Raleigh_Encryp
254 posts

Raleigh_Encryp
@Rayleigh_Encryp
Web3 enthusiast | Web3 Content | On-chain creativity









Why Generic AI Isn't Enough for Businesses The more I learn about enterprise AI, the more I realize that generic AI is only the starting point not the destination. Foundation models like Llama or Qwen are incredibly capable, but they are designed to answer questions across almost every domain. That flexibility is impressive, yet businesses don't compete on general knowledge. They compete on proprietary data, internal processes, and domain expertise. A financial company doesn't need an AI that knows a little about everything it needs one that understands financial regulations and risk analysis. A healthcare provider needs medical reasoning. A customer support team needs responses aligned with its own products and policies. These are challenges that prompt engineering alone can't always solve. This is why I find LLMTune's vision compelling. Rather than treating AI as a one-size-fits-all solution, it provides an end-to-end platform where organizations can fine-tune foundation models using their own datasets, evaluate performance, deploy models through APIs, and continuously improve them as new data becomes available. The value isn't just in training a model once it's in creating a repeatable workflow that keeps AI aligned with the business as it evolves. In my opinion, the next generation of AI winners won't simply adopt the latest open-source model. They'll build AI that reflects their own knowledge, data, and competitive advantages. Generic AI may get you started, but customized AI is what creates long-term differentiation. @LLMTUNE_IO










Good morning - Chào buổi sáng cả nhà! ☀️ Mình cùng bạn đang ngồi nhâm nhi trà nóng, bắt đầu ngày mới với nhiều năng lượng. Chúc anh em một ngày CN thật tốt lành và nhiều năng lượng nhé ☕ Anh em hôm nay thế nào? Comment chia sẻ đi! #GM




🌉 Web3 is becoming increasingly multi chain, yet the user experience remains fragmented. ✔️Swapping assets, bridging funds, and accessing DeFi across different networks often require switching wallets, changing networks, and exposing transaction data along the way. 🔥Fluton is taking a different approach. ✔️Instead of launching another blockchain, Fluton is building a Universal Confidential Execution Layer that enables private interactions across multiple chains through a unified execution environment. With Encrypted Intents powered by Fully Homomorphic Encryption, sensitive transaction details remain protected from creation to settlement. The future of DeFi is not only faster and more scalable. It should also be seamless and private. 🔥That is exactly the future Fluton is building. @FlutonIO








Part 2: RLNC vs. Reed–Solomon: Speed Comparison in Real-World Scenarios A common question when learning about Optimum is: If both RLNC and Reed–Solomon protect against packet loss, which one is actually faster ? The answer depends on where they're used. Reed–Solomon is excellent for storage and simple transmission, while RLNC is designed for large, decentralized networks like blockchains. Scenario 1: Sending a File from One Device to Another Example: Downloading a file from a server. Reed–Solomon -> The sender encodes the data once -> The receiver reconstructs any missing packets -> There are few relay nodes, so packet loss is relatively easy to handle ✅ Very efficient for point-to-point communication. RLNC -> Also works well, but its additional recoding capability provides little advantage because there are very few intermediate nodes Result: Both perform similarly, and Reed–Solomon is often sufficient. Scenario 2: Large Blockchain Network Example: A validator propagates a new block to thousands of nodes worldwide. Reed–Solomon -> Only the proposer creates the encoded packets -> Relay nodes simply forward them -> As packets travel across many hops, losses accumulate -> More retransmissions or additional repair packets may be needed. Result: 👉Propagation slows down 👉Throughput decreases as the network grows RLNC -> The proposer encodes the block -> Every relay node immediately generates fresh coded packets -> Multiple network paths contribute simultaneously -> Packet loss is repaired continuously throughout the network Result: 👉Faster propagation 👉Higher throughput 👉Better scalability Scenario 3: Congested Network Suppose many packets are dropped because of congestion Reed–Solomon -> If too many packets are lost, the receiver may not have enough information to recover the data -> Additional repair data or retransmissions may be required RLNC -> Every relay keeps producing new innovative coded packets -> The receiver only needs to collect enough independent packets, regardless of which path they arrived from Result: 👉RLNC maintains smoother performance under packet loss Scenario 4: Growing Network Size Imagine expanding from 100 nodes to 10,000 nodes. Reed–Solomon As the number of hops increases: -> Packet losses accumulate -> Throughput declines -> Propagation becomes slower RLNC As more nodes join: -> More forwarding paths become available -> More nodes generate innovative coded packets -> The network can make better use of available bandwidth. Result: 👉RLNC benefits from larger decentralized networks instead of being limited by them 📌Reed–Solomon is optimized for protecting data 📌RLNC is optimized for moving data efficiently across a decentralized network For everyday file transfers, the speed difference is often small. But in large-scale Web3 networks with many relay nodes and frequent packet loss, RLNC offers a significant advantage by maintaining higher throughput, reducing the impact of losses across multiple hops, and making better use of the network as it grows. Part 3: ............................... @get_optimum @aqccapital | @blockchainjeff | @ada_pegasus


Curious projects are built by asking better questions, not chasing hype. @FlutonIO is focused on building infrastructure that developers can actually use. Looking forward to seeing how the ecosystem grows and what the community creates next. #Fluton #Web3 #BuildInPublic




