List of questions about [Blockchain]

Cloud mining is revolutionizing how individuals engage with cryptocurrencies by allowing them to mine digital coins remotely. Unlike traditional mining, which requires substantial investments in hardware and electricity, cloud mining provides users with an opportunity to lease mining power from third-party data centers. This model democratizes mining, making it more accessible to a broader audience, even those without technical expertise.

How Does Cloud Mining Work?

Cloud mining involves purchasing a contract from a service provider that owns the mining hardware. Users pay a fee, and the provider handles the logistics of mining, including maintenance and electricity. In return, users receive a proportion of the mined cryptocurrencies based on the contract's terms. This process removes the hassle of equipment setup and ongoing management, allowing miners to focus solely on their investments.

What are the Benefits of Cloud Mining?

One of the primary benefits of cloud mining is accessibility. Individuals can now engage in cryptocurrency mining without needing specialized knowledge or equipment. Additionally, cloud mining eliminates the need for substantial upfront costs associated with purchasing hardware and setting up a mining operation. Furthermore, it can lead to lower energy costs and less hassle regarding hardware maintenance.

What Are the Challenges of Cloud Mining?

While cloud mining offers numerous advantages, it is not without risks. The most significant challenge is the potential lack of transparency from cloud mining service providers. Some companies have been known to operate scams, leaving investors with nothing. Additionally, fluctuations in cryptocurrency prices can affect profitability. Before entering a contract, miners must thoroughly research providers and understand the variables that may impact their returns.

How is the Cloud Mining Market Evolving?

The cloud mining landscape is rapidly evolving, shaped by technological advancements and changing regulatory frameworks. As cryptocurrencies gain acceptance, new cloud mining solutions are emerging, often integrating advanced technologies like artificial intelligence and machine learning to optimize operations. This evolution is essential for keeping up with the fast-paced nature of the cryptocurrency market.

What Factors Should You Consider Before Cloud Mining?

Before diving into cloud mining, potential miners should evaluate several factors. It is crucial to examine the reputation of cloud mining providers and their terms of service. Users should also consider the mining contract's duration and fees, such as maintenance fees, electricity costs, and the underlying cryptocurrency’s market volatility. Being informed about these aspects can significantly impact an individual’s success in cloud mining.

Why is Security Important in Cloud Mining?

Security is paramount in the cloud mining space, especially as cyber threats continue to rise. Miners must choose reputable providers with strong security measures to protect both their investments and personal information. Utilizing two-factor authentication and regularly updating passwords can help safeguard accounts against unauthorized access. Taking these precautions can assist miners in minimizing risks.

Will Cloud Mining Become More Popular?

As cryptocurrency markets expand and technology continues to progress, cloud mining is poised to gain popularity. The increasing number of user-friendly platforms indicates that public interest in accessible cryptocurrency investment is on the rise. Furthermore, as regulators worldwide establish clearer guidelines, more individuals may feel confident entering the cloud mining space.

How Can You Get Started with Cloud Mining?

Getting started with cloud mining is relatively straightforward. First, research and choose a reputable cloud mining provider. After selecting a provider, create an account and select the appropriate contract that meets your needs. It is crucial to read through all terms and conditions to understand what is included in your investment. Once you are set up, you will begin receiving your share of mined cryptocurrencies based on the agreed-upon terms.

In the competitive landscape of Layer 1 blockchains, new projects must offer a significant technological advantage to stand out. The SUI network is one such project, designed from the ground up to provide massive scalability and low-latency transactions for the next generation of decentralized applications.

This guide will explain the SUI blockchain, its unique architecture that enables parallel transaction processing, and the function of the native SUI crypto token.

What is the SUI Blockchain?

SUI is a high-performance, permissionless Layer 1 blockchain. It was developed by Mysten Labs, a company founded by former senior executives from Meta's Novi Research team who worked on the Diem blockchain project. The primary goal of the SUI network is to create a highly scalable and developer-friendly platform for building Web3 applications, particularly in sectors like gaming, social media, and finance.

The Key Innovation: An Object-Centric Model

The core difference between SUI and many other blockchains is its data model. While traditional blockchains like Ethereum use an account-based model, the SUI blockchain uses an "object-centric" model.

In this system, a user's assets are stored as distinct "objects". Simple transactions, like sending an asset from one user to another, only affect a single object and do not need to be ordered against unrelated transactions. This allows the SUI network to process many of these simple transactions in parallel, dramatically increasing its speed and throughput compared to blockchains that must process every transaction sequentially.

The Move Programming Language

The SUI network is programmed using the Move language, which was also originally developed at Meta for the Diem project. Move is a smart contract language designed with a strong emphasis on security and the formal verification of digital assets. Its structure helps prevent common programming errors and vulnerabilities that can lead to exploits, making it an attractive language for developers building applications that handle high-value assets.

The Role of the SUI Crypto Token

The native SUI token is the core economic asset of the SUI network. It serves three primary purposes:

• Gas Fees: The SUI token is used to pay for the transaction fees required to execute operations and smart contracts on the network.
• Staking: SUI holders can stake their tokens with validators to participate in the network's Proof-of-Stake consensus mechanism. In return for helping to secure the network, stakers receive rewards.
• Governance: The token is used for on-chain voting, allowing holders to participate in the future direction and development of the SUI protocol.

The Investment Perspective

Investing in SUI crypto is a bet on its unique architecture providing a superior platform for developers building high-volume dApps. Its ability to process transactions in parallel is a significant technical advantage. The project's success will depend on its ability to attract a vibrant ecosystem of applications that can leverage this speed and scalability to create compelling user experiences.

Key Points: Music, Movies, & Art as NFTs

• NFTs empower artists to sell directly to fans, bypassing traditional labels and studios.
• Blockchain technology ensures ownership, authenticity, and royalty tracking for digital content.
• Celebrities like Snoop Dogg, Eminem, and Grimes helped bring NFTs to mainstream audiences.
• NFTs are expanding into AI-generated art, metaverse integration, and functional tokens.
• Fans gain exclusive access, perks, and opportunities to actively participate in creative projects.

Music, Movies, and Art in the NFT Era: How Creators Are Redefining Ownership

Non-fungible tokens, or NFTs, have transformed the way artists connect with their audiences, monetize their work, and maintain control over their creations. Unlike cryptocurrencies such as Bitcoin or Ethereum, NFTs are unique digital assets recorded on the blockchain. They cannot be exchanged for one another, which makes them perfect for proving ownership and authenticity of digital content ranging from artwork and music to videos, films, collectibles, and even virtual real estate.

The concept of NFTs has existed for nearly a decade, starting with early experiments like  Coloured Coins  in 2012, which represented unique blockchain assets. By 2014, artist Kevin McCoy minted Quantum, widely recognized as the first NFT. Around the same time, blockchain-based collectibles like Spells of Genesis and Rare Pepe cards introduced the idea of tradeable digital assets within niche crypto communities.

NFTs entered the broader public consciousness in 2017 with projects on Ethereum, such as CryptoPunks and CryptoKitties, which allowed users to securely own and trade unique digital items on-chain. The technology matured further with platforms like Decentraland, creating NFT-powered virtual worlds, and by 2020-2021, NFTs had begun influencing mainstream digital art, gaming, and the metaverse.

Expanding into Music and Movies

In 2021, NFTs made a breakthrough in music and movies. Artists and filmmakers found new ways to monetize their creations directly, without relying on record labels or studios. Ethereum’s ERC-721 standard enabled NFTs to include automatic royalty payments, meaning creators could earn a percentage of every resale—ensuring ongoing income beyond the initial sale.

Musicians started tokenizing albums, singles, stems, and unreleased tracks, offering fans exclusive ownership and early access. These NFT releases often came with perks like private listening sessions, VIP concert tickets, or participation in revenue shares. This model not only provided upfront funding for independent artists but also gave fans a sense of scarcity and active involvement in the creative process.

Filmmakers adopted similar strategies, selling behind-the-scenes footage, exclusive clips, scripts, posters, and access to private screenings. Some NFT projects even allowed fans to vote on creative decisions or receive special credits, transforming them from passive consumers into active participants in the artistic journey.

From Albums to Blockbusters: NFT Success Stories

The music industry saw some of the earliest NFT experiments gain major attention. The band Kings of Leon released their album When You See Yourself as NFTs, generating over $2 million through limited artwork and access perks. Eminem’s Shady Con collection sold out in 15 minutes on Nifty Gateway, raising around $2 million, with individual NFTs like Stan’s Revenge  selling for $100,000.

Other artists pushed the boundaries even further. Grimes sold digital art and music NFTs worth $6 million, while electronic musician 3LAU auctioned an NFT album for a staggering $11.6 million. In film, Zero Contact became the first Hollywood movie released as an NFT, and Beeple’s Everydays sold at Christie’s for $69 million—setting the stage for mainstream adoption.

Major studios joined the trend as well. Warner Bros. launched Dune digital artifacts, including limited-edition 3D character sculptures tied to the film’s universe. These collectibles provided fans with official, studio-backed memorabilia far beyond traditional posters or merchandise.

Celebrity Influence on NFT Adoption

Celebrities have played a key role in making NFTs mainstream. Stars like Snoop Dogg, Eminem, Justin Bieber, Chris Brown, Paris Hilton, Gwyneth Paltrow, Reese Witherspoon, Shaquille O’Neal, Eva Longoria, Ozzy Osbourne, Travis Barker, Meek Mill, and Ashton Kutcher have all embraced NFTs as collectors, creators, or investors.

Many celebrities have purchased blue-chip NFTs like Bored Ape Yacht Club and displayed them publicly on social platforms. Others have launched branded collections, invested in NFT marketplaces, or promoted Web3 projects—helping bridge pop culture with blockchain technology. This celebrity involvement significantly accelerated public awareness of NFTs beyond crypto-native audiences.

How Artists Use NFTs Today

NFTs today are more than collectibles—they are tools for creative empowerment. Musicians can release tokenized albums that pay royalties to fans, offer exclusive access to unreleased content, or include phygitals—a blend of physical and digital items. Filmmakers like Wong Kar-wai and studios such as Warner Bros. leverage NFTs for movie clips, posters, and collectibles, creating interactive experiences that involve fans directly.

Artists like Snoop Dogg advocate for quality and fairness in the NFT market, ensuring that NFTs can protect creator rights, build trust, and foster vibrant communities. By providing fans with perks, voting rights, or special access, NFTs are transforming the traditional artist-fan relationship into a dynamic ecosystem of engagement.

The Future of NFTs for Creators

Looking ahead to 2026 and beyond, NFTs are expected to evolve further. AI-generated art is becoming part of the NFT ecosystem, while brands like Nike and Adidas integrate NFTs into loyalty programs and metaverse experiences. Functional tokens are emerging, providing music royalties, event perks, film access, and community benefits. This evolution allows creators to remain independent, diversify revenue streams, and deepen connections with fans.

Platforms like BYDFi are supporting this growth, offering creators and collectors a reliable ecosystem to explore NFTs, trade assets, and engage with a global audience in a secure environment.

FAQ

Q1: What makes NFTs different from regular cryptocurrencies?
NFTs are unique, non-interchangeable digital assets recorded on the blockchain, while cryptocurrencies like Bitcoin are fungible and can be exchanged one-for-one. NFTs verify ownership and authenticity of digital content.

Q2: How do artists benefit from NFTs?
NFTs allow artists to sell directly to fans, receive ongoing royalties from resales, maintain creative freedom, and offer exclusive experiences or content.

Q3: Can NFTs be used in movies and music?
Yes. Musicians and filmmakers use NFTs to sell albums, tracks, exclusive clips, behind-the-scenes content, tickets, and more, enabling fans to actively participate in the creative process.

Q4: Which celebrities are involved in NFTs?
Notable names include Snoop Dogg, Eminem, Justin Bieber, Chris Brown, Grimes, Paris Hilton, Reese Witherspoon, Shaquille O’Neal, and more. They act as creators, collectors, or promoters of NFTs.

Q5: What is the future of NFTs?
NFTs are evolving to include AI-generated art, metaverse integration, functional tokens, and community engagement, helping creators stay independent while connecting fans to unique digital experiences.

If you’ve ever sent cryptocurrency, you know that brief moment of anxiety. You’ve hit 'send,' and your funds have vanished into the digital world. Is the transaction going through? Did it arrive safely?

This is where the TXID comes in. It’s your proof, your receipt, and your peace of mind all rolled into one. Think of it like this: when you order a package online, you get a tracking number. You can use that number to see exactly where your package is and when it will arrive.  A TXID, which stands for blockchain transaction ID, does the exact same thing for your crypto. Let's demystify this powerful tool.

So, What Exactly is a TXID or Transaction Hash?

A TXID (also known as a transaction hash) is a unique string of letters and numbers that serves as a permanent, unchangeable proof that a specific crypto transaction took place.

Every single time you send or receive cryptocurrency, that action is recorded on the blockchain. The TXID is the unique "name" or "fingerprint" given to that specific record. It contains all the essential details: the sender's address, the receiver's address, the amount sent, and a timestamp.

Because it’s recorded on the blockchain, it’s immutable—meaning it can never be altered or erased. This transparency is one of the core strengths of cryptocurrency.

How to Find and Use Your TXID

Knowing what a TXID is one thing; knowing how to use it is what empowers you. The process is simple and is the key to verifying any transaction you make.

Step 1: Find Your TXID

After you make a transaction, your wallet or exchange will provide the TXID in your transaction history. On platforms like BYDFi, you can find this in your 'Withdrawal History' section. It will look like a long, random string of characters. Simply copy it.

Step 2: Go to a Blockchain Explorer

A blockchain explorer is a website that acts as a search engine for the blockchain. Each blockchain has its own explorer. For example:

Why Cryptocurrency Regulations Matter in 2025

In 2025, cryptocurrency is no longer the fringe experiment it once was. Bitcoin, Ethereum, and thousands of altcoins have become part of daily financial discussions, investment portfolios, and even government policies. Yet, alongside this explosive growth, one question continues to dominate: is crypto really regulated, and if so, by whom?

The truth is that cryptocurrency regulation has transformed from an abstract debate into a global necessity. For governments, regulations are a way to protect investors, prevent illicit activities, and stabilize financial systems. For traders and investors, they serve as both a shield and a hurdle—creating safer markets but sometimes reducing flexibility and privacy. Understanding how these rules are evolving in 2025 is crucial if you want to invest wisely and avoid costly mistakes.

What Cryptocurrency Regulation Actually Means

At its core, regulation in crypto refers to the laws and policies designed to oversee how digital assets are issued, traded, taxed, and secured. In practice, it’s about ensuring that crypto doesn’t become a playground for fraud, scams, and money laundering. Regulators also want to guarantee that investors are not left unprotected in an industry that has historically seen spectacular collapses.

But here’s where things get complicated: what’s legal in one country may be banned in another. A platform approved in Europe may be restricted in Asia. This patchwork of rules creates confusion, but it also highlights why paying attention to regulation is no longer optional—it directly shapes your trading experience.

The United States: A Patchwork of Oversight

In the U.S., the regulatory landscape feels like a tug-of-war between agencies. The SEC targets tokens it views as securities, the CFTC treats others as commodities, while FinCEN focuses on anti-money laundering compliance. Over the past year, the U.S. has cracked down hard on unregistered exchanges and tightened Know Your Customer (KYC) obligations. Stablecoins are under particular scrutiny, with regulators questioning whether they should be treated like traditional securities or payment instruments.

For American investors, this means stricter onboarding processes and fewer  wild west  opportunities. On the upside, it also translates into stronger consumer protections—if your platform is compliant, you’re far less likely to fall victim to fraud.

Europe: A Unified Model with MiCA

The European Union has taken a different path by implementing its Markets in Crypto-Assets (MiCA) framework in 2024. Unlike the fragmented U.S. approach, MiCA provides one unified regulatory standard across all member states. Exchanges must register, disclose risks, and hold investor funds securely.

For traders in Europe, this creates clarity and confidence. While fees may rise slightly due to compliance costs, the trade-off is a safer, more transparent market. Knowing your exchange is MiCA-approved is a powerful reassurance in a world where uncertainty has been the norm.

Asia: A Tale of Contrasts

Asia remains a diverse battleground for crypto regulation. Japan’s Financial Services Agency (FSA) has built a reputation for being both strict and forward-thinking, requiring exchanges to follow robust security standards. China, on the other hand, maintains its near-total ban on trading, pushing activity underground.

Meanwhile, hubs like Singapore and Hong Kong are attracting global players with balanced policies designed to encourage innovation while keeping risks under control. For investors in Asia, the challenge lies in navigating these contrasting environments—one country might welcome your crypto portfolio, while the next might penalize it.

Emerging Markets: Promise and Peril

In countries like Nigeria, India, and parts of Latin America, crypto offers hope for financial inclusion in regions underserved by traditional banking. Yet, these same markets are plagued by regulatory uncertainty. Some governments impose harsh taxes or outright bans, while others cautiously experiment with pro-crypto policies. The result is a constantly shifting playing field where investors must stay vigilant.

The Direction of Travel: More Regulation Ahead

The trajectory is clear: cryptocurrency will be more regulated in the future, not less. With over 300 million global users, governments cannot afford to ignore the industry. Organizations like the Financial Action Task Force (FATF) are pushing for global standards, including the  Travel Rule,  which requires exchanges to share transaction data to fight money laundering.

This doesn’t necessarily spell doom for crypto. Stricter oversight can drive greater mainstream adoption, attract institutional money, and build long-term trust. But it does mean that traders and investors must adapt to a more structured environment.

How This Impacts Your Trading Life

For everyday traders, regulation affects nearly every step of the journey. Identity verification (KYC) is now standard, delaying sign-ups but adding layers of security. Tax reporting has become more complex in countries like the U.S. and UK, where crypto is treated as property. Certain markets restrict access to specific coins, limiting your options. And while compliance costs push trading fees slightly higher, the upside is exchanges that take your security seriously.

Ripple Labs is doubling down on its commitment to blockchain innovation by investing an additional $5 million into academic research and education across the Asia-Pacific (APAC) region. This strategic move, announced on June 10, 2025, expands Ripple’s University Blockchain Research Initiative (UBRI), supporting blockchain technology development and talent cultivation in six key countries known for their progressive fintech environments and rapid crypto adoption.

Expanding Blockchain Education and Research in APAC

With this new funding, Ripple deepens its partnerships with leading universities in South Korea, Japan, and Singapore, while establishing fresh collaborations in Taiwan and Australia. Since its launch, Ripple’s UBRI program has contributed over $11 million to the region, reflecting a long-term vision to foster blockchain talent and real-world applications leveraging the XRP Ledger (XRPL).

Key university partnerships include:

• South Korea: A renewed six-year, $1.1 million collaboration with Korea University focuses on advanced blockchain research, including privacy-enhancing zk-SNARKs and layer-2 scaling technologies. Ongoing projects also continue at Yonsei and Hanyang universities.
• Japan: Funding supports Kyoto University and the University of Tokyo, with UBRI grants surpassing $1.5 million to advance decentralized systems and AI research.
• Singapore: More than $3 million is allocated to Nanyang Technological University (NTU) and the National University of Singapore (NUS). NTU is developing an autonomous AI agent network on XRPL, aiming to create a transparent, modular, and collaborative AI platform powered by blockchain technology.
• Taiwan: New partnership with the National Kaohsiung University of Science and Technology focuses on real-world asset tokenization across XRPL, Ethereum, and Solana, supporting student innovation and validator node operations on XRPL.
• Australia: Victoria University joins UBRI with blockchain curriculum development, while the Australian National University continues research into blockchain law and smart contracts, supported by a combined $1.3 million in funding.

Why This Matters: Blockchain Technology and Its Growing Influence

Ripple’s investment highlights the increasing importance of blockchain technology in global finance and innovation. The APAC region, with its high concentration of neobanks and forward-thinking regulations, is a hotspot for digital asset adoption and fintech growth. By supporting universities, Ripple ensures a steady pipeline of skilled blockchain developers, researchers, and entrepreneurs who will drive the next wave of blockchain applications.

Key Points:

• TPS (transactions per second) is often used as a measure of blockchain performance, but it can be misleading when measured in isolation.
• Most high TPS claims are based on idealized conditions, often using a single node or test environment.
• Real-world scaling is limited by decentralization, bandwidth, hardware, and verification requirements.
• Zero-knowledge (ZK) proofs offer a potential solution to improve throughput without overloading nodes.
• Transaction fees and network activity are more reliable indicators of blockchain health than raw TPS numbers.

Understanding TPS and Its Misleading Appeal

Blockchain enthusiasts and developers often look at TPS as a measure of a network’s power and scalability. Higher TPS numbers suggest the network can handle more transactions, supporting more users and more activity. However, these numbers are often idealized benchmarks that do not reflect real-world conditions.

Carter Feldman, founder of Psy Protocol and former hacker, explains that most TPS numbers are derived from tests that ignore the complexities of decentralized verification.  Many pre-mainnet or testnet benchmarks measure TPS with only one node running,  Feldman says.  At that point, you might as well call Instagram a blockchain with one billion TPS, since it validates everything centrally.

The issue is clear: raw TPS numbers can give a false sense of performance if they fail to account for the cost of decentralization.

The Hidden Cost of Decentralization

Every full node in a blockchain has to verify transactions to ensure the network remains trustless and secure. If one node accepts an invalid transaction, others must reject it. This verification process is what makes blockchains truly decentralized, but it comes with a cost.

When a blockchain tries to increase TPS, it unintentionally increases the burden on every node. More transactions mean more data to process, more bandwidth used, and higher synchronization requirements. At some point, these limits prevent linear scaling, meaning the network cannot sustain the theoretical TPS figures advertised in white papers.

For example, EOS once claimed it could theoretically handle 1 million TPS. However, in realistic network conditions, throughput rarely exceeded 50 TPS. Similarly, Solana, with its Firedancer validator client, demonstrated 1 million TPS in tests, yet live network usage typically ranges from 3,000 to 4,000 TPS, with a large portion of those being voting-related transactions rather than user transactions.

Why Real-World TPS Is Lower Than Expected

Several factors explain the gap between theoretical and real-world TPS:

1. Network Topology and Latency: The speed at which transactions propagate through the network affects overall throughput. More nodes and longer communication paths create delays.
2. Hardware Limitations: Every node has finite processing power. As TPS rises, nodes may struggle to keep up without compromising decentralization.
3. Verification Overhead: Each transaction must be checked against protocol rules. High TPS increases verification workload, limiting practical scalability.

In essence, TPS is not just about executing transactions; it’s about ensuring every node in a decentralized network can validate and relay those transactions efficiently.

Breaking the Linear Scaling Problem with Zero-Knowledge Proofs

Feldman suggests that one promising solution is zero-knowledge (ZK) technology. ZK proofs allow networks to validate batches of transactions without requiring every node to process each transaction individually. In effect, ZK proofs compress multiple proofs into a single proof, drastically reducing the per-node workload.

For example, a blockchain could combine proofs from 16 transactions into one, then combine multiple proofs further into a single proof in a hierarchical structure. This approach, known as recursive ZK proofs, helps blockchain networks scale without proportionally increasing the verification burden on nodes.

However, ZK-based systems come with their own challenges. Generating proofs can be computationally intensive and may require specialized infrastructure. Retrofitting ZK proofs into existing blockchain architectures is also complex, which is why many networks still rely on traditional execution models.

Beyond TPS: Evaluating Blockchain Performance

While TPS provides a rough gauge of network capability, Feldman argues that economic indicators, such as transaction fees and actual network activity, are often more meaningful. These signals reflect real demand, network congestion, and user engagement, providing a more accurate picture of blockchain performance in production environments.

Projects like LayerZero Labs are exploring ZK-based designs capable of scaling to 2 million TPS, but widespread adoption is still limited by architectural complexity and funding challenges. Most blockchains designed around sequential execution cannot easily adopt proof-based verification without a complete redesign.

Conclusion: TPS Numbers Are Conditional

High TPS figures make for exciting headlines, but they rarely reflect real-world throughput. The real challenge of blockchain scaling is balancing speed, decentralization, and network reliability. Solutions like ZK proofs show promise, but TPS alone cannot tell the full story. When evaluating blockchain performance, consider transaction costs, network usage, and verification overhead, rather than relying solely on idealized TPS claims.

FAQ – Blockchain TPS Explained

Q1: What does TPS mean in blockchain?

TPS stands for transactions per second, a measure of how many transactions a blockchain network can process in one second.

Q2: Why do TPS numbers often collapse in real usage?

High TPS claims are usually measured in controlled environments or single nodes. Real networks face bandwidth limits, hardware constraints, latency, and verification costs, which reduce practical throughput.

Q3: Can zero-knowledge proofs solve TPS limitations?

Yes, ZK proofs can significantly reduce the per-node verification load, allowing higher throughput without compromising decentralization. Recursive ZK proofs compress multiple proofs into a single proof for efficiency.

Q4: Is TPS the best metric to evaluate blockchain performance?

Not always. Transaction fees, network activity, and real user engagement often provide a better measure of blockchain health and scalability.

Q5: Why did networks like EOS fail to reach their theoretical TPS?

Theoretical TPS often ignores the cost of full-node verification and assumes idealized network conditions. In reality, bandwidth, latency, and decentralization constraints drastically lower achievable TPS.