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@ImLilyy210 Gmum idol

𝗪𝗵𝗮𝘁 𝗶𝗳 𝘆𝗼𝘂 𝗱𝗶𝗱𝗻'𝘁 𝗻𝗲𝗲𝗱 𝘁𝗼 𝗿𝗲𝘀𝗲𝗻𝗱 𝘁𝗵𝗲 𝗲𝘅𝗮𝗰𝘁 𝘀𝗮𝗺𝗲 𝗽𝗮𝗰𝗸𝗲𝘁 𝗲𝘃𝗲𝗿𝘆 𝘁𝗶𝗺𝗲 𝘀𝗼𝗺𝗲𝘁𝗵𝗶𝗻𝗴 𝘄𝗮𝘀 𝗺𝗶𝘀𝘀𝗶𝗻𝗴? That's how most networks work today. A packet is lost. The sender retransmits the same packet. If another packet is lost... It retransmits again. As networks become larger and more distributed, these repeated retransmissions consume bandwidth, increase latency, and slow down data propagation. This is where Random Linear Network Coding (RLNC) takes a different approach. Instead of forwarding or retransmitting identical packets, RLNC combines multiple pieces of data into coded packets. Each coded packet carries new information. As long as enough independent coded packets arrive, the receiver can reconstruct the original data. The network no longer depends on receiving every specific packet. It only needs enough useful information. This is one of the core technologies behind Optimum's Universal Data Acceleration Network. Rather than optimizing blockchain execution, Optimum applies RLNC to improve how data moves across distributed networks, reducing redundant transmissions while making propagation more resilient to packet loss. The goal isn't to send more packets. It's to make every packet count. That's a fundamental shift in how data propagation can be designed. Bandwidth is finite. Useful information is what really matters. What do you think is more important for blockchain networking: sending data faster or sending data smarter? @get_optimum

@nnthanhthanh96 xị quá đi

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

@An03894438 @get_optimum @blockchainjeff nâu rầu từ từ thôi

Every blockchain talks about scaling. Optimum is scaling what actually matters: data movement. Faster propagation. Better efficiency. Higher validator performance. This feels like infrastructure the next generation of blockchains will need. ⚡ @get_optimum @blockchainjeff @cryptooflashh @aqccapital @ada_pegasus

@bidogold rân chơi

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

@PhucvinhN1965 lên nào bồ

Is 100ms Really Worth That Much? Most people think Ethereum staking rewards depend on the amount of ETH staked or validator performance. But after reading Optimum's latest research, I found another factor that's often overlooked. Network latency. Every Ethereum validator has only a limited time to receive blocks, evaluate MEV bids, and submit attestations. Saving just 50–150ms gives validators more time to make better decisions, resulting in higher MEV capture and more accurate consensus participation. According to the research, reducing propagation latency by 50–150ms could: • Increase validator APR by 0.66%–1.97% • Improve MEV bid selection by 13%–16% • Generate an estimated 1,000–2,000 ETH in additional validator revenue each year What I find interesting is that Optimum isn't trying to build another blockchain or change Ethereum's consensus. Instead, it's improving the networking layer with mumP2P and RLNC, helping information travel faster and more predictably across the network. In my opinion, blockchain scalability isn't just about processing more transactions anymore. It's also about making sure information reaches every validator at the right time. Sometimes, improving the network is more valuable than rebuilding the protocol itself. #Optimum #Ethereum #Blockchain @get_optimum

@0xThomassss đều tay nha fen

@vidangne @get_optimum 𝗙𝗮𝘀𝘁𝗲𝗿 𝗣𝗿𝗼𝗽𝗮𝗴𝗮𝘁𝗶𝗼𝗻

𝗛𝗼𝘄 𝗙𝗮𝘀𝘁𝗲𝗿 𝗣𝗿𝗼𝗽𝗮𝗴𝗮𝘁𝗶𝗼𝗻 𝗔𝗳𝗳𝗲𝗰𝘁𝘀 𝗕𝗹𝗼𝗰𝗸 𝗕𝘂𝗶𝗹𝗱𝗲𝗿 𝗘𝗰𝗼𝗻𝗼𝗺𝗶𝗰𝘀 While discussions around faster data propagation often focus on validators, the benefits also extend to block builders and relayers. Block builders need time to construct high-value blocks, especially when extracting MEV. Relayers are responsible for efficiently distributing these blocks to validators. When propagation is slow, both groups have less time to operate effectively, which can lead to missed MEV opportunities and less efficient block delivery. Faster propagation, such as what mump2p enables, gives block builders more time to optimize their blocks before submission. This can improve MEV extraction and overall block value. For relayers, quicker and more reliable data transmission helps improve the speed and consistency of block delivery across the network. In addition, more efficient propagation reduces bandwidth usage, which can help lower operational costs for both block builders and relayers running large scale infrastructure. As competition in block production increases, improvements in propagation speed can create advantages not only for validators but also for those responsible for building and relaying blocks.

@TDuy240201 gmum content so good

The more I learn about distributed systems, the more I think the biggest cost is not latency. It is uncertainty. Developers can optimize performance. Validators can upgrade hardware. Networks can increase throughput. But uncertainty is much harder to eliminate. Will information arrive on time? Will every node observe the same state? Will the network behave consistently under load? Those questions influence every application built on top of it. That is why I believe infrastructure should do more than move data. It should reduce uncertainty across the entire network. That is one reason I keep following @get_optimum. The project is exploring how better networking and more efficient data propagation can help distributed systems become more predictable as they continue to scale. To me, infrastructure succeeds when developers stop asking "Will this work?" and start asking "What should I build next?" The best infrastructure does not only improve performance. It reduces uncertainty. @cryptooflashh @blockchainjeff @aqccapital @ada_pegasus @shariaronchain @CryptoSundayz

@Davixnhan quá là chi tiết

Blockchain isn't limited to payments. Gaming, AI, social platforms, and real-time applications all require rapid access to changing information. Slow data retrieval becomes a bottleneck long before computation reaches its limit. Optimum explores infrastructure that better supports these workloads through decentralized memory. The future of Web3 depends on more than transaction speed. It depends on how efficiently applications can work with data. @get_optimum

@Richardx1202 Họ Điêu tên Thuyền à

@w3c4n càng ngày càng đỉnh, xin mãi ko cho

🚪 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

@VngQuangVinh10 chăm quá nè

@dangtruong4421 bú 10k lun quá đã

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

@bent6868 gmum

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

@cuongquocartist happy monday

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

@bekhanhlinh98 Gmum idol

Scaling Blockchain Requires Better Networking As blockchain adoption accelerates, the challenge is no longer only about increasing throughput. The bigger question is how data can move across decentralized networks efficiently without compromising fairness or decentralization. Optimum is tackling this networking bottleneck. In a recent technical session, CEO and MIT professor Muriel Médard explained that every blockchain faces a natural propagation limit. The constraint is not just computation or block size it is the network's ability to distribute information to validators around the world. The Problem with Traditional Propagation Ethereum currently relies on GossipSub, where nodes forward multiple copies of the same data through a decentralized mesh. While this helps preserve decentralization, it also creates: Redundant traffic Higher bandwidth usage Additional propagation delays Uneven block delivery between validators Validators located closer to block proposers often receive information earlier than validators in distant regions, creating a co-location advantage based on geography rather than participation. How RLNC Changes the Model Optimum uses Random Linear Network Coding (RLNC) instead of repeatedly transmitting identical copies of a block. Validators receive encoded linear combinations of the original data and only need enough independent coded packets to reconstruct the block. This approach can: Reduce redundant network traffic Improve bandwidth efficiency Increase resilience to packet loss Make block propagation more consistent across regions Why It Matters The goal is not simply to make Ethereum faster. The goal is to reduce unnecessary networking overhead so decentralized systems can scale without amplifying geographic advantages. Physical distance will always exist, but inefficient data distribution does not have to. By improving how blocks propagate through the network, @get_optimum is helping build a more scalable, fair, and decentralized blockchain infrastructure. @blockchainjeff @aqccapital @ada_pegasus @cryptooflashh @CryptoSundayz

@thanquang9999 @get_optimum gmum nice art bro

The Hidden Layer of Blockchain Everyone talks about faster execution. But before a transaction is processed, data must reach the network first. That’s where @get_optimum stands out. By improving data propagation with advanced networking technologies like RLNC, Optimum aims to reduce latency, strengthen network resilience, and help decentralized systems communicate more efficiently. Sometimes, the biggest innovation isn’t processing data faster it’s moving data smarter. @get_optimum @aqccapital @blockchainjeff @ada_pegasus

@th787252 @get_optimum tks 4 share

Raw metrics are useful. Meaningful metrics are what actually matter One thing I appreciate about @get_optimum telemetry design is that it separates operational visibility from performance evaluation. The Gateway is responsible for collecting raw events in real time: - Block arrival via libp2p vs mumP2P - Publish timestamps - Attestation forwarding & drop reasons - Propagation latency - Inclusion delay - Peer connectivity and subnet distribution - Pack size, dedup efficiency, and message counters This level of telemetry makes debugging and monitoring much easier. But here's the important part: These numbers aren't treated as validator KPIs. Instead, they are simply the building blocks that Bootstrap uses to compute stable, network-wide metrics. Raw libp2p vs mumP2P deltas are great for engineering analysis, but they don't directly represent validator performance. That separation keeps dashboards clean, prevents misleading conclusions, and ensures contributors evaluate the network using consistent, reliable indicators rather than noisy operational data. A small architectural decision but one that says a lot about how @get_optimum approaches observability.

@Richardx1202 @SeismicSys @NoxxW3 cool boy bro

Seeing Magnitude reviews happen is a good reminder: Don't farm roles Build relationships Stay active Support the ecosystem Consistency > intensity Magnitude is the key🔑 @SeismicSys @NoxxW3

@Tangvi27 viết hay nha

Scaling Ethereum requires more than bigger blocks. Ethereum's upcoming Glamsterdam upgrade introduces ePBS, a new approach that restructures slot timing to support larger blocks and more blobs Instead of requiring the entire block to reach validators within a few seconds, ePBS separates block components, giving more time for execution payloads and blob data to propagate. This helps improve scalability, but it doesn't completely solve the underlying networking challenge ⚡ How Optimum addresses the bottleneck 🔹 ePBS optimizes block timing, allowing different parts of a block to arrive at different deadlines 🔹The real bottleneck remains data propagation, especially as block sizes and network participation continue to grow 🔹Optimum uses Random Linear Network Coding (RLNC) to fundamentally improve how data moves across Ethereum 🔹Lower latency and lower propagation variance enable blocks to spread through the network more quickly and reliably 🔹Higher throughput allows the network to process more data without being limited by bandwidth constraints 🔹Performance scales with network growth, maintaining efficient propagation even as Ethereum becomes larger and more decentralized Optimum isn't simply making Ethereum faster, it is improving the network layer that powers block propagation. By removing bandwidth bottlenecks with RLNC, Optimum helps create an Ethereum network capable of supporting larger blocks, higher throughput, and potentially shorter slot times without sacrificing decentralization Scaling Layer 1 isn't just about increasing block size, it's about ensuring data can move efficiently across the entire network. That's where Optimum's technology makes the difference @get_optimum

@mrchuoi279 gmum idol

💥Why Optimum Is Building a Modular Infrastructure Stack Instead of a Single Product 👉As blockchain technology matures, one trend is becoming increasingly clear: no single component can solve every scalability challenge. 👉For years, the industry focused heavily on execution. Faster virtual machines, higher TPS, and lower transaction costs dominated the conversation. Those innovations were necessary, but they also revealed another reality. Even the fastest execution layer still depends on an infrastructure capable of moving, managing, and serving data efficiently. This is where Optimum takes a fundamentally different approach. 👉Instead of introducing another blockchain or asking developers to migrate to an entirely new ecosystem, Optimum is building a modular infrastructure stack where each layer is designed to solve a specific problem. The goal isn't to replace existing networks. It's to provide specialized infrastructure that helps those networks perform better. That philosophy can already be seen across the project's architecture. High performance networking focuses on accelerating data propagation between participants. 👉Flexnodes extend the infrastructure through decentralized coordination and resource distribution. 👉DeRAM explores how decentralized memory can provide low latency access for applications that constantly exchange temporary data. Rather than combining every responsibility into a single protocol, each component is developed independently while remaining part of a unified infrastructure vision. This modular strategy offers an important advantage. 💥As blockchain applications continue evolving, different workloads will require different optimizations. AI agents need rapid access to contextual information. Onchain games require continuous state synchronization. DeFi protocols depend on fast and reliable communication between nodes. Enterprise applications often prioritize stability and predictable performance. Building one monolithic solution for every scenario becomes increasingly difficult. A modular infrastructure allows each layer to evolve at its own pace without forcing changes across the entire system. That is one of the reasons Optimum stands out. Instead of asking how to build another blockchain, the project asks a more interesting question: How can every existing blockchain become more efficient through better infrastructure? The answer isn't found in one technology alone. 💥It's found in an ecosystem where networking, memory, and decentralized coordination work together to support the next generation of blockchain applications. @get_optimum