Nicky_Bao | Rialo

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Nicky_Bao | Rialo

Nicky_Bao | Rialo

@Nicky_Giabao

@get_optimum @RialoHQ

Hồ Chí Minh, Việt Nam Katılım Eylül 2023
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Nicky_Bao | Rialo
Nicky_Bao | Rialo@Nicky_Giabao·
150ms propagation changes more than benchmark charts. Propagation is one of Ethereum's core scalability bottlenecks. Reducing propagation latency creates opportunities to: • Shorten slot times • Reduce transaction confirmation latency • Reach finality faster • Increase throughput without sacrificing network coordination 🕵️Optimum also demonstrated that mump2p maintains low latency under heavy traffic. That means validators can safely handle larger blocks, helping Ethereum reduce congestion and mitigate gas fee spikes during periods of high demand. Scaling isn't only about execution. Sometimes the biggest gains come from moving data faster. @get_optimum
Nicky_Bao | Rialo tweet media
Nicky_Bao | Rialo@Nicky_Giabao

Speed doesn't come from bigger hardware. It comes from a better propagation layer. On Hoodi, Optimum deployed 30 globally distributed mump2p nodes connected through dedicated gateways. Instead of relying solely on libp2p/Gossipsub, blocks enter the Optimum Network and are propagated through mump2p before reaching the wider Ethereum network. The result is remarkably consistent performance: • Average latency around 140–150ms • Most blocks delivered within 130–170ms • Frequent lows near 120ms Consistency matters just as much as peak speed. A predictable propagation layer gives validators a much tighter synchronization window across the network. @get_optimum

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Nicky_Bao | Rialo
Nicky_Bao | Rialo@Nicky_Giabao·
A faster network is also a more profitable network. For validators, lower propagation latency means: • Fewer missed or late attestations • Better bandwidth efficiency • Lower resource utilization • Higher staking performance 🤏Considering Ethereum staking secures roughly $150B worth of ETH, even modest APY improvements could translate into significant network wide economic gains. Most importantly, this is only the first Hoodi Testnet iteration. If propagation continues to improve beyond today's 150ms, Ethereum's consensus layer may gain a new path toward scaling without changing its security model. @get_optimum
Nicky_Bao | Rialo tweet media
Nicky_Bao | Rialo@Nicky_Giabao

150ms propagation changes more than benchmark charts. Propagation is one of Ethereum's core scalability bottlenecks. Reducing propagation latency creates opportunities to: • Shorten slot times • Reduce transaction confirmation latency • Reach finality faster • Increase throughput without sacrificing network coordination 🕵️Optimum also demonstrated that mump2p maintains low latency under heavy traffic. That means validators can safely handle larger blocks, helping Ethereum reduce congestion and mitigate gas fee spikes during periods of high demand. Scaling isn't only about execution. Sometimes the biggest gains come from moving data faster. @get_optimum

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VIETTEL
VIETTEL@TrieuN1220·
🚀 RLNC Is Redefining Data Propagation in Decentralized Networks 🌐 Tree based architectures do not eliminate packet-loss accumulation. Protocols such as Solana’s Turbine and Monad’s RaptorCast use hierarchical broadcast trees to distribute data efficiently. However, when packets travel through multiple network layers, losses can still accumulate and increase decoding overhead. 📦 Traditional erasure codes require additional bandwidth or processing time. Reed Solomon and Raptor based systems must either generate extra redundant packets or force intermediate nodes to fully decode and re encode data before forwarding it downstream. ⚡ RLNC enables instant recoding without waiting for full decoding. With Random Linear Network Coding, intermediate nodes can immediately combine and forward coded packets. Missing information can be regenerated throughout the network instead of being permanently accumulated across every hop. ⏱️ The result is significantly lower propagation latency. Under the same network conditions, traditional block and fountain codes may require up to six timeslots to deliver decodable data across all nodes. RLNC allows downstream nodes to begin receiving useful coded information much earlier. 🔄 Every transmitted packet remains useful. RLNC reduces duplicate or unusable packets because receivers only need enough linearly independent coded elements to recover the original message. 📈 RLNC also supports more scalable network structures. As decentralized networks grow, fixed hierarchical architectures may become bottlenecks. Recoding allows protocols to add more participants and communication paths without sacrificing bandwidth efficiency or propagation speed. 💡 OptimumP2P turns scalability and decentralization into complementary advantages. Powered by RLNC, OptimumP2P eliminates the bandwidth and latency waste created by legacy coding systems, creating a faster and more resilient data layer for the onchain economy. @get_optimum @ada_pegasus @blockchainjeff @aqccapital
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Cipher (❖,❖)
Cipher (❖,❖)@nnthanhthanh96·
Ethereum blockspace still faces a hidden issue: > Builders bid high, but propagation delays force proposers to commit early to avoid reorg risk. > This leaves ~190 ETH/week uncaptured, cutting validator rewards that could push APR near 2%. > As a result, hedging grows and validator activity shifts toward operators with stronger infra , hurting decentralization. > mump2p + RLNC reduces variance ~7x, making block delivery predictable so bids can clear on real value instead of fear. Ethereum is close to solving this, but not fully there yet. cc : @get_optimum @aqccapital @cryptooflashh @blockchainjeff
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Cipher (❖,❖)@nnthanhthanh96

In a world where every millisecond decides winners and losers, one undeniable truth remains: 𝐒𝐩𝐞𝐞𝐝 𝐢𝐬 𝐌𝐨𝐧𝐞𝐲 . And as we’ve seen across industries competing down to the millisecond: > HFT: +1ms speed advantage = +$100M/year. Funds spend tens of millions just to shave off microseconds. > E-commerce: Amazon: +100ms page load = -1% revenue. Google: +0.5s = -20% traffic. > Blockchain: Slow block propagation = stale/orphan → lost rewards. In MEV races, whoever is faster captures the value first. When speed equals money everywhere else, it’s only natural that blockchain follows the same rule and Optimum makes it real 👉 @get_optimum leverages RLNC to accelerate propagation 6–20x, cut bandwidth by 90–95%, and help validators achieve higher & more stable staking yields. The result: faster networks = real money for validators, searchers, and stakers. cc : @blockchainjeff @cryptooflashh @aqccapital

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bent68| Data
bent68| Data@bent6868·
Gmum! Day 365 haha😂😂😂 of pretending I am not checking every few minutes to see if I've magically become Refined. 😂😂😂 Me: "I am just here to contribute." Also me: refreshes the role list for the 68th time today. No shortcuts, no complaints, just keep grinding and trust the process. Hopefully one morning I'll wake up, open Discord, and finally see that beautiful Refined role next to my name.💙 Until then... back to the grind. @get_optimum @aqccapital
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bidogold.data
bidogold.data@bidogold·
Ethereum Needs More Than Higher TPS When discussions about Ethereum scalability begin, the focus is usually on higher transactions per second, lower gas fees, or faster execution. While these improvements are important, they represent only part of the scalability challenge. A blockchain cannot process information that has not yet reached its participants. Before validators can execute transactions or reach consensus, they must first receive blocks, attestations, and other critical data. If communication across the peer-to-peer network becomes inefficient, increasing execution capacity alone cannot deliver the full benefits of scalability. This is why networking deserves to be considered a core component of Ethereum's future. According to Optimum's documentation, the project is building a Universal Data Acceleration Network that improves data propagation without changing Ethereum's consensus or execution layers. Through mump2p and Random Linear Network Coding (RLNC), Optimum aims to reduce redundant network traffic, improve bandwidth efficiency, and enable faster, more reliable communication between validators. As Ethereum continues to support stablecoins, tokenized real-world assets, decentralized finance, and AI-driven applications, the volume of information moving across the network will grow significantly. Scaling this future requires more than simply processing more transactions. It also requires ensuring that information reaches every participant quickly and efficiently. Higher TPS may increase blockchain capacity, but better networking ensures that capacity can be fully utilized. By strengthening the communication layer, Optimum is helping build an Ethereum ecosystem that is not only faster, but also more resilient, efficient, and ready for long-term growth. @get_optimum @blockchainjeff @aqccapital
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bidogold.data@bidogold

Why Faster Data Creates Better Decentralization For years, blockchain has been built around a familiar trade-off: improve performance, and you often sacrifice decentralization. But what if better networking could strengthen both at the same time? One of the biggest challenges in decentralized systems is that not every validator has the same network conditions. Participants located closer to major infrastructure hubs often receive blocks and attestations sooner, while those farther away face higher latency and more redundant traffic. Over time, these differences can create an uneven playing field. @get_optimum approaches this problem from the networking layer rather than the consensus layer. According to the project's documentation, its mump2p protocol uses Random Linear Network Coding (RLNC) to improve how data is propagated across peer-to-peer networks. By reducing redundant transmissions and making communication more efficient, the protocol helps information reach validators in a more consistent and reliable way. This matters because decentralization is not only about the number of nodes in a network. It is also about giving participants a fair opportunity to receive and process information, regardless of where they are located. Faster and more efficient networking can reduce the disadvantages caused by geography, improve communication under heavy network load, and help maintain a healthier decentralized ecosystem. True decentralization is not achieved by slowing everyone down equally. It is achieved by building infrastructure that allows more participants to compete on a fair and efficient network. That is the future Optimum is working toward. @blockchainjeff @aqccapital

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Alexx
Alexx@alexxy29·
Faster infrastructure isn't just about speed. It changes the economics of Ethereum. I've always thought staking rewards mostly depended on things like ETH price, APR, or validator performance. After reading Optimum's latest research, I realized there's another factor that's much easier to overlook: how quickly information reaches validators. It sounds like a networking problem, but it's actually an economic one. Every Ethereum slot gives validators a limited window to receive a block, verify it, and submit an attestation. If your validator receives the block later than everyone else - even by a few hundred milliseconds, you simply have less time to do the exact same work. Nothing is wrong with your hardware. Nothing is wrong with your validator. You just started the race later. When that happens once, it doesn't seem like a big deal. But Ethereum produces millions of slots over time. Small delays repeated over and over eventually become missed attestations, and missed attestations translate directly into lower staking revenue. That's the part I hadn't really connected before. We usually talk about blockchain performance through TPS or execution speed, but none of that matters until the block actually reaches the network. The communication layer quietly determines how much of every slot is actually usable. This is also why I think infrastructure projects like @get_optimum are interesting. Instead of trying to redesign Ethereum, they're looking at something more fundamental: reducing propagation latency so validators spend less time waiting and more time participating. The protocol doesn't change. The incentives don't change. But if information moves more predictably, the network naturally becomes more efficient. Sometimes improving a blockchain isn't about making it process more transactions. It's about making better use of the time it already has. References: Optimum Blog: Optimizing a $100B Market: Effects of Latency Reduction on ETH Staking Revenue @blockchainjeff @aqccapital
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WeJin
WeJin@dangtruong4421·
Complexity Is Quietly Becoming Web3’s Biggest Scaling Challenge Every technology ecosystem grows by adding new layers. Blockchain has followed the same path. As the industry matured, we introduced: infrastructure networks cross-chain communication middleware services data availability layers coordination frameworks Each innovation solved an important problem. Yet every new abstraction also increased the number of moving parts. What began as an effort to improve scalability gradually produced something else: An ecosystem that is becoming increasingly difficult to coordinate. 1⃣ Scaling isn't just about adding more infrastructure Technical debt is no longer confined to application code. In Web3, it increasingly exists across the entire infrastructure stack. Developers today don't simply build applications they assemble ecosystems. Every project depends on numerous external components: bridges indexing services RPC providers messaging layers security modules orchesation frameworks Each dependency is valuable on its own. Collectively, they create hidden operational costs. As systems expand: 🔹integrations multiply 🔹maintenance becomes continuous 🔹failure points increase 🔹coordination becomes harder than execution The challenge isn't insufficient infrastructure. It's that infrastructure is evolving faster than the ecosystem's ability to organize it. History offers a familiar pattern. As computing matured, industries didn't continue adding disconnected tools forever. They introduced platforms that unified them. Cloud computing simplified infrastructure operations. Operating systems standardized fragmented hardware. Internet protocols enabled independent networks to communicate seamlessly. Progress accelerated because complexity became manageable. Blockchain is approaching a similar inflection point. The next leap may come not from creating another layer but from making existing layers function as a coherent system. Projects like @get_optimum are exploring infrastructure designed around coordination rather than accumulation, reducing operational friction while improving interoperability across decentralized environments. Because real scalability is measured by how easily systems work together not by how many components they contain. 2⃣ The future belongs to organized ecosystems Complexity is an inevitable consequence of growth. Disorder is not. As Web3 expands, ecosystems face a strategic choice. One path continues adding infrastructure until coordination becomes the dominant cost. The other focuses on simplifying interactions, reducing dependencies, and making the entire stack easier to operate. The strongest technology platforms have always taken the second approach. Innovation creates new possibilities. Coordination is what allows those possibilities to scale. And in the next phase of Web3, the ecosystems that master complexity not merely expand it will define the future. @get_optimum @cryptooflashh @blockchainjeff @aqccapital @ada_pegasus @shariaronchain @CryptoSundayz
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WeJin@dangtruong4421

Blockchain Doesn't Need More Connections. It Needs Better Orchestration. 1⃣ Connection is no longer the challenge In Web3's early years, simply connecting decentralized systems was considered progress. Bridges expanded reach. Cross-chain messaging unlocked new possibilities. Interoperability became the industry's primary objective. But the ecosystem has evolved. Today, most networks can exchange information. The bigger question is what happens after the connection is established. Can applications coordinate state consistently? Can infrastructure respond without introducing latency or operational overhead? Can developers build across ecosystems without maintaining countless custom integrations? Connectivity opened the door. Coordination determines what comes next. 2⃣ Complexity grows faster than adoption Every new blockchain, rollup, data layer, and execution environment adds another piece to the ecosystem. Individually, each improves performance. Collectively, they increase operational complexity. Developers are no longer building a single application. They're orchestrating distributed systems. That means managing: 🔹different execution environments 🔹multiple trust assumptions 🔹independent infrastructure providers 🔹fragmented data availability 🔹cross-network synchronization The technical challenge isn't moving assets anymore. It's ensuring every moving part behaves as one coherent system. Infrastructure is shifting from enabling communication to managing coordination. 3⃣ The next infrastructure race The next generation of blockchain infrastructure won't compete by adding another chain. It will compete by reducing the complexity created by all existing chains. Developers shouldn't have to think about where computation happens. Users shouldn't notice how many networks are involved. Applications should behave as if the ecosystem were a single programmable environment. Projects like @get_optimum are exploring this directionbuilding coordination layers that allow distributed infrastructure to function cohesively while preserving modularity. Because the future of Web3 won't be defined by how many networks exist. It will be defined by how effortlessly those networks operate together. ▶️Infrastructure succeeds when complexity disappears. The best coordination layer is the one developers never have to think about. @get_optimum @cryptooflashh @blockchainjeff @aqccapital @ada_pegasus @shariaronchain @CryptoSundayz @get_optimum

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cuongquoc ✏️
cuongquoc ✏️@cuongquocartist·
Scaling Blockchain Starts With Better Networking Blockchain discussions often focus on consensus, execution, or transaction throughput. But before any of those processes can happen, information has to move across the network. Every block, attestation, and blob must reach validators as quickly as possible. If data propagation becomes a bottleneck, overall network performance suffers - regardless of how efficient the consensus mechanism is. This is the problem OptimumP2P is designed to address. Instead of relying on traditional peer-to-peer packet forwarding, OptimumP2P leverages Random Linear Network Coding (RLNC) to improve how data is distributed across decentralized networks. With RLNC, nodes don't simply relay the packets they receive. They continuously generate new encoded combinations of the available data and share them with other peers. As long as a node collects enough independent coded packets, it can reconstruct the original information without depending on a specific transmission path. That approach brings several important advantages. Data can begin propagating sooner instead of waiting for complete packet delivery. Every relay node actively contributes to improving network-wide distribution through recoding. Information can still be recovered even when individual packets are delayed or lost. One of the most interesting characteristics of RLNC is that network growth becomes an advantage rather than a burden. As additional nodes join the network, they introduce more encoded data paths, improving redundancy, resilience, and propagation efficiency across the system. According to Optimum's benchmark results, OptimumP2P achieved between 600% and 3,000% lower propagation latency than Ethereum's current Gossipsub protocol in tested environments. The protocol is also designed to make better use of available bandwidth, allowing operators running standard Ethereum validator infrastructure to benefit without requiring increasingly specialized hardware. Improving the networking layer opens the door to broader protocol improvements, including: Faster block propagation Shorter block intervals Higher network throughput Better bandwidth efficiency Increased validator participation Greater scalability without concentrating infrastructure For validator operators, receiving consensus data earlier can improve proposal and attestation performance while reducing networking overhead. For developers, a faster propagation layer provides stronger infrastructure for applications that depend on real-time responsiveness, including DePIN, onchain exchanges, gaming, social networks, and next-generation DeFi. For everyday users, it ultimately translates into faster confirmations, more reliable transactions, and a blockchain that continues to perform as adoption grows. OptimumP2P demonstrates that scaling does not have to come at the expense of decentralization. By making information flow more efficiently across the network, decentralization itself becomes part of the solution - helping blockchain networks grow without sacrificing the qualities that make them valuable in the first place. @get_optimum @ada_pegasus
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x☀️x
x☀️x@w3c4n·
🚪 A block has been produced. So how does it actually enter the Optimum Network? This is where the **Optimum Gateway** comes in. 🔌 On Ethereum's Hoodi testnet, validators connect their consensus clients such as Lighthouse, Prysm, or Teku to a gateway. It acts as the integration point between the client and Optimum's acceleration network. Once a block reaches the gateway, it can enter the **mump2p network**, where RLNC-powered propagation distributes it to other mump2p-enabled gateways. 📡 At the same time, the block is also published through Ethereum's standard GossipSub path so the wider consensus network can still receive it. No new consensus mechanism. No new blockchain. ⚙️ The gateway is how Optimum plugs its data acceleration layer into the existing Ethereum networking flow. #Optimum #mump2p #RLNC
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Nicky_Bao | Rialo
Nicky_Bao | Rialo@Nicky_Giabao·
Stake for Service represents a different way to think about staking. Today, the cycle looks like this: Stake → Earn Yield → Claim Rewards Rialo extends the loop: Stake → Earn Yield → Fund Services → More Network Activity → Stronger Ecosystem The same capital now contributes to both: • securing the network • powering applications → Instead of letting rewards accumulate passively, the protocol turns yield into continuous economic flow. That's why Stake for Service feels less like a feature and more like a new blockchain primitive. As the industry moves beyond speculation, mechanisms that connect capital directly to real network usage may become just as important as faster execution or lower fees. @RialoHQ
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Nicky_Bao | Rialo@Nicky_Giabao

One of the most interesting ideas in Rialo isn't technical. It's economic. 🫨Most blockchains only adjust issuance to influence validator incentives. Rialo introduces another lever. Instead of simply reducing issuance, governance can redirect part of that value into Service Credits that stimulate real network activity. That means support can be targeted toward areas like: • Oracle updates • Automation • AI compute • RWA settlement Rather than distributing more tokens into circulation, the network increases productive usage. It's a subtle shift. Monetary policy becomes operational policy. The goal isn't higher inflation. The goal is higher utility.@RialoHQ

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Cipher (❖,❖)
Cipher (❖,❖)@nnthanhthanh96·
Sunday mood: Slow breakfast, soft jazz, sunlight through the window. Walking through a garden, wildflowers dancing in the breeze… Life is beautiful gMum @get_optimum
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꧁Phu2401.ip꧂
꧁Phu2401.ip꧂@Phu02273501·
Speed is Money In decentralized networks, low latency is a valuable asset. The more users who can access the network with consistently low latency, the greater the economic value the network can create. That's why Optimum doesn't rely on expensive hardware or colocation strategies like traditional financial markets. Instead, Optimum leverages Random Linear Network Coding (RLNC) to increase network throughput, enabling it to: • Process more traffic at the same latency. • Reduce latency for the same amount of traffic. • Expand the network's overall "supply of speed." More importantly, every node that joins Optimum doesn't just benefit from the network, it also makes the network faster. Rather than competing for speed in a zero sum game, nodes collectively expand the network's capacity, ensuring that performance advantages remain decentralized instead of being concentrated in the hands of a few. Optimum isn't just reducing latency. It's transforming speed into a scalable, shared resource that unlocks greater economic value across the entire network.
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Muriel Medard@MurielMedard

The value of the work we're doing at @get_optimum is encapsulated quite well by the phrase "speed is money". In modern markets there are real economic advantages to latency reduction. This is nothing new. Wall Street firms have long been optimizing on latency, primarily through colocation and top of the line hardware. However, when it comes to decentralized systems, expensive hardware and geographic concentration are antithetical to their purpose. Therefore we should optimize decentralized network latency through software, which I'm thrilled about because it's exactly what I've spent the better part of the past 2 decades working on with Random Linear Network Coding. Now let’s talk about networking economics, the relationship between speed and money. First, it's important to note that users will only pay for low latency if it can be consistently guaranteed. Second, you can only make that latency guarantee for a certain number of users. This is a universal law of networking. We can model this relationship on a delay curve, shown below. The delay curve is determined by the utilization rate of the network, meaning how much traffic is flowing through the network divided by the network's throughput. As you approach a level of traffic equal to the available throughput, latency trends infinitely higher. On this delay curve we can impose some utility thresholds. These thresholds are the levels of latency which are important to different groups of users because of how that latency guarantee improves their economic outcomes. Finding the point on the curve where each threshold intersects will tell us what level of traffic we can guarantee that level of latency for. Essentially, there exists a finite supply of speed on a network and the highest utility users of that speed are willing to pay more for it. I like to think of this similarly to expedited shipping options on Amazon. This is why we say speed is money, and why we can create a Latency Marketplace. The only way to increase the supply of speed is to fundamentally increase network throughput. This is what we work on at Optimum by using Random Linear Network Coding. The same relationship between traffic and throughput still applies, but now the delay curve is shifted out further to the right. Now more traffic can be processed at the same latency, or the same traffic can be processed at a lower latency. More speed available to the network. More value unlocked for the network’s users. Crucially, that value is no longer only reserved for those who can afford to sit closest to the machine. Expanding the supply of speed widens who can reach each latency threshold, keeping the network's advantage decentralized rather than concentrated in the hands of a few. When nodes join Optimum and participate, they reap the benefits, but they also add to the capacity. Rather than vying against each other in a zero-sum game, nodes help themselves and others.

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꧁Phu2401.ip꧂
꧁Phu2401.ip꧂@Phu02273501·
Spent the weekend enjoying a fun karaoke party with the Optimum Vietnamese community. Loved every moment of it!
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Nicky_Bao | Rialo
Nicky_Bao | Rialo@Nicky_Giabao·
One of the most interesting ideas in Rialo isn't technical. It's economic. 🫨Most blockchains only adjust issuance to influence validator incentives. Rialo introduces another lever. Instead of simply reducing issuance, governance can redirect part of that value into Service Credits that stimulate real network activity. That means support can be targeted toward areas like: • Oracle updates • Automation • AI compute • RWA settlement Rather than distributing more tokens into circulation, the network increases productive usage. It's a subtle shift. Monetary policy becomes operational policy. The goal isn't higher inflation. The goal is higher utility.@RialoHQ
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Nicky_Bao | Rialo@Nicky_Giabao

The real innovation of Stake for Service isn't about paying gas. It's about enabling applications that can sustain themselves. Imagine: • A vault that automatically rebalances forever. • A DAO that funds governance execution without manual treasury management. • Dynamic NFTs that continue updating years after mint. • Wallets that onboard new users without asking them to buy gas tokens first. • Exchanges sponsoring thousands of users through staking yield instead of cashback programs. All of these become possible because operating costs are continuously funded by staking rewards. Capital isn't just securing the network anymore. It's also keeping applications alive. @RialoHQ

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Nicky_Bao | Rialo
Nicky_Bao | Rialo@Nicky_Giabao·
Speed doesn't come from bigger hardware. It comes from a better propagation layer. On Hoodi, Optimum deployed 30 globally distributed mump2p nodes connected through dedicated gateways. Instead of relying solely on libp2p/Gossipsub, blocks enter the Optimum Network and are propagated through mump2p before reaching the wider Ethereum network. The result is remarkably consistent performance: • Average latency around 140–150ms • Most blocks delivered within 130–170ms • Frequent lows near 120ms Consistency matters just as much as peak speed. A predictable propagation layer gives validators a much tighter synchronization window across the network. @get_optimum
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Nicky_Bao | Rialo@Nicky_Giabao

Ethereum's propagation layer just got a lot faster. Optimum's mump2p has officially moved from Devnet to the Ethereum Hoodi Testnet, delivering its first real world benchmark. The results: • 150ms average block propagation • 6.5× lower latency than Gossipsub (~1000ms) • A massive improvement over Optimum's June demo (~1113ms) This isn't just another benchmark. Block propagation sits on Ethereum's critical path. Every millisecond saved gives validators more time to process, verify, and attest to new blocks. Faster propagation lays the groundwork for shorter block times, quicker finality, and ultimately a more scalable Ethereum. @get_optimum

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Anlog.ip
Anlog.ip@An03894438·
Most people think private credit needs better smart contracts. I think it needs better truth. Smart contracts are deterministic. They execute exactly as programmed. The real challenge is the data they depend on. If borrower reports are delayed, manipulated, or incomplete, the contract still executes flawlessly… just on the wrong information. Tokenization solves ownership. Automation solves execution. Neither solves verification. The real infrastructure for onchain private credit isn't another lending protocol. It's the verification layer that connects real world events to smart contracts with trustworthy data. In private credit, the hardest problem isn't writing code. It's proving reality. @RialoHQ
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Rialo@RialoHQ

Smart contract enforcement is valuable, but it is only the second piece. The first is being able to determine the truth about bespoke financial instruments with strong guarantees. Read the full breakdown: rialo.io/posts/bringing…

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Anlog.ip
Anlog.ip@An03894438·
Imagine owning a piece of a premium domain portfolio instead of trying to buy a single domain worth six or seven figures. That's exactly what DAVs from @domaprotocol are unlocking. For over 25 years, domains have been a $360B+ asset class, yet liquidity has been close to zero. Great assets, but difficult to access, trade, or earn from. DAVs change that. →Instead of holding thousands of domains individually, an entire portfolio can become a single onchain asset. Investors gain instant exposure, shared ownership, LP liquidity from day one, and revenue generated when domains are sold. →It feels similar to how ETFs made stock investing accessible but now for domain assets. Real world assets deserve real onchain markets. I think this could be one of the biggest steps toward making domains a truly investable asset class.@SDMikeCM @InyeneobongC
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Doma Protocol@domaprotocol

$360B+ in domain value. Illiquid for 25 years. No market structure. No onchain access. DAVs fix that. Sign up for early access → dav.doma.xyz

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