Submitted Successfully!
To reward your contribution, here is a gift for you: A free trial for our video production service.
Thank you for your contribution! You can also upload a video entry or images related to this topic.
Version Summary Created by Modification Content Size Created at Operation
1 -- 6571 2024-03-06 06:37:18 |
2 Reference format revised. Meta information modification 6571 2024-03-06 09:51:03 |

Video Upload Options

Do you have a full video?

Confirm

Are you sure to Delete?
Cite
If you have any further questions, please contact Encyclopedia Editorial Office.
Alamsyah, A.; Kusuma, G.N.W.; Ramadhani, D.P. Decentralized Finance Ecosystems. Encyclopedia. Available online: https://encyclopedia.pub/entry/55895 (accessed on 16 April 2024).
Alamsyah A, Kusuma GNW, Ramadhani DP. Decentralized Finance Ecosystems. Encyclopedia. Available at: https://encyclopedia.pub/entry/55895. Accessed April 16, 2024.
Alamsyah, Andry, Gede Natha Wijaya Kusuma, Dian Puteri Ramadhani. "Decentralized Finance Ecosystems" Encyclopedia, https://encyclopedia.pub/entry/55895 (accessed April 16, 2024).
Alamsyah, A., Kusuma, G.N.W., & Ramadhani, D.P. (2024, March 06). Decentralized Finance Ecosystems. In Encyclopedia. https://encyclopedia.pub/entry/55895
Alamsyah, Andry, et al. "Decentralized Finance Ecosystems." Encyclopedia. Web. 06 March, 2024.
Decentralized Finance Ecosystems
Edit

The future of the internet is moving toward decentralization, with decentralized networks and blockchain technology playing essential roles in different sectors. Decentralized networks offer equality, accessibility, and security at a societal level, while blockchain technology guarantees security, authentication, and openness. 

blockchain technology digital economy decentralized finance financial institutions traditional finance

1. Introduction

The development of the internet has led to the emergence of blockchain technology, which has the potential to improve various aspects of human life significantly. Blockchain technology has emerged as a transformative force with promising implications in the digital realm [1]. Blockchain technology offers a plethora of advantages, including enhanced credibility, transparency, accessibility, and cost-effectiveness, thereby positioning it as a viable solution to tackle the persistent issue of financial inclusion faced by the unbanked population [2]. Blockchain technology finds widespread adoption across diverse sectors such as education, healthcare, and finance, showcasing its versatility and relevance [3]. Furthermore, blockchain technology’s presence as a potent enabler fosters anticorruption efforts, adding another layer of societal significance [4]. In the financial sector, the rise of DeFi has proven instrumental, particularly within the crypto economic phenomena. Prominent DeFi platforms, including Ethereum, Binance Smart Chain, and Tron, play pivotal roles in this landscape. It is worth noting that DeFi implementations can be conducted on authorized distributed ledger technology (DLT) platforms or alternative technologies that offer akin functionality [5].
DeFi encompasses a collection of digital financial applications that operate on decentralized blockchain networks, benefiting from the security and reliability provided by DLT [6]. DeFi applications offer a diverse array of financial services, including lending, derivatives, decentralized exchanges, asset management, security, stablecoin, insurance, borrowing, staking, yield farming, and payments [7]. In its early stages, DeFi applications were primarily developed on permissionless blockchains, facilitating direct user transactions without the need for central governance. Users also participated as validators, ensuring a decentralized nature [8]. One of DeFi’s distinctive features is the ability to utilize real-world assets (RWAs), which involves integrating tokenized off-chain assets into the blockchain ecosystem for efficient transactions. Integrating real-world assets into blockchain can unlock unique opportunities and enhance market efficiency for asset holders, setting it apart from TradFi systems [9]. By facilitating asset tokenization and the development of decentralized applications (DApps), DeFi plays a significant role in enhancing market efficiency within financial activities [5].
Tokenization represents a convergence of digitization, securitization, and blockchain technology, facilitating the transformation of conventional assets into digital native assets. Market participants gain direct custody and settlement capabilities by adopting tokenization, thereby enhancing portfolio management flexibility. Moreover, this process bestows traditional assets with augmented transparency, security, speed, traceability, and cost-effectiveness. Additionally, tokenization makes establishing a robust and scalable infrastructure for a well-organized digital asset ecosystem possible. Consequently, the capital market is democratized, inviting participants of all sizes to engage actively, and promoting inclusivity in financial systems [9].
DeFi has garnered attention for its potential to disrupt and transform TradFi, bridging cryptocurrency assets and traditional markets [10]. The advantages offered by DeFi, which are absent in TradFi systems, encompass transparency, disintermediation, accessibility, low fees, custom rates, and programmability [11]. A key strength of DeFi lies in its facilitation of global lending and borrowing with reduced costs compared to TradFi mechanisms [12]. It is crucial to distinguish DeFi protocols as alternatives to banking and investment services rather than being positioned as payment solutions or currencies akin to Bitcoin or Ethereum [13]. Notably, DeFi addresses potential issues, such as asset loss, through the provision of insurance covering various DeFi products and services. This insurance relies on a combination of on-chain and off-chain data to determine policy pricing and assess claims [14]. It is crucial to emphasize that while DeFi offers certain advantages, it cannot entirely supplant traditional financial services. DeFi cannot fully replace TradFi services due to TradFi’s longstanding presence, which operates under well-established regulatory frameworks and is supervised by legal entities [15].

1.1. Traditional Finance (TradFi)

In TradFi, intermediaries like banks facilitate transactions among market participants [15]. It emphasizes KYC (know your customer) and AML (anti-money laundering) compliance to mitigate financial crimes and relies on a legal framework for trust and transaction fairness. KYC involves verifying customers’ identities, while AML encompasses a comprehensive framework for combating money laundering and financial crimes. KYC serves as a mechanism within the broader AML framework, ensuring customer authenticity through identity verification measures.
TradFi offers financial services with payment flexibility and investment support, although it involves limited fund control. Its extensive infrastructure allows for broader-scale financial services compared to cryptocurrency. TradFi institutions are exploring blockchain integration to improve their operations and consider offering financial products and services in the cryptocurrency space.
TradFi is often perceived as lacking innovation compared to DeFi, primarily due to regulatory requirements, legacy systems, and centralization. Regulatory constraints and established infrastructure in TradFi can impede innovation, while DeFi, operating in a decentralized and unregulated environment, enables faster development and adoption of new technologies and financial products. TradFi intermediaries, such as banks, limit accessibility and transparency, whereas DeFi aims to democratize finance by eliminating intermediaries and fostering inclusivity.

1.2. Blockchain Technology in the Financial Industry

Blockchain technology has significantly contributed to modernizing finance, gaining recognition within the banking sector for its potential to bolster transaction security and foster financial market development [16][17][18][19][20]. Through decentralized operations, blockchain instills heightened confidence in previously centralized systems, establishing trustless networks where parties transact without relying on mutual trust [14][21]. Immutable transaction records ensure both security and transparency, driving their widespread adoption across diverse industries.
The decentralized and secure nature of blockchain has rendered it accessible and cost-effective, particularly benefiting unbanked and underbanked individuals, thereby promoting financial inclusion [2][3][22][23]. The advent of Bitcoin, coupled with blockchain, revolutionized financial transactions by eliminating the need for mutual trust. Moreover, blockchain’s applications extend beyond finance to encompass distributed cloud storage, smart property, supply chain management, healthcare, and decentralized autonomous organizations (DAOs) [24][25]. Blockchain adoption facilitates secure and transparent data storage, facilitating financial transactions among entities that lack trust without necessitating a central trusted third party [25].

1.3. DeFi

Decentralized finance (DeFi) represents a novel paradigm that fundamentally transforms the creation, distribution, and utilization of financial services. In the realm of DeFi, software is distributed in a decentralized manner across networks, ushering in a new era of open financial infrastructure [26]. By harnessing blockchain technology, DeFi protocols facilitate various transactions within their systems, including loans, stablecoin, tokenization, asset management, payment, insurance, staking, and exchanges [3]. These protocols establish a decentralized and inclusive financial infrastructure, offering global access to self-sovereign and censorship-resistant financial services.

1.4. TradFi and CeFi

TradFi represents the conventional non-blockchain financial system. Centralized finance (CeFi) acts as a centralized intermediary between TradFi and DeFi. DeFi, built on blockchain technology, offers flexibility and higher potential returns but also poses unique risks and challenges within the decentralized financial sector [27].
TradFi denotes traditional finance entities operating outside blockchain systems, engaging in activities like asset management, insurance, and real estate funds. Dealing exclusively with fiat and traditional assets, TradFi is known and recognized for its user-friendly experiences and stringent strict regulation [28][29].
CeFi offers crypto services within a centralized structure [2][30]. Platforms like Binance, Coinbase, Gemini, Kraken, and Nexo serve as these intermediaries, providing services like fiat-to-crypto conversion and customer support. Despite benefits like regulatory compliance and simplified DeFi services, CeFi platforms face drawbacks like higher costs and custody issues. They are popular for users seeking regulated crypto market access [31].

1.5. DeFi Market Mechanism

DeFi protocols provide services like exchanges, lending, and asset management [3]. Decentralized exchanges (DEXs) facilitate on-chain token trades. The DeFi market employs automated market makers (AMMs) for asset pricing and control. The DeFi business model revolves around smart contracts, investors, and users engaging in asset movements and generating revenue for the DeFi treasury [32]. Two primary DEX order systems exist: centralized order systems and automated market makers [3]. AMMs employ algorithms to ascertain asset prices, minimizing environmental uncertainty and information asymmetry. They furnish pricing with signaling value, providing generalized asset value information for both buyers and sellers [28]. DeFi operates on a market mechanism, empowering users with control over and the capability to modify various assets using DeFi services [3].
Figure 1 illustrates the common mechanism of the DeFi business model [33]. The DeFi protocol generates financial services with a percentage of investors and users supporting these services.
Figure 1. DeFi common mechanism and revenue strategy [33].
Protocol: A collection of smart contracts encompassing various facets like PLFs, AMMs, or yield aggregators. These protocols offer open, noncustodial, permissionless, and composable financial services in exchange for nominal fees levied on asset movements, such as borrowing or swapping [33].
Investor: This participant assumes the underlying protocol risk, including potential misbehavior, impermanent loss, or rug-pulls, in return for passive income. Their primary role involves depositing assets and providing liquidity to these financial services [33].
User: Typically, users interact with the protocol in real time, not expecting extended responses. However, in the case of yield aggregators, users may also function as investors. Users initiate asset movements and pay interest rates to the protocol [33].
Financial Service: The linchpin of the entire protocol, this entity locks assets, fulfills asset movement requests, and safeguards against protocol misuse. Additionally, it can act as an investor by leveraging other DeFi protocols, ultimately delivering yields and earnings to other participants [33].

1.6. Smart Contract Role in DeFi

Smart contracts in DeFi have the ability to automate financial transactions and eliminate the need for intermediaries [34]. Rooted in blockchain technology, smart contracts are digital agreements operating within a decentralized framework, eliminating the requirement for third-party involvement [25]. These programmable contracts autonomously enforce predetermined conditions and actions, reducing transaction costs, enhancing efficiency, and improving transparency [35]. Within a smart contract, variables can be adjusted based on the logic programmed into its function [36]. Once created, a smart contract can be executed on a blockchain network and applied to any participant within the network. These smart contracts facilitate unalterable and globally enforceable agreements between parties due to their synchronized record. The code of a smart contract self-executes once it fulfills the agreed-upon conditions [14].

1.7. Peer-to-Peer Transaction in DeFi

The peer-to-peer (P2P) transaction mechanism plays a vital role in ensuring transactions and data privacy [37]. In the context of blockchain transactions and DeFi, including exchange and payment, P2P typically involves a two-step process. Initially, involved parties negotiate and agree on exchange rates for specific pairs of crypto assets. Subsequently, these transactions are executed on-chain using smart contracts [38]. P2P systems hold significant importance in enabling DeFi by facilitating direct trading of crypto assets between users. This approach reduces transaction costs and enhances liquidity within the DeFi ecosystem. By eliminating the need for intermediaries, P2P transactions enhance the overall efficiency and accessibility of DeFi platforms, contributing to the growth and success of the DeFi space.

1.8. Tokenization Mechanism

Tokenization digitizes assets, representing ownership on a blockchain network [39]. It encompasses a wide range of assets, including commodities and real estate, and enhances market efficiency by enabling direct participant interactions [32]. Tokenization is evolving in markets like commodities and real estate, thereby presenting new opportunities in direct lending and DeFi markets. Blockchain ensures the security of these tokens, which is vital in tokenizing real assets. This practice is gaining traction, especially in collateralizing real-world assets (RWAs) and aiding risk management. Tokenized asset ownership embedded within the system allows easy access to transaction records and identification of buyers and sellers [40]. Tokenization has the potential to revolutionize traditional cu

2. The Taxonomy

Figure 2, depicting the DeFi taxonomy, offers an overview of DeFi within the financial ecosystem, contrasting it with TradFi. The illustration depicts interdimensional relationships, highlighting enable and construct aspects. Figure 3 extends the depiction from Figure 2 by illustrating the interrelationships among dimensions. Its creation involved sourcing information from various channels like journals, white papers, websites, social media, and literature reviews. The construction process involved using collaborative software like draw.io, streamlining teamwork, and expediting the visualization process for greater efficiency. Figure 3 presents the interconnectedness of taxonomy dimensions within the DeFi framework, illustrating the relationships between these dimensions. This visualization illustrates the intricate connections and dependencies identified within the taxonomy. This analysis is crucial for a comprehensive understanding of the taxonomy. Thicker lines signify enable and strong connections. Enable refers to the capacity for evolution, emphasizing the importance of smart contracts in forming DAOs and DApps.

Figure 2. The DeFi taxonomy.
Figure 3. Interconnectivity dimension of DeFi taxonomy.

2.1. Technology

The DeFi Taxonomy begins with a focus on the technological dimension, recognizing its fundamental role. The presence of a robust technological infrastructure is indispensable for the optimal functioning of DeFi; without it, DeFi would closely resemble TradFi. The interplay between financial and technological innovation is evident, with these domains increasingly intertwined [28]. DeFi serves as a prime example of this synergy, enabling user engagement in cryptocurrency transactions through the utilization of blockchain and smart contracts [41].

2.1.1. Peer-to-Peer

Peer-to-peer (P2P) is integrated into the technology dimension due to its pivotal role as an enabler for all transactions within the DeFi ecosystem, facilitated through the utilization of blockchain technology and smart contracts. P2P plays a fundamental role in DeFi, allowing users to engage in direct transactions while safeguarding data privacy and eliminating the need for intermediaries [37]. Within DeFi, P2P protocols serve as an alternative to traditional exchange models and liquidity pools. P2P lending platforms serve as a prime example of the P2P protocol in DeFi, directly connecting borrowers and lenders. DeFi facilitates easier credit access for borrowers with limited or no options for traditional bank loans, surpassing the constraints imposed by certain banks and financial institutions’ limited online loan services [42]. These DeFi lending platforms revolutionize borrowing and lending, offering efficiency, accessibility, and transparency, outperforming traditional centralized finance models for individuals and institutions alike. P2P enables users to assess and address potential threats and vulnerabilities, ensuring data privacy. They can employ security software for preaccess file scanning, utilize cloud storage, implement end-to-end encryption, engage in anonymous browsing, exercise control over shared data, and secure the physical storage of encryption devices and keys.

2.1.2. Smart Contract

DeFi utilizes smart contracts to eliminate intermediaries, ensuring transparency and trustworthiness while enhancing its operations’ security and integrity [28][43]. Smart contracts, operating on blockchain technology with encoded terms, ensure transparency and immutability, guaranteeing security and resistance to tampering. They automate intricate financial transactions, thereby minimizing manual intervention, streamlining operations, and accelerating processes in the DeFi ecosystem. These contracts secure and reliably execute deals by integrating logic into their functions, enabling direct P2P transactions. This approach reduces costs, eliminates third-party manipulation risks, and enhances transactional efficiency. These contracts feature variables that can be modified based on the implemented logic. Smart contracts are written using programming languages like Solidity [22]. Smart contracts are pivotal in enabling automation, programmability, and decentralized governance, forming the core of technologies like DAOs and DApps in the DeFi ecosystem. Smart contracts facilitate the creation of programmable financial instruments, expanding the possibilities for DeFi applications. Developers utilize smart contracts to deploy diverse DApps, covering lending, borrowing, decentralized exchanges, derivatives, yield farming, and more, thereby allowing tailored solutions that foster greater customization and innovation.

Decentralized Autonomous Organization

A decentralized autonomous organization (DAO) is a decentralized organization that operates on a public blockchain, allowing entities or organizations to establish self-governance and coordination among individuals based on predetermined rules. It is frequently characterized as a blockchain-based organizational structure, resembling a crypto-cooperative or a financial entity with the capacity for decentralized decision-making [44]. DAOs enable continuous functioning and operations synchronization through computer code or smart contracts [25], which are self-executing contracts with terms directly written into code on a blockchain network. These contracts define organizational rules, execute decisions, and allow for public auditing of proposals and voting. The backbone of a DAO is its smart contract, which holds the organization’s treasury and ensures that rule changes and fund spending require group approval. Smart contracts contribute to the autonomy, transparency, and security of DAOs by providing verifiability and visibility through public audits [25][45].
In DAOs, investors typically maintain anonymity and may experience a lack of trust among one another. The decision-making process of a DAO operates on-chain and is executed automatically, ensuring transparency through a visible voting process on a public blockchain. Successful proposals are implemented automatically, eliminating the need for human intervention [46]. DAOs excel in managing digital assets within DeFi by leveraging self-governance and coordination via autonomous code [47]. DAOs utilize decentralized blockchains to achieve consensus on the allocation of funds.

Decentralized Applications (DApps)

Decentralized applications (DApps) differ from traditional applications by operating on a decentralized P2P network rather than relying on centralized servers [1]. Transparency is established through blockchain technology, enabling public visibility and verification of all transactions. Economic participation refers to the utilization of cryptocurrency for transactions within the DApp ecosystem, facilitating economic interactions without intermediaries. Blockchain validation guarantees the validation and permanent recording of all DApp activities. The resilience against server disruptions is a consequence of blockchain’s decentralized architecture, ensuring the DApp’s uninterrupted operation, even in the event of node failures [23][48].
On the contrary, DApps lack a solitary control point. Distributed applications entail a collection of computer programs that utilize computational resources across multiple, distinct computation nodes to attain a shared objective. DApps showcase four core attributes: transparency, economic engagement, blockchain validation, and robustness against server shutdowns. In practical scenarios, DApps effectively manifest the essence of DAOs [14]. Smart contracts play a crucial role in the development of DApps, particularly in the domain of DeFi, which represents the most prevalent type. DeFi DApps transform TradFi functions services such as savings, loans, and insurance. DeFi offers secure and decentralized financial services, encompassing stablecoins, decentralized exchanges (DEXs), lending platforms, and investment funds. These applications utilize smart contracts on blockchain to facilitate secure transactions and store data [1]. DApps and DAOs are both integral to blockchain technology, albeit with distinct functions. DApps are open-source applications executed by multiple users on a decentralized network, emphasizing decentralization and censorship resistance because they are not controlled by any single entity [45]

2.2. Product/Services

2.2.1. Payments

The Bitcoin blockchain is widely acknowledged as an early and prominent instance of a DeFi application. Although initially designed as a P2P payment system without smart contract functionality, it has garnered extensive adoption as a decentralized payment system. The emergence of solutions leveraging the Ethereum network and smart contracts has facilitated decentralized payment services and spurred diverse app innovations [26]. Smart contracts, digital programs stored on a blockchain network, automate transaction execution based on predetermined conditions. They enable the execution of agreements and transactions among anonymous parties, eliminating the need for intermediaries or central institutions. Smart contracts also enable the automation of predetermined events, such as interest or dividend payments, without manual intervention [8].
Payments in the DeFi ecosystem use P2P systems and smart contracts to facilitate transactions, promoting financial inclusion, streamlining payment processes, and maximizing security, efficiency, transparency, and cost-effectiveness. Smart contracts ensure secure, efficient, and cost-effective domestic and cross-border transactions, including those involving cryptocurrencies, while eliminating the need for intermediaries and reducing the risks associated with fraud and transaction delays. Smart contracts also eliminate the possibility of missed opportunities in trade finance and commodity trading [42][49]. DeFi offers diverse payment solutions, with Sablier standing out as a real-time finance protocol. It enables continuous payments over time rather than in a single transaction, finding applications in payroll processing, micro-consulting, and time-sensitive engagements. Sablier operates through a smart contract, allowing gradual fund allocation set by the payment stream creator. Recipients can withdraw funds at any time, making it akin to an everyday payday. Payments in any ERC-20 token are supported, providing senders the flexibility to cancel streams if needed, with the remaining funds returned to them upon cancellation.

2.2.2. Lending and Borrowing

Lending and borrowing in the DeFi ecosystem involve providing monetary assets, either fiat or digital currency, to another party in exchange for a steady income stream. DeFi lending platforms enable cryptocurrency holders to lend significant funds quickly and anonymously to borrowers. To access this service, borrowers must provide sufficient collateral deposited in a smart contract and commit to repaying the loan within a predetermined timeframe. DeFi borrowing and lending introduce efficiency, accessibility, and transparency innovations compared to TradFi and participation in borrowing and lending is open to everyone, thereby democratizing financial service access. Enabled by smart contracts, the decentralized framework of DeFi lending and borrowing ensures a transparent and equitable blockchain-based system, granting users traditional financial tools like interest and liquidity while incorporating the advantages of decentralization, thereby fostering the continued expansion and development of the DeFi ecosystem [6][50].

2.2.3. Asset Management

DeFi protocols for asset management use smart contracts to pool investors’ tokens, often for use on other decentralized applications [29]. Smart contracts provide security and enable investors to allocate their tokens to other DApps. Blockchain technology facilitates decentralized transactions and registries of assets, promoting transparency and facilitating rapid settlement without the need for validation from central authorities. It encompasses both fungible and nonfungible assets [29][38][51]. Fungible assets are those interchangeable into individual units [51].
Asset management within the DeFi space features prominent examples such as the DeFi Pulse Index (DPI) and Balanced Crypto Pie (BCP). DPI serves as a blockchain financial product designed to lower entry barriers for newcomers, providing exposure to DeFi for those lacking specialized expertise while offering experienced users a single-asset exposure to the DeFi sector. Conversely, BCP offers a convenient ERC20 token that grants equivalent exposure to Bitcoin, Ethereum, and DeFi assets. BCP underlying assets continuously generate profits and enhance holdings through automated rebalancing to maintain the set allocation. 

2.2.4. Insurance

DeFi insurance mirrors traditional insurance by providing financial compensation for losses within the DeFi ecosystem. It safeguards against market, technical, and credit risks, crucial for maintaining stability in the expanding DeFi market. Users can purchase coverage from others in the ecosystem, and smart contracts automatically pay out claims when specific criteria are met. The primary objectives are affordability, speed, and transparency. Automation makes coverage accessible, expedites payments, and ensures transparent claim decisions [3][26].
DeFi insurance plays a pivotal role in safeguarding user assets against potential financial losses caused by system vulnerabilities. Examples like Etherisc (DIP) and InsurAce (INSUR) demonstrate this. Etherisc offers P2P funding pools for traditional and crypto-specific insurance, covering areas like crop insurance, flight delays, and protection for crypto wallets and loans. InsurAce operates similarly, pooling user funds to disburse payments for adverse occurrences such as hacks or stake releases. These initiatives showcase the potential of smart contracts and blockchain technology in enabling robust DeFi insurance solutions [3][26].

2.2.5. Stablecoin

Stablecoin is a cryptocurrency pegged to a stable asset or basket of assets, reducing price volatility. This stability makes them suitable for various DeFi applications, including lending, borrowing, and trading. Stablecoin is a digital currency designed to maintain a stable value and purchasing power by incorporating an economic framework [52]. Noncustodial stablecoins are a specific type of stablecoin that aims to keep a stable value relative to a target currency, typically USD, through the implementation of various economic mechanisms [53]. These stablecoins are available in the DeFi space, allowing investors to earn returns on their cryptocurrency investments while minimizing the volatility and its negative impacts. Stablecoins offer a reliable solution to the price fluctuations commonly found in the DeFi ecosystem, allowing for fast and low-cost fund transfers and creating a more stable market environment.

2.2.6. Staking

Staking in the DeFi ecosystem resembles a traditional deposit, wherein investors lock their crypto assets into smart contracts for a specific duration to earn passive income. It is closely associated with proof-of-stake (PoS) blockchain networks, where users become validators by staking a certain amount of the platform’s native tokens. In PoS, validators undergo a rigorous approval process to prevent fraudulent transactions. The stake in PoS algorithms corresponds to one’s wealth and represents the sum of currency locked up for a defined period. Staking allows users to participate in the consensus algorithm, supporting blockchain’s security and operation without the high computational energy requirements of traditional proof-of-work mechanisms [1][53][54]. DeFi has notable examples of staking platforms, including AQRU and Cardano. AQRU offers advanced order types, margin trading, and competitive fees. The platform’s staking and rewards programs for selected coin/token holders provide attractive returns. Unique features such as advanced infrastructure, real-time market data, and decision-making tools enhance user analysis. AQRU’s advanced order types grant users greater trade control with limit orders, stop orders, and trailing stop orders. Margin trading, while potentially profitable, involves higher risks, requiring users to understand market dynamics. AQRU distinguishes itself with a low fee structure, maximizing user profits with competitive trading and minimal withdrawal fees. Its staking program offers passive income opportunities by holding specific coins/tokens, yielding higher returns than traditional savings accounts. The AQRU rewards program also incentivizes coin/token ownership, providing benefits like exclusive features or reduced fees. Cardano is a blockchain platform that delivers scalable and reliable DApps infrastructure. Cardano’s staking mechanism, delegation, lets users delegate ADA tokens to staking pools and earn rewards. Known for its emphasis on sustainability and security, Cardano is a trusted staking platform promoting decentralization. Blockchain’s unique approach involves peer-reviewed research for rigorous testing and security, setting it apart from other platforms with its scientific verification and academic oversight.

2.2.7. Yield Farming

Yield farming entails depositing tokens into a DeFi protocols to maximize the value generated from crypto assets. While it can manifest in various ways, the most prevalent method involves depositing funds into high-yield lending protocols. Yield farming relies on smart contracts to secure tokens and generate interest, offering rates ranging from a few percentage points to triple-digit returns. Often, locked tokens are loaned to users who, in turn, pay interest on their borrowed crypto, channeling a portion of these profits to liquidity providers. Alternatively, locked tokens can provide liquidity for decentralized exchanges, facilitating trading. Yield framing practice benefits DeFi platforms and users by presenting opportunities for passive capital growth and active speculation, potentially surpassing returns from traditional financial instruments. Operating primarily on the Ethereum network through ERC-20 tokens, yield farming mechanisms vary based on protocols and strategies employed [55]. Compound is an example of yield farming, which offers innovative financial services enabling users to earn interest on their cryptocurrencies without the risks associated with yield farming. Yield farming has gained significant popularity due to its perceived advantages.

2.2.8. Decentralized Exchanges (DEXs)

Decentralized exchanges (DEXs) are digital marketplaces that use smart contracts to enable direct cryptocurrency transactions between traders without the involvement of a third-party intermediary in managing their assets [6][56]. DEXs operate on a decentralized infrastructure that relies on self-executing smart contracts containing specific conditions to be met before a trade can occur. These exchanges facilitate various functions, including creating the liquidity pool between tokens, adding or removing liquidity, and exchanging tokens [57]. DEXs offer liquidity benefits while minimizing market price impact. Liquidity in DEXs is determined by automated market maker (AMM) mechanisms. AMMs enable users to trade tokens while concurrently upholding market liquidity and stability efficiently. A prevalent AMM type sets exchange rates using the formula “Amount of token X × Amount of token Y = constant.” These AMMs employ smart contracts for token locking and interest payments, offering rates from a few percentage points to triple-digits. They determine pricing through algorithms, ensuring instant quotes despite liquidity pool depth. As AMMs evolve, future designs are expected to lower fees, reduce friction, and enhance liquidity for DeFi users.

2.3. Advantages

2.3.1. Benefits

DeFi has the capacity to revolutionize business operations by optimizing processes, increasing efficiency, reducing costs, and enhancing overall performance. Integrating DeFi with Fintech presents considerable benefits, including heightened security and governance, thereby delivering substantial value. Below are a few examples of the benefits of using DeFi.

Self-Custody

Self-custody in DeFi allows individuals or businesses to hold and manage their digital assets, like cryptocurrencies, independently without relying on third-party custodians. Within the DeFi ecosystem, users maintain complete ownership and control of their assets, interacting with financial applications and protocols without requiring permission from intermediaries. This direct interaction often results in lower transaction costs [11].
Self-custody offers individuals complete control over their assets, ensuring privacy and protecting identities from external interference. It enables constant access and use of assets from any location, which is considered beneficial for preserving crypto wealth over time. However, self-custody poses risks, such as potential loss or theft of private keys if not securely managed or backed up.

Accessibility

TradFi systems restrict access with geographical barriers, high fees, and documentation requirements, limiting access for some individuals and communities. DeFi has the potential to establish an inclusive and available financial system, unlike TradFi, which may not be affordable for everyone. DeFi allows for convenient access to financial services, regardless of geographical location, as long as one has an internet connection, a cryptocurrency wallet, and a smartphone. DeFi benefits include reduced costs and 24/7 availability [11]. DeFi protocols are designed to be accessible to anyone, which may lead to an open and accessible financial system. The infrastructure requirements are low, and the risk of discrimination is almost nonexistent due to the lack of identities. If regulations demand access restrictions, such as for security tokens, such limitations can be implemented in the token contracts without compromising the integrity and decentralization properties of the settlement layer [38].

Security

Enhanced security in a financial system creates a secure environment where institutions and users can conduct activities without concerns about asset theft or information compromise. Blockchain ensures the security of DeFi by offering a decentralized and immutable digital ledger recording all transactions and smart contracts. These contracts establish agreements between two or more parties and only become effective once the specified conditions are met. The use of blockchain technology in DeFi offers a high level of appeal in terms of security while still maintaining privacy, thanks to several properties that it supports, including immutability, transparency, traceability, data consistency, tokenization, and governance. Each transaction on blockchain is secured using cryptographic principles, ensuring data integrity and authentication through public key infrastructure (PKI), which provides users with public keys for receiving assets and private keys for protection [58][59].

Low Cost

DeFi service providers execute operations at a lower cost than TradFi, primarily due to the absence of fees charged by banks and other financial entities for service usage, enabling investors to respond to changing environmental circumstances more affordably. Moreover, the decentralized and automated nature of DeFi operations leads to significantly narrower profit margins than those of TradFi institutions, resulting in advantageous rates for borrowers and heightened operational efficiency. These cost efficiencies stem from the automated and unregulated environment of DeFi platforms, resulting in lower marginal costs when contrasted with banks and nonbank entities across advanced and emerging market economies. DeFi provides cost-effective services through smart contracts, eliminating the necessity of intermediaries such as financial institutions and banks.

High Liquidity

High liquidity pertains to the seamless exchangeability of tokens or cryptocurrencies with other tokens in DeFi. Liquidity is paramount in DeFi, facilitating user transactions on decentralized exchanges without relying on centralized market makers. At the core of the DeFi ecosystem are liquidity pools, which are collaborative reserves of cryptocurrencies or tokens held in smart contracts. These pools empower users to contribute asset liquidity and earn rewards through transaction fees. Liquidity is indispensable for DeFi, serving as a vital catalyst for trading and eliminating impediments to the fluidity of digital assets [13][60].

2.3.2. Features

Transparent Transaction

DeFi stands out for its transparency, encompassing software components, data, and processes involved [26]. It aims to eliminate private agreements, back-room deals, and centralization, allowing users to scrutinize the precise rules governing financial assets and products [61]. Most DeFi projects have transparent transactions, allowing users to verify and audit all activities [11]. In the DeFi context, financial information is typically publicly available, benefiting researchers and users. This transparency provides historical and current data, significantly improving compared to TradFi systems, where information is often scattered across proprietary databases or unavailable. DeFi’s transparency facilitates identifying and preventing unwanted events and a quicker understanding of their origins and potential consequences [38].

Programmability

Programmability refers to the smart contracts’ capacity to automate financial activities and create novel financial instruments and digital assets. These contracts are easily executable on a blockchain platform, interacting with business logic to function automatically without human intervention. DeFi platforms leverage this potential, emphasizing the security of their automated processes, which operate strictly as programmed and are immune to manipulation, distinguishing them as more secure than TradFi systems [11][26].
Programmability enables the modification, embedding, or reduction of predefined code instructions. Smart contracts within DeFi platforms automate operations by adjusting programs based on programmatic business logic. They drive the creation of innovative financial instruments and digital assets while allowing for easy modification and creation of new programs [62]. This emphasis on security stems from the system’s adherence to programmed rules, ensuring its immunity to manipulation, a marked contrast from TradFi systems [20].

Tokenization

The digital assets concept is relatively unexplored in TradFi, but in the DeFi ecosystem, it provides a standardized framework for asset tokenization [9]. Tokenization can create a new asset class for investors, enhancing accessibility, streamlining operations, reducing costs, and accelerating processes in the financial industry [63]. The Ethereum Request for Comments-20 (ERC-20) standard has emerged as the widely adopted choice for asset tokenization in DeFi, offering comprehensive asset coverage.

Governance

In the realm of TradFi, centralized governance prevails, with decision-making authority concentrated in the hands of a few central entities or organizations. In contrast, DeFi embraces decentralized governance, which involves a broader and more distributed network of participants in decision-making processes. Governance in DeFi encompasses the establishment of rules, processes, and mechanisms that govern the operation and management of various aspects within the DeFi ecosystem, including protocol updates, fund allocations, and rule changes. Key stakeholders, represented by token holders, play a significant role in shaping the governance of DeFi protocols, thereby enhancing efficiency, transparency, and inclusivity [64]. Blockchain-based governance in DeFi strikes a balance between accountability and decentralization, leveraging both on-chain and off-chain structures to facilitate decision-making [65]. On-chain governance explicitly defines the governance arrangement within the protocol, allowing stakeholders to vote or propose changes directly on blockchain.

2.4. Risks

In the financial sector, fraudulent activities and excessive risk-taking are prevalent, because money is a target for criminal activities. DeFi is not immune to these risks and is particularly vulnerable due to its relative novelty and slower adoption compared to its theoretical potential [48]. The DeFi ecosystem presents various risks, including smart contract attacks, protocol changes, liquidity issues, regulatory uncertainty, and market risk. Smart contract attacks are a common risk, with vulnerabilities such as flash loan attacks, oracle manipulation, and reentrancy.
The DeFi ecosystem harbors diverse risks with potential repercussions for users and investors. Effective risk mitigation requires establishing a classification system to prioritize and categorize these risks. Prominent threats include smart contract flaws, where weak coding may lead to fund theft, particularly in liquidity pools. Protocol changes, such as impermanent loss and liquidity crises, pose risks to the functionality and profitability of DeFi platforms.

2.4.1. Technical Risks

The DeFi realm grapples with inherent technical risks. Although Ethereum, as the leading public blockchain, has not encountered major breaches, other sectors in DeFi have faced targeting. Technical risks and breaches have targeted blockchain-based wallets, centralized exchanges, and DApps [66]. Concerns in DeFi revolve around fraudulent activities, money laundering, and illegal financing, which are all persistent issues in the cryptocurrency sphere [67]. The reliability of DeFi hinges on the security of underlying smart contracts and blockchain protocols. Errors or vulnerabilities in code can lead to substantial hacks and losses for DApp users.

Smart Contracts Risk

Smart contracts are critical in the DeFi ecosystem and carry significant risks. This is because malicious actors can exploit any bugs or errors in the code to achieve their goals. A notable example is the Qubit Finance incident, where an attacker exploited a bug in the Qubit smart contract, converting an Ethereum-based token into almost USD 80 million worth of Binance Coin [68].

Miner Risks

Miner risks are the possibility of transaction processors engaging in malicious actions toward certain transactions. In a blockchain system, users send transactions to the network along with a fee that will be paid to the miner who successfully includes it in a block. Miners are responsible for determining the sequence in which proposed transactions will be executed [69]. Nonetheless, a miner may opt to prioritize a lower-fee transaction over a higher-fee one, especially if the former is deemed more profitable or receives a side payment from the originator of the lower-fee transaction [70].

Transaction Risks

Transaction risks refer to the shortcomings or breakdowns in the underlying blockchain network. If the network for base-layer settlement is successfully attacked, permits double-spending becomes overly costly for transactions, or lacks the necessary capacity, these failures will affect the application layer. Therefore, the planned Ethereum 2 upgrade aims to improve performance significantly, representing a crucial development for DeFi. This upgrade will also transition Ethereum to proof-of-stake consensus, eliminating energy-intensive proof-of-work mining [69].

2.4.2. Financial Risks

Liquidity Risk

Liquidity risk in DeFi refers to the possibility of having insufficient funds to realize the value of a financial asset. In DeFi, market makers are encouraged to liquidate under-collateralized loans, akin to a foreclosure auction in real estate. However, if these incentives for liquidation do not work, the original counterparties and liquidity providers may face unexpected default risk. Decentralized services do not have the same last-resort remedies as centralized exchanges, which can take offline trading during flash crashes [69]. The hope among DeFi participants is that blockchain’s widespread adoption will attract more liquidity to ensure its long-term viability [29].

Market Risk

DeFi market risk refers to the potential for a decline in the value of assets over time due to various factors, such as idiosyncratic behaviors of investors, new information, or changes in market conditions. The ease of fund transfer and the complexity of novel instruments in DeFi create an environment where there is an increased possibility of abuse by DeFi protocol creators, exchange operators, or third-party manipulators [69]. The ease of fund transfer in DeFi highlights the importance of regulatory oversight in the DeFi space to mitigate these risks [29].

Credit Risk

Credit risk refers to the possibility of counterparties failing to fulfill their obligations to a financial instrument. In DeFi, this risk is particularly problematic due to the volatility of underlying digital assets that can result in undercollateralization, the ease of credit creation leading to excessive leverage, or inaccuracies in algorithmic determination of interest rates. Furthermore, the absence of fixed identities in a pseudonymous network presents additional difficulties in determining creditworthiness [69].

2.4.3. Operational Risks

Composability Risk

Composability is a fundamental principle of system design that enables the creation of applications by assembling individual components. In DeFi, composability serves as a crucial design principle, allowing different pieces of code to be combined like building blocks, fostering flexibility within the ecosystem. This concept, often referred to as “money legos”, has significantly accelerated innovation in DeFi.

Key Management Risk

The management of cryptographic keys is a crucial aspect of DeFi and is commonly referred to as the risk of private key loss. A DeFi cryptographic system’s security relies on individuals’ ability to safeguard their private keys effectively. However, it is important to acknowledge the possibility that attackers can gain access to keys through brute force attacks, physical access, side-channel attacks, or exploiting weak encryption. In such cases, they can steal or transfer funds from targeted accounts. As a decentralized system, no mechanism exists to recover stolen currency [69].

2.4.4. Legal and Regulatory Risk

Legal and regulatory risk in the DeFi context refers to using DeFi for illegal purposes or to evade regulatory compliance. This type of risk involves the possibility of government intervention that could affect the operation of DeFi protocols. Creating laws that regulate or even ban DeFi protocols altogether is a potential outcome. DeFi is facing increasing regulatory challenges, particularly concerning licensing and transparent regulations. The absence of such regulations makes it challenging for users to report issues or seek redress. However, implementing governance and decision-making processes that comply with financial regulations would go against the core principles of DeFi, which prioritize decentralization [67][69][71].

References

  1. Dhillon, V.; Metcalf, D.; Hooper, M. Blockchain Enabled Applications; Springer Science and Business Media LLC: Dordrecht, The Netherlands, 2017.
  2. Pal, A.; Tiwari, C.K.; Behl, A. Blockchain technology in financial services: A comprehensive review of the literature. J. Glob. Oper. Strateg. Sourc. 2021, 14, 61–80.
  3. Li, W.; Bu, J.; Li, X.; Peng, H.; Niu, Y.; Zhang, Y. A survey of DeFi security: Challenges and opportunities. J. King Saud Univ.—Comput. Inf. Sci. 2022, 34, 10378–10404.
  4. Raffaele, T.; Matteo, P.; Mario, T.; Alberto, M. The contribution of blockchain technologies to anti-corruption practices: A systematic literature review. Bus. Strategy Environ. 2023, 33, 4–18.
  5. Aquilina, M.; Frost, J.; Schrimpf, A. Decentralised Finance (DeFi): A Functional Approach. SSRN Electron. J. 2023, 1–26.
  6. Mohan, V. Automated market makers and decentralized exchanges: A DeFi primer. Financ. Innov. 2022, 8, 20.
  7. Gudgeon, L.; Perez, D.; Harz, D.; Livshits, B.; Gervais, A. The Decentralized Financial Crisis. In Proceedings of the 2020 Crypto Valley Conference on Blockchain Technology (CVCBT 2020), Rotkreuz, Switzerland, 11–12 June 2020; pp. 1–15.
  8. Truchet, M. Decentralized Finance (DeFi): Opportunities, Challenges and Policy Implications. 2022, pp. 69–76. Available online: https://www.eurofi.net/wp-content/uploads/2022/05/eurofi_decentralized-finance-defi_opportunities-challenges-and-policy-implications_paris_february-2022.pdf (accessed on 31 December 2023).
  9. Naggar, M. Real World Assets: The Bridge between TradFi and DeFi; Binance: Shanghai, China, 2023.
  10. Mnohoghitnei, I.; Horobeț, A.; Belașcu, L. Bitcoin is so Last Decade—How Decentralized Finance (DeFi) could Shape the Digital Economy. Eur. J. Interdiscip. Stud. 2022, 14, 87–99.
  11. Steiner, G.H.J.-M.; Bhaumik, A. Defi Explained: The Case of Decentralized Exchanges; Vinzenz Treytl (ABC Research): Vienna, Austria, 2022.
  12. Tabarrok, A.; Cowen, T. Cryptoeconomics. 2022. Available online: https://marginalrevolution.com/wp-content/uploads/2022/05/Cryptoeconomics-Modern-Principles.pdf (accessed on 31 December 2023).
  13. Metelski, D.; Sobieraj, J. Decentralized Finance (DeFi) Projects: A Study of Key Performance Indicators in Terms of DeFi Protocols’ Valuations. Int. J. Financ. Stud. 2022, 10, 108.
  14. Alamsyah, A.; Syahputra, S. The Taxonomy of Blockchain-based Technology in the Financial Industry. F1000Res 2023, 12, 457.
  15. Zetzsche, D.A.; Arner, D.W.; Buckley, R.P. Decentralized Finance (DeFi). SSRN Electron. J. 2020, 6, 172–203.
  16. Clark, M. DeFi vs. Traditional Finance: A Comparative Study. Available online: https://blockchainreporter.net/defi-vs-traditional-finance-a-comparative-study/ (accessed on 12 January 2024).
  17. Yousaf, I.; Nekhili, R.; Gubareva, M. Linkages between DeFi assets and conventional currencies: Evidence from the COVID-19 pandemic. Int. Rev. Financ. Anal. 2022, 81, 102082.
  18. Gorkhali, A.; Chowdhury, R. Blockchain and the Evolving Financial Market: A Literature Review. J. Ind. Integr. Manag. 2022, 7, 47–81.
  19. Trivedi, S.; Mehta, K.; Sharma, R. Systematic Literature Review on Application of Blockchain Technology in E-Finance and Financial Services. 2021. Available online: http://jotmi.org (accessed on 30 December 2023).
  20. Patel, R.; Migliavacca, M.; Oriani, M.E. Blockchain in banking and finance: A bibliometric review. Res. Int. Bus. Financ. 2022, 62, 101718.
  21. Alamsyah, A.; Hakim, N.; Hendayani, R. Blockchain-Based Traceability System to Support the Indonesian Halal Supply Chain Ecosystem. Economies 2022, 10, 134.
  22. Christidis, K.; Devetsikiotis, M. Blockchains and Smart Contracts for the Internet of Things. IEEE Access 2016, 4, 2292–2303.
  23. Habib, G.; Sharma, S.; Ibrahim, S.; Ahmad, I.; Qureshi, S.; Ishfaq, M. Blockchain Technology: Benefits, Challenges, Applications, and Integration of Blockchain Technology with Cloud Computing. Future Internet 2022, 14, 341.
  24. Alamsyah, A.; Widiyanesti, S.; Wulansari, P.; Nurhazizah, E.; Dewi, A.S.; Rahadian, D.; Ramadhani, D.P.; Hakim, M.N.; Tyasamesi, P. Blockchain traceability model in the coffee industry. J. Open Innov. Technol. Mark. Complex. 2023, 9, 100008.
  25. Wust, K.; Gervais, A. Do you need a blockchain? In Proceedings of the 2018 Crypto Valley Conference on Blockchain Technology (CVCBT 2018), Zug, Switzerland, 20–22 June 2018; pp. 45–54.
  26. Schueffel, P. DeFi: Decentralized Finance—An Introduction and Overview. J. Innov. Manag. 2021, 9, I–XI.
  27. Xu, T.A.; Xu, J.; Lommers, K. DeFi vs. TradFi: Valuation Using Multiples and Discounted Cash Flow. October 2022. Available online: http://arxiv.org/abs/2210.16846 (accessed on 31 December 2023).
  28. Grassi, L.; Lanfranchi, D.; Faes, A.; Renga, F.M. Do we still need financial intermediation? The case of decentralized finance—DeFi. Qual. Res. Account. Manag. 2022, 19, 323–347.
  29. Carapella, F.; Dumas, E.; Gerszten, J.; Swem, N.; Wall, L. Decentralized Finance (DeFi): Transformative Potential & Associated Risks. Financ. Econ. Discuss. Ser. 2022, 2022, 1–33.
  30. Piñeiro-Chousa, J.; Šević, A.; González-López, I. Impact of social metrics in decentralized finance. J. Bus. Res. 2023, 158, 113673.
  31. Angell, P. What Is The Difference between DeFi, CeFi and TradFi? Available online: https://screenrant.com/defi-vs-cefi-vs-tradfi-differences-explained/ (accessed on 31 December 2023).
  32. Voshmgir, S. Token Economy: How the Web3 Reinvents the Internet; Token Kitchen: Alentejo, Portugal, 2020; Volume 1.
  33. Xu, T.A.; Xu, J. A Short Survey on Business Models of Decentralized Finance (DeFi) Protocols. arXiv 2022, arXiv:2202.0774.
  34. Li, Z.; Xiao, B.; Guo, S.; Yang, Y. Securing Deployed Smart Contracts and DeFi With Distributed TEE Cluster. IEEE Trans. Parallel Distrib. Syst. 2023, 34, 828–842.
  35. Bidry, M.; Ouaguid, A.; Hanine, M. Enhancing E-Learning with Blockchain: Characteristics, Projects, and Emerging Trends. Future Internet 2023, 15, 293.
  36. Bahga, A.; Madisetti, V.K. Blockchain Platform for Industrial Internet of Things. J. Softw. Eng. Appl. 2016, 9, 533–546.
  37. Sorin, E.; Bobo, L.; Pinson, P. Consensus-Based Approach to Peer-to-Peer Electricity Markets with Product Differentiation. IEEE Trans. Power Syst. 2019, 34, 994–1004.
  38. Schär, F. Decentralized finance: On blockchain-and smart contract-based financial markets. Fed. Reserve Bank St. Louis Rev. 2021, 103, 153–174.
  39. Tian, Y.; Lu, Z.; Adriaens, P.; Minchin, R.E.; Caithness, A.; Woo, J. Finance infrastructure through blockchain-based tokenization. Front. Eng. Manag. 2020, 7, 485–499.
  40. Swinkels, L. Empirical evidence on the ownership and liquidity of real estate tokens. Financ. Innov. 2023, 9, 45.
  41. Bartoletti, M.; Chiang, J.H.Y.; Lluch-Lafuente, A. A Theory of Automated Market Makers in Defi. Log. Methods Comput. Sci. 2022, 18, 1–12.
  42. Meyer, E.A.; Welpe, I.M.; Sandner, P. Decentralized Finance—A System Literature Review and Research Directions. 2022. Available online: https://aisel.aisnet.org/ecis2022_rp/25 (accessed on 30 December 2023).
  43. Gudgeon, L.; Werner, S.; Perez, D.; Knottenbelt, W.J. DeFi Protocols for Loanable Funds: Interest Rates, Liquidity and Market Efficiency. In Proceedings of the 2nd ACM Conference on Advances in Financial Technologies (AFT 2020), New York, NY, USA, 21–23 October 2020; pp. 92–112.
  44. Hassan, S.; De Filippi, P. Decentralized autonomous organization. Internet Policy Rev. 2021, 10, 1–10.
  45. Rikken, O.; Janssen, M.; Kwee, Z. The ins and outs of decentralized autonomous organizations (DAOs) unraveling the definitions, characteristics, and emerging developments of DAOs. Blockchain Res. Appl. 2023, 4, 100143.
  46. Sims, A. Blockchain and Decentralised Autonomous Organisations (DAOs): The Evolution of Companies? SSRN Electron. J. 2020, 96, 423–458.
  47. Aiden, S.; Werbach, K. Decentralized Autonomous Organizations: Beyond the Hype. In Proceedings of the World Economic Forum, Davos-Klosters, Switzerland, 22–26 May 2022; pp. 1–24.
  48. Cai, W.; Wang, Z.; Ernst, J.B.; Hong, Z.; Feng, C.; Leung, V.C.M. Decentralized Applications: The Blockchain-Empowered Software System. IEEE Access 2018, 6, 53019–53033.
  49. Wu, K. An Empirical Study of Blockchain-based Decentralized Applications. arXiv 2019, arXiv:1902.04969.
  50. Didenko, A.N. Decentralised Finance—A Policy Perspective; CPA Australia Ltd.: Hong Kong, China, 2022.
  51. Fluid. FLUID—Major Use Cases in DeFi. Available online: https://www.fluid.finance/news-detail/major-use-cases-in-defi/ (accessed on 22 May 2023).
  52. Lu, Q.; Tran, A.B.; Weber, I.; O’Connor, H.; Rimba, P.; Xu, X.; Staples, M.; Zhu, L.; Jeffery, R. Integrated model-driven engineering of blockchain applications for business processes and asset management. Softw. Pract. Exp. 2021, 51, 1059–1079.
  53. Werner, S.; Perez, D.; Harz, D.; Knottenbelt, W.J. SoK: Decentralized Finance (DeFi). arXiv 2022, arXiv:2101.08778.
  54. Klages-Mundt, A.; Harz, D.; Gudgeon, L.; Liu, J.Y.; Minca, A. Stablecoins 2.0: Economic Foundations and Risk-based Models. In Proceedings of the 2nd ACM Conference on Advances in Financial Technologies (AFT 2020), New York, NY, USA, 21–23 October 2020; pp. 59–79.
  55. Xu, J.; Feng, Y. Reap the Harvest on Blockchain: A Survey of Yield Farming Protocols. IEEE Trans. Netw. Serv. Manag. 2022, 20, 858–869.
  56. Sheikh, H.; Azmathullah, R.M.; Rizwan, F. Proof-of-Work vs. Proof-of-Stake: A Comparative Analysis and an Approach to Blockchain Consensus Mechanism. Int. J. Res. Appl. Sci. Eng. Technol. 2018, 887, 2321–9653.
  57. Rajput, S.; Singh, A.; Khurana, S.; Bansal, T.; Shreshtha, S. Blockchain Technology and Cryptocurrenices. In Proceedings of the 2019 Amity International Conference on Artificial Intelligence (AICAI 2019), Dubai, United Arab Emirates, 4–6 February 2019; pp. 909–912.
  58. Lehar, A.; Parlour, C.A. Decentralized Exchange: The Uniswap Automated Market Maker. J. Financ. Forthcom. Available online: https://ssrn.com/abstract=3905316 (accessed on 30 December 2023).
  59. Pal, O.; Alam, B.; Thakur, V.; Singh, S. Key management for blockchain technology. ICT Express 2021, 7, 76–80.
  60. Ogiela, M.R.; Ogiela, L. Cognitive cryptography techniques for intelligent information management. Int. J. Inf. Manag. 2018, 40, 21–27.
  61. Qin, K.; Zhou, L.; Afonin, Y.; Lazzaretti, L.; Gervais, A. CeFi vs. DeFi—Comparing Centralized to Decentralized Finance; Association for Computing Machinery: New York, NY, USA, 2021; Volume 1.
  62. Ante, L. Liquidity Shocks, Token Returns and Market Capitalization in Decentralized Finance (DeFi) Markets. 2022. Available online: https://ssrn.com/abstract=4183105 (accessed on 30 December 2023).
  63. Gates, M. Blockchain: Ultimate Guide to Understanding Blockchain, Bitcoin, Cryptocurrencies, Smart Contracts and the Future of Money; CreateSpace Independent Publishing Platform: Scotts Valley, CA, USA, 2017; pp. 3–5.
  64. Laurent, P.; Chollet, T.; Burke, M.; Seers, T. The tokenization of assets is disrupting the financial industry. Inside Mag. 2018, 19, 62–67.
  65. Zwitter, A.; Hazenberg, J. Decentralized Network Governance: Blockchain Technology and the Future of Regulation. Front. Blockchain 2020, 3, 1–12.
  66. Emergen Research. Navigating Decentralized Finance (DeFi) Market Size 2023: Share Insights, Future Demand and Forecast till 2032|LinkedIn. Available online: https://www.linkedin.com/pulse/navigating-decentralized-finance-defi-market-size-2023-tmxqf/ (accessed on 10 January 2024).
  67. Wronka, C. Financial crime in the decentralized finance ecosystem: New challenges for compliance. J. Financ. Crime 2023, 30, 97–113.
  68. Kaur, S.; Singh, S.; Gupta, S.; Wats, S. Risk analysis in decentralized finance (DeFi): A fuzzy-AHP approach. Risk Manag. 2023, 25, 13.
  69. Karim, S.; Lucey, B.M.; Naeem, M.A.; Uddin, G.S. Examining the interrelatedness of NFTs, DeFi tokens and cryptocurrencies. Financ. Res. Lett. 2022, 47, 102696.
  70. Markcan. Is A Bug In A Web3 Smart Contract Part of the Contract? Available online: https://markn.ca/2022/is-a-bug-in-a-web3-smart-contract-part-of-the-contract/ (accessed on 25 April 2023).
  71. Rjoub, H.; Adebayo, T.S.; Kirikkaleli, D. Blockchain technology-based FinTech banking sector involvement using adaptive neuro-fuzzy-based K-nearest neighbors algorithm. Financ. Innov. 2023, 9, 65.
More
Information
Subjects: Business, Finance
Contributors MDPI registered users' name will be linked to their SciProfiles pages. To register with us, please refer to https://encyclopedia.pub/register : , ,
View Times: 127
Revisions: 2 times (View History)
Update Date: 06 Mar 2024
1000/1000