#walrus $WAL 🚨 Team Liquid is migrating their content to Walrus. The largest single dataset on the protocol to date. 🦭 Match footage, behind-the-scenes clips, and beloved fan content moving from physical silos to decentralized infrastructure. Eliminates single points of failure. Transforms files into onchain-compatible assets. This raises total data on Walrus to all-new heights. “Collaborating with Walrus not only makes our content easily accessible and secure, but makes it usable as an asset.” — Team Liquid
Criss* @bidorder The Atomic Settlement Paradox Why Faster Markets May Mean Less Liquidity. In the rapidly evolving landscape of fintech and digital assets, the industry has rallied around a singular, inevitable goal: T+0, or "Atomic Settlement." From the US equity market’s move to T+1, to the proliferation of stablecoins and RWAs, the consensus is clear: settlement should be instant, final, and programmable. However, beneath this technological optimism lies a counter-intuitive reality that few are addressing. While T+0 eliminates counterparty credit risk, it inadvertently introduces a massive drag on capital efficiency. This is the Atomic Settlement Paradox: When trades settle instantly, it costs market makers more to keep cash ready, leading them to charge higher fees and offer less liquidity. The Mechanics of Efficiency: Netting vs. Gross Settlement To understand this trade-off, one must compare Deferred Net Settlement (DNS) with Real-Time Gross Settlement (RTGS). In traditional T+2 (and even T+1) architectures, market makers benefit from the power of multilateral netting. A liquidity provider can execute thousands of buy and sell orders throughout the trading day, yet only settle the net difference at the end of the cycle. In this environment, delayed settlement is not a bug. It is a feature. It functions as an implicit, interest-free credit facility that allows a single dollar of balance sheet to support hundreds of dollars in trading volume. To put this concretely: In a T+2 environment, $1M of capital can support $100M+ in daily volume through netting. In T+0, that same $1M supports exactly $1M. In a strict T+0 atomic environment, netting is eliminated. Every transaction requires gross settlement. To sell an asset, the inventory must be present at that exact second. To buy an asset, the cash must be pre-funded in the smart contract or the exchange account. This shift creates a pre-funding constraint. Market makers are forced to fragment their capital across various venues to ensure instant execution. The velocity of capital slows drastically. Consequently, to compensate for this significantly higher inventory cost, market makers must widen their spreads. The technology is faster, but the economic efficiency degrades. Liquidity Fragmentation and Basis Risk While tokenization improves the transferability of assets, it has currently resulted in market structures resembling the fragmented global FX markets rather than the centralized equities market The "onchain" ecosystem is characterized by liquidity fragmentation A tokenized Treasury Bill on Ethereum and a tokenized Treasury Bill on Solana could be legally identical but technically distinct assets. They cannot be netted against each other, nor can they effectively cross-margin without complex bridging. This forces market makers to maintain redundant inventory across multiple exchanges and protocols to service order flow. This redundancy exacerbates inventory basis risk: the risk that price discrepancies will occur between the time liquidity is sourced and the time it is deployed across disconnected venues. Legacy Settlement delay: A Feature, Not a Bug We often criticize legacy financial systems for being slow, viewing the two-day settlement lag as a technological inefficiency. However, from a market microstructure perspective, this delay performs a specific economic function: it acts as a financing mechanism Delayed settlement effectively functions as an unsecured intraday credit facility provided by the market infrastructure. It allows liquidity providers to turn over the same capital multiple times before the settlement obligations mature. By removing this delay in the name of safety and speed, we are essentially stripping the market of this implicit leverage. We are replacing a credit-based system with a cash-based system, which is inherently more expensive to operate. The Missing Link: The Capital Efficiency Layer This brings us to the critical challenge of the transition era. We are moving toward a T+0 world because users demand the user experience (UX) of instant gratification and the safety of trustless settlement. Yet, the economics of market making still require the capital efficiency found in netting regimes. Technology alone cannot solve this economic friction; only capital can. To bridge the gap between the efficiency of T+2 and the immediacy of T+0, the market requires a new type of intermediary: a Capital Efficiency Layer. This role must be filled by institutions willing to deploy their Balance Sheet to absorb the inefficiencies of atomic settlement. These intermediaries act as the principal counterparty. They utilize their own capital to pre-fund the instant settlement that fintechs and users demand, effectively re-introducing the credit that atomic settlement removes. In doing so, they allow fintech operators to offer a T+0 experience without the crippling capital requirements. Conclusion The trajectory of finance is moving toward instant settlement.. However, the road to T+0 is not just a software engineering challenge; it is a financial engineering challenge. Without entities willing to bridge the gap with robust credit intermediation, the dream of instant settlement will come at the cost of wider spreads and thinner markets. In a T+0 environment, liquidity becomes strictly a function of capital availability The pivotal infrastructure providers that can act as the bridge between capital providers and technology operators will define the infrastructure of tomorrow's markets.
Why Faster Markets May Mean Less Liquidity. In the rapidly evolving landscape of fintech and digital assets, the industry has rallied around a singular, inevitable goal: T+0, or "Atomic Settlement." From the US equity market’s move to T+1, to the proliferation of stablecoins and RWAs, the consensus is clear: settlement should be instant, final, and programmable.
However, beneath this technological optimism lies a counter-intuitive reality that few are addressing. While T+0 eliminates counterparty credit risk, it inadvertently introduces a massive drag on capital efficiency. This is the Atomic Settlement Paradox: When trades settle instantly, it costs market makers more to keep cash ready, leading them to charge higher fees and offer less liquidity.
The Mechanics of Efficiency: Netting vs. Gross Settlement
To understand this trade-off, one must compare Deferred Net Settlement (DNS) with Real-Time Gross Settlement (RTGS).
In traditional T+2 (and even T+1) architectures, market makers benefit from the power of multilateral netting. A liquidity provider can execute thousands of buy and sell orders throughout the trading day, yet only settle the net difference at the end of the cycle. In this environment, delayed settlement is not a bug. It is a feature. It functions as an implicit, interest-free credit facility that allows a single dollar of balance sheet to support hundreds of dollars in trading volume.
To put this concretely: In a T+2 environment, $1M of capital can support $100M+ in daily volume through netting. In T+0, that same $1M supports exactly $1M.
In a strict T+0 atomic environment, netting is eliminated. Every transaction requires gross settlement. To sell an asset, the inventory must be present at that exact second. To buy an asset, the cash must be pre-funded in the smart contract or the exchange account. financial systems for being slow, viewing the two-day settlement lag as a technological inefficiency. However, from a market
@xml #XMLUSDT Why Faster Markets May Mean Less Liquidity. In the rapidly evolving landscape of fintech and digital assets, the industry has rallied around a singular, inevitable goal: T+0, or "Atomic Settlement." From the US equity market’s move to T+1, to the proliferation of stablecoins and RWAs, the consensus is clear: settlement should be instant, final, and programmable. However, beneath this technological optimism lies a counter-intuitive reality that few are addressing. While T+0 eliminates counterparty credit risk, it inadvertently introduces a massive drag on capital efficiency. This is the Atomic Settlement Paradox: When trades settle instantly, it costs market makers more to keep cash ready, leading them to charge higher fees and offer less liquidity. The Mechanics of Efficiency: Netting vs. Gross Settlement To understand this trade-off, one must compare Deferred Net Settlement (DNS) with Real-Time Gross Settlement (RTGS). In traditional T+2 (and even T+1) architectures, market makers benefit from the power of multilateral netting. A liquidity provider can execute thousands of buy and sell orders throughout the trading day, yet only settle the net difference at the end of the cycle. In this environment, delayed settlement is not a bug. It is a feature. It functions as an implicit, interest-free credit facility that allows a single dollar of balance sheet to support hundreds of dollars in trading volume. To put this concretely: In a T+2 environment, $1M of capital can support $100M+ in daily volume through netting. In T+0, that same $1M supports exactly $1M. In a strict T+0 atomic environment, netting is eliminated. Every transaction requires gross settlement. To sell an asset, the inventory must be present at that exact second. To buy an asset, the cash must be pre-funded in the smart contract or the exchange account. This shift creates a pre-funding constraint. Market makers are forced to fragment their capital across various venues to ensure instant execution. The velocity of capital slows drastically. Consequently, to compensate for this significantly higher inventory cost, market makers must widen their spreads. The technology is faster, but the economic efficiency degrades. Liquidity Fragmentation and Basis Risk While tokenization improves the transferability of assets, it has currently resulted in market structures resembling the fragmented global FX markets rather than the centralized equities market The "onchain" ecosystem is characterized by liquidity fragmentation A tokenized Treasury Bill on Ethereum and a tokenized Treasury Bill on Solana could be legally identical but technically distinct assets. They cannot be netted against each other, nor can they effectively cross-margin without complex bridging. This forces market makers to maintain redundant inventory across multiple exchanges and protocols to service order flow. This redundancy exacerbates inventory basis risk: the risk that price discrepancies will occur between the time liquidity is sourced and the time it is deployed across disconnected venues. Legacy Settlement delay: A Feature, Not a Bug We often criticize legacy financial systems for being slow, viewing the two-day settlement lag as a technological inefficiency. However, from a market microstructure perspective, this delay performs a specific economic function: it acts as a financing mechanism Delayed settlement effectively functions as an unsecured intraday credit facility provided by the market infrastructure. It allows liquidity providers to turn over the same capital multiple times before the settlement obligations mature. By removing this delay in the name of safety and speed, we are essentially stripping the market of this implicit leverage. We are replacing a credit-based system with a cash-based system, which is inherently more expensive to operate. The Missing Link: The Capital Efficiency Layer This brings us to the critical challenge of the transition era. We are moving toward a T+0 world because users demand the user experience (UX) of instant gratification and the safety of trustless settlement. Yet, the economics of market making still require the capital efficiency found in netting regimes. Technology alone cannot solve this economic friction; only capital can. To bridge the gap between the efficiency of T+2 and the immediacy of T+0, the market requires a new type of intermediary: a Capital Efficiency Layer. This role must be filled by institutions willing to deploy their Balance Sheet to absorb the inefficiencies of atomic settlement. These intermediaries act as the principal counterparty. They utilize their own capital to pre-fund the instant settlement that fintechs and users demand, effectively re-introducing the credit that atomic settlement removes. In doing so, they allow fintech operators to offer a T+0 experience without the crippling capital requirements. Conclusion The trajectory of finance is moving toward instant settlement.. However, the road to T+0 is not just a software engineering challenge; it is a financial engineering challenge. Without entities willing to bridge the gap with robust credit intermediation, the dream of instant settlement will come at the cost of wider spreads and thinner markets. In a T+0 environment, liquidity becomes strictly a function of capital availability The pivotal infrastructure providers that can act as the bridge between capital providers and technology operators will define the infrastructure of tomorrow's markets.
Palsma, often a misspelling of plasma, refers to a state of matter. It is also found as a surname (historically in South Dakota) or a misspelling in contexts like "palsma pen" (a beauty device) and "palsma cells" (white blood cells). It is sometimes incorrectly used for "plasma membrane". Key information regarding common misspellings or contexts for "palsma": Plasma (State of Matter): Considered the fourth state of matter alongside solid, liquid, and gas, often found in high-energy environments.Palsma Pen (Beauty Device): A cosmetic device used for skin tightening, available on platforms like Alibaba and Daraz.Palsma Cells (Plasma Cells): In medical contexts, a typo for plasma cells, which are white blood cells producing antibodies.Palsma Surname: A surname found in the United States, with historical records in South Dakota.Let’s talk about friction. Not the kind you debate in economics class, but the friction you feel every time you try to move money. You pay for a song, a freelance invoice, or send money to a loved one across the ocean, and there it is, that pause. A spinning icon. A fee, small but somehow annoying. A notification that says “pending,” which really means, “trust the middleman and wait.” Despite all our technology, money still stumbles. It hesitates. It takes a cut for the privilege of moving. It carries the invisible weight of old, analog systems. Now imagine something different. Money moving like a thought. Instant. Smooth. Final. You tap “send,” and it’s simply there, like passing a note across the table. Only this note is authentic, impossible to forge, and recorded in a ledger protected by the most secure network in human history: Bitcoin. This isn’t a dream. It’s the vision behind a concept called Plasma. More than just a technical protocol, it’s a philosophy, a way for Bitcoin to remain its majestic, immutable self while spawning a living, breathing network of instant, fee-free transactions, often using stablecoins. To understand why this matters, we need to sit with Bitcoin’s beautiful, frustrating paradox. Bitcoin is solid bedrock. Its proof-of-work pulses slowly, like a planetary heartbeat, creating a ledger that feels almost eternal. But try building a marketplace on granite, and you’ll see the problem. Bitcoin’s base layer is perfect for settlement, for storing ultimate value, a cathedral, not a grocery store. Plasma offers a solution. Build the marketplace in the cathedral’s shadow. Let Bitcoin remain the untouchable foundation while daily commerce flows freely nearby. Think of it this way. Bitcoin is a wise, patient ruler. Plasma is the local village. The village has its own mayor and council, its own rules, and it runs fast. You can trade, lend, buy coffee, all without fees or delays. But every villager holds a key to the cathedral. If the village council ever tries to cheat, any citizen can go to Bitcoin, show the evidence, and have justice restored. Technically, it works like this. Users lock Bitcoin or Bitcoin-backed stablecoins into a root contract on the Bitcoin chain, a sort of passport. Then they step into the Plasma chain, where transactions move instantly. Blocks are produced efficiently, consensus is quick, and micro-transactions feel invisible. But the security isn’t invisible. Periodically, the Plasma chain publishes a compact cryptographic “fingerprint” back to Bitcoin. This fingerprint summarizes the chain’s state. If the operator cheats, anyone can submit a fraud proof to Bitcoin, which enforces justice, slashing the operator’s stake and allowing users to exit safely. Security comes not from trust, but from verifiable truth. Stablecoins are the ideal residents of this system. This layer isn’t for speculation. It’s for real life. Rent, groceries, remittances. A migrant worker can send a digital peso home instantly, cheaply, securely, with the final record forever preserved on Bitcoin. Early Plasma designs had challenges. What if the operator disappeared? What if data was lost? These problems sparked innovations like optimistic rollups, but the core principle remains. You don’t need every transaction on Bitcoin, just a trusted final arbiter. Now, with new capabilities being explored directly on Bitcoin, covenants, BitVM, and more, the Plasma vision may find an even purer home, a native, scalable settlement layer for stable assets. What are we really building? Not just a faster payment pipe. We’re creating a world where money flows effortlessly, silently, without anxiety or hidden fees. Underneath it all, you can feel Bitcoin’s heartbeat, the ancient rhythm of proof-of-work, securing every transaction. It’s a quiet pulse beneath a world of seamless exchange. That’s the promise, not a revolution that shouts, but one that simply works.
Follow, post and trade to earn 1,750,000 XPL token rewards from the global leaderboard. To qualify for the leaderboard and reward, you must complete each task type (Post: choose 1) at least once during the event to qualify. Posts involving Red Packets or giveaways will be deemed ineligible. Participants found engaging in suspicious views, interactions, or suspected use of automated bots will be disqualified from the activity. Any modification of previously published posts with high engagement to repurpose them as project submissions will result in disqualification. ** We are updating the leaderboard points logic and the data currently displayed is as of 2026-01-25. All activity and points from 2026-01-26 are still fully recorded and will be reflected when updates resume on 2026-01-28 at 09:00 UTC on a T+2 rolling basis.
#plasma $XPL Follow, post and trade to earn 1,750,000 XPL token rewards from the global leaderboard. To qualify for the leaderboard and reward, you must complete each task type (Post: choose 1) at least once during the event to qualify. Posts involving Red Packets or giveaways will be deemed ineligible. Participants found engaging in suspicious views, interactions, or suspected use of automated bots will be disqualified from the activity. Any modification of previously published posts with high engagement to repurpose them as project submissions will result in disqualification. ** We are updating the leaderboard points logic and the data currently displayed is as of 2026-01-25. All activity and points from 2026-01-26 are still fully recorded and will be reflected when updates resume on 2026-01-28 at 09:00 UTC on a T+2 rolling basis.
APRO is a decentralized oracle designed to provide reliable and secure data for various blockchain applications. It uses a mix of off-chain and on-chain processes to deliver real-time data through two methods: Data Push and Data Pull. The platform includes advanced features like AI-driven verification, verifiable randomness, and a two-layer network system to ensure data quality and safety. APRO supports many types of assets, from cryptocurrencies and stocks to real estate and gaming data, across more than 40 different blockchain networks. It can also help reduce costs and improve performance by working closely with blockchain infrastructures and supporting easy integration.
Binance AI Explained: Get AI-Powered Instant Token Analysis, Content Insights, and Trading Ideas
2025-12-23
Discover how Binance AI brings token analysis, content insights, and personalised trading ideas together in one app to help you trade smarter and faster.
Main Takeaways
Binance AI is an in-app intelligence layer that delivers market insights, analysis, and trading ideas directly within the Binance tools you already use.
Explore Binance AI across Search for personalized search results, Select for advanced technical and sentiment analysis, BiBi on Square for smarter content insights, and AI Token Report for fast token intelligence.
With Binance AI and BiBi, you can cut through the noise, act on opportunities faster, and enjoy seamless insights and decision-making — all in the same app