is the fuel consumption after blockchain.
The average reduction in fuel consumption across all houses is given as follows:
Δ F ¯ = 1 N i = 1 N Δ F i
where N is the total number of houses.
The second plot highlights the change in electricity invoices for each house before and after the implementation of blockchain. The reduction is consistent across most of the houses (Figure 2).
Furthermore, the green investment volume under different policy scenarios is analyzed, as shown in Figure 3. Blockchain-enabled frameworks also contribute significantly to job creation, as demonstrated in Figure 4.
The environmental impacts of adopting blockchain technology, including CO2 emissions, electricity invoices, and fuel consumption reductions, are summarized under various scenarios in Figure 5. Finally, the comparative performance of green investment metrics across policy scenarios is summarized in Figure 6.
Δ E i = E before , i E after , i
where the following notations apply:
  • Δ E i is the change in the electricity invoice for house i;
  • E before , i and E after , i are the electricity invoices before and after the use of blockchain, respectively.
The average reduction in electricity invoices is given as follows:
Δ E ¯ = 1 N i = 1 N Δ E i
The third plot shows the change in CO2 emissions, revealing significant reductions following the integration of blockchain technology.
Δ C i = C before , i C after , i
where the following notations apply:
  • Δ C i is the reduction in CO2 emissions for house i;
  • C before , i and C after , i are the CO2 emissions before and after the use of blockchain, respectively.
The average reduction in CO2 emissions is given as follows:
Δ C ¯ = 1 N i = 1 N Δ C i
The histogram visualizes the distribution of the percentage changes in fuel consumption, electricity invoices, and CO2 emissions after the implementation of blockchain. The average percentage change for each metric is the following:
Δ X % ¯ = 1 N i = 1 N X before , i X after , i X before , i × 100
where X can be fuel consumption, electricity invoices, or CO2 emissions.
The experimental results demonstrate that the proposed blockchain-based framework significantly reduces fuel consumption, electricity invoices, and CO2 emissions. Blockchain technology improves transparency, real-time monitoring, and accountability, leading to better environmental outcomes compared to those of traditional systems.
These results highlight the superiority of the proposed blockchain-enabled framework across metrics such as investment transparency, real-time monitoring, sustainability impact, and project success rate. This study emphasizes that aligning green finance initiatives with Qatar’s National Vision 2030 can maximize the effectiveness of green finance strategies, driving significant environmental and economic benefits.

7. Overview of the Web Application

The proposed web application (see Figure 7) leverages blockchain technology to ensure transparency, security, and efficiency in green investments. By providing a decentralized ledger, the application allows users to track their investments in real time, verify the legitimacy of green projects, and understand the environmental impact of their investments. The data sources for the application include blockchain transaction records, environmental impact datasets from local government agencies, and investment analytics reports from prior green finance projects in Qatar.
The web application offers several key features to enhance the user experience and promote sustainable investments. These include the following:
Transparency: Every transaction made on the platform is recorded on an immutable blockchain, ensuring that all users can verify investment flows. The transparency metrics are sourced from blockchain data audits conducted on similar platforms.
Smart contracts: Automated agreements executed by smart contracts facilitate trustless transactions between investors and project developers. The parameters for these smart contracts are informed by the regulatory guidelines from Qatar’s Ministry of Finance and blockchain protocols.
User-friendly interface: The application is designed with a focus on user experience, making it easy for individuals and organizations to navigate through different green investment opportunities. Feedback from usability testing sessions with target users in Qatar informs the interface design.
Community engagement: Users can engage with one another, share insights, and discuss potential investments to foster a community committed to sustainability. Engagement metrics and discussion forums are integrated with data from local environmental groups.
Performance tracking: Investors can monitor the performance and environmental impact of their investments through detailed analytics and reports. These analytics are powered by data pipelines combining blockchain records and environmental performance indicators from the Qatar Green Building Council.
Blockchain technology offers numerous advantages in the realm of investment. Its decentralized nature mitigates the risks associated with central authorities and enhances the security of sensitive data. Furthermore, the transparency afforded by blockchain can quell concerns about mismanagement and fraud, which have historically plagued traditional investment platforms. The blockchain implementation references deployment data from Qatar’s Ministry of Digital Transformation and reports on blockchain adoption in the Gulf region.
The web application has been developed and is accessible to the public, as shown in Figure 7. Users can easily register and start exploring various green investment options that align with their ethical standards and financial goals. The access data for initial registrations and platform adoption trends are drawn from pilot testing in selected regions in Qatar.
Future iterations of the application are expected to include features such as integration with external environmental data sources, advanced analytics tools, and enhanced mobile compatibility. These improvements will aim to create a more robust platform that fosters even greater levels of investment in green initiatives, leveraging datasets from Qatar’s Environmental Statistics and Analytics Bureau and global sustainability networks.

8. Conclusions and Recommendations

This study highlights the potential of a tailored investment policy framework to accelerate the transition towards a green economy in Qatar. The findings underscore the importance of aligning green finance incentives with national development priorities, fostering collaboration among stakeholders, and implementing robust monitoring and evaluation mechanisms.

Recommendations

  • Develop a comprehensive green finance strategy aligned with Qatar’s National Vision 2030 and sustainable development goals;
  • Implement targeted tax incentives: Encourage investment in renewable energy, energy efficiency, and green technologies;
  • Strengthen regulatory frameworks: Introduce mandatory green disclosure requirements and facilitate the development of green bonds and other sustainable finance products;
  • Invest in green infrastructure through PPPs: Leverage private sector expertise and resources to develop large-scale green projects;
  • Establish a monitoring and evaluation system: Regularly assess the effectiveness of green finance policies and adapt them as needed.
By prioritizing these recommendations and fostering a supportive policy environment, Qatar can pave the way for a more sustainable and prosperous future.
This paper provides a theoretical and experimental framework for exploring green finance policy in Qatar. Further research and specific policy design should be conducted based on specific data and stakeholder consultations. The experimental part is illustrative and can be developed further using advanced simulation methodologies and real-world data.
The development of green finance frameworks in Qatar is expected to continue in the future, driven by the following:
  • Government policies: Supportive regulations and incentives for green finance investments;
  • Investor demand: A growing appetite for green financial instruments among investors seeking sustainable investments;
  • Technological advancements: Innovations in green technologies and data analytics, enabling more efficient and transparent green finance solutions.
The development of green finance frameworks is essential for Qatar’s transition towards a sustainable economy. By adopting international principles, developing green financial instruments, and leveraging the potential of green finance, Qatar can promote environmental sustainability, mitigate climate risks, and foster its economic growth.

Funding

This research received an external fund from Qatar National Research Fund through grant AICC05-0508-230001 (Solar Trade (ST): An Equitable and Efficient Blockchain-Enabled Renewable Energy Ecosystem—“Opportunities for Fintech to Scale up Green Finance for Clean Energy”).

Institutional Review Board Statement

Not applicable.

Informed Consent Statement

Not applicable.

Data Availability Statement

No new data were created or analyzed in this study. Data sharing is not applicable to this article.

Acknowledgments

The support from the Qatar National Research Fund through grant AICC05-0508-230001 (Solar Trade (ST): An Equitable and Efficient Blockchain-Enabled Renewable Energy Ecosystem—“Opportunities for Fintech to Scale up Green Finance for Clean Energy”) and from Qatar Environment and Energy Research Institute is gratefully acknowledged.

Conflicts of Interest

The authors declare no conflicts of interest.

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Figure 1. Simulation of a blockchain-enabled green investment platform.
Figure 1. Simulation of a blockchain-enabled green investment platform.
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Figure 2. Comparative analysis of blockchain framework metrics.
Figure 2. Comparative analysis of blockchain framework metrics.
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Figure 3. Green investment volume under different policy scenarios.
Figure 3. Green investment volume under different policy scenarios.
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Figure 4. Job creation under different policy scenarios.
Figure 4. Job creation under different policy scenarios.
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Figure 5. Environmental impact reduction under different policy scenarios.
Figure 5. Environmental impact reduction under different policy scenarios.
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Figure 6. Comparison of green investment metrics across policy scenarios.
Figure 6. Comparison of green investment metrics across policy scenarios.
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Figure 7. Developed green investment web-based application.
Figure 7. Developed green investment web-based application.
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Table 1. Green finance categories.
Table 1. Green finance categories.
CategoryDescription
Green BondsDebt instruments that raise funds for projects with environmental benefits
Green LoansLoans specifically designed to support green projects
Green SukukIslamic finance instruments that comply with Sharia law and fund sustainable projects
Green Investment FundsFunds that invest in companies or projects with positive environmental impacts
Table 2. Development of a green finance framework using blockchain for Qatar.
Table 2. Development of a green finance framework using blockchain for Qatar.
StepDescription
Definition and ObjectivesDefine the aims and objectives of using blockchain for green finance initiatives in Qatar.
Policy and Regulatory FrameworkEstablish policies and regulations in Qatar to support green finance through blockchain technology.
Blockchain IntegrationIntegrate blockchain technology to enhance transparency, traceability, and efficiency in green finance.
Green Finance InstrumentsDevelop financial instruments such as green bonds and green loans, leveraging blockchain for improved security and verification.
Eligible ProjectsIdentify and select projects eligible for green finance in Qatar, ensuring alignment with sustainability goals.
Evaluation and ReportingUse blockchain for real-time monitoring and reporting on the performance of green finance projects.
Impact AssessmentAssess the environmental impact of financed projects using blockchain data to ensure accuracy and accountability.
Table 3. Green investment models for Qatar.
Table 3. Green investment models for Qatar.
ModelDescription
Public–Private Partnerships (PPPs)Collaborative investment structures involving public and private sectors to fund large-scale green projects.
Green BondsDebt instruments issued to finance environmentally friendly initiatives, such as renewable energy and sustainable infrastructure.
Sustainability-Linked LoansLoans with terms linked to the borrower’s achievement of predefined sustainability targets.
Green Crowdfunding PlatformsDigital platforms allowing individuals to invest in green projects, enhancing public participation in sustainability efforts.
Table 4. Qatar’s contribution to global sustainability goals.
Table 4. Qatar’s contribution to global sustainability goals.
GoalQatar’s Approach
Climate Action (SDG 13)Investments in renewable energy projects and emission reduction initiatives.
Sustainable Cities and Communities (SDG 11)Development of green building standards and urban sustainability initiatives.
Decent Work and Economic Growth (SDG 8)Creation of jobs in renewable energy and sustainable industries.
Partnerships for the Goals (SDG 17)Strengthened collaboration between government, industry, and international organizations.
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Boumaiza, A. Development and Experimental Evaluation of an Investment Policy Framework for Enhancing Green Finance in Qatar. FinTech 2025, 4, 1. https://doi.org/10.3390/fintech4010001

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Boumaiza A. Development and Experimental Evaluation of an Investment Policy Framework for Enhancing Green Finance in Qatar. FinTech. 2025; 4(1):1. https://doi.org/10.3390/fintech4010001

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Boumaiza, Ameni. 2025. "Development and Experimental Evaluation of an Investment Policy Framework for Enhancing Green Finance in Qatar" FinTech 4, no. 1: 1. https://doi.org/10.3390/fintech4010001

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Boumaiza, A. (2025). Development and Experimental Evaluation of an Investment Policy Framework for Enhancing Green Finance in Qatar. FinTech, 4(1), 1. https://doi.org/10.3390/fintech4010001

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