Bitlayer × YPT Group🤝: Realizing the Full Potential of Bitcoin Infrastructure Following the successful listing of Bitlayer’s governance token $BTR on major global exchanges, the Bitlayer ecosystem is accelerating its move into real-world applications. Today, we’re proud to announce a strategic partnership with YPT Group, opening a new era of Crypto Card payments for our community. Key highlights of the partnership: 🚀 Infrastructure-level integration: YPT will integrate deeply with Bitlayer’s Bitcoin L2 infrastructure, leveraging high-performance Layer 2 rails to deliver low-cost, high-efficiency asset transfer and settlement. 💳 Global payment access: Users will be able to apply for Visa and Mastercard virtual cards provided by YPT, with direct top-ups in $USDT. 💎 From yield to spending: Users can convert protocol yield earned from holding $yBTC in the Bitlayer ecosystem, or profits generated from trading $BTR, into $USDT and top up their cards with ease. 🛍 Spend anywhere: From paying for subscriptions like ChatGPT and Netflix to shopping at millions of merchants worldwide, Bitlayer is making it possible to truly “Spend Crypto Like Fiat.” Powered by the strong liquidity of $BTR and YPT’s payment network, Bitlayer is bringing Bitcoin-backed assets one step closer to becoming an everyday currency for real-world use. 🚀 #Bitlayer# #BTR# #YPTGroup# #CryptoCard#

Bitlayer Monthly Report — February 2026 is here! 📊 Key highlights: 🔵 $BTR hit ATH of $0.236 — more than 2x from January 🔵 YBTC Family TVL reached $93.75M 🔵 97.27M+ total on-chain transactions 🔵 Phase 2 BTR Airdrop launched Feb 28 🔵 YBTC.B expanded to @aspect_build via verified #BitVM# Bridge 🔵 Charlie Hu keynoted at Bitcoin Investor Week NYC — 2,500+ attendees February was a month of growth, expansion, and milestones. Read the full report 👇 #Bitlayer# #BitcoinL2# #BTC# #Bitcoin#

A masterpiece forged over three years by @DujunX — $BTR @BitlayerLabs  is nothing short of formidable. If one had to sum it up, perhaps best said as: “A hall filled with revelers in bloom, yet a single sword chills fourteen states.” As for Peter Sui（Sui Shengquan) @Metapi208 , after following Dujun these past few years,he’s finally had his breakthrough moment — thanks to $BTR, he’s turned the tide and come out on top. The legendary Huobi. And the outstanding Bitlayer. @VuoriTrading @JuliusElum @UmerTheBull @MWhalekiller @muzsays  @CryptoA40672341 @TraderEthem @Pure8Nature  @Ekoanalizz @digishahed @ER404i @fabiocatalao_  @CalebSol  @MattPRD  @mrblock #杜均# #BTR#

🚀 24H Top 5 Gainers on Guarda Wallet 🔹 PEPO ( $PEPO ) +278.14% 🔹 Hivemapper ( $HONEY ) +179.98% 🔹 TermMax ( $TMX ) +171.99% 🔹 Quantix Finance ( $QFI ) +151.81% 🔹 Bitlayer ( $BTR ) +141.91% 💰 Hold and Grow Your Portfolio 🔗

Anchorage Digital recently added support for 70+ new assets, including 50+ tokenized stocks and ETFs from @OndoFinance. New additions include: Ethereum: $FOLD (@theInterfold), $BAGEYBU (@BGDA_UK), ethereum:0x56a3ba04e95d34268a19b2a4474dc979babdaf76 (@SentientAGI), ethereum:0x6c76de483f1752ac8473e2b4983a873991e70da7 (@BitlayerLabs), $trUSD (@tori_finance), $strUSD (@tori_finance), $NES (@nesaorg) Base: $FUSD (@frgmnt), $sfUSD (@frgmnt), $TIBBIR (@ribbita2012) Etherlink: $USDT (@Tether_to), $USDC (@circle), $WETH Stellar: $JAAA (@anemoycapital), $JTRSY (@anemoycapital) Solana: $BAGEYBU (@BGDA_UK), $BP (@Backpack) Arbitrum: $USDG (@global_dollar) BNB Chain: $AVL (@avalonfinance_) See our growing list of supported assets:

Great to be back in Bitcoin Asia conference, always nice to catch up with all the OG bitcoiners. Q Day concern is just a distraction, crypto & AI adoption is the next exciting trend. Stay tuned on Bitlayer's new updates and new direction.

I've been aware of cardiolipin and its key role in mitochondria for a long time, but I was missing the deeper mental model: The molecular architecture of phospholipids helps determine the physical operating environment of the cell. And that means the same protein can behave very differently depending on the membrane environment it sits in. Change the lipid architecture, and you can change what the cell is capable of doing. Start from first principles. Phospholipids are the molecules that build the membranes of our cells and organelles. Their basic design is simple: a hydrophilic head that interacts with water, and hydrophobic fatty acid tails that avoid it. Put enough of them in water and they spontaneously self-assemble into bilayers. The tails point inward, away from water. The heads face outward. You now have a membrane. But here’s where it gets interesting: Change the molecular architecture of the phospholipid, and you change the physics of the membrane. Different headgroup sizes, electrical charges, fatty acid chains and chemical bonds change how these molecules pack together. That changes: Geometry: how the membrane bends, folds and organizes itself Electrostatics: the electrical environment experienced by proteins and molecules at the membrane surface Chemical reactivity: which reactions are favored and how vulnerable the membrane is to oxidation Protein interactions: which proteins bind, how they assemble and which conformations they stabilize And since proteins are the machines carrying out cellular function, changing their physical environment can change how those machines work. Cardiolipin is perhaps the clearest example. Most phospholipids have 2 fatty acid chains. Cardiolipin has 4, connected through a structure containing 2 phosphate groups. That gives it unusual packing geometry, strong negative charge and distinctive interactions with membrane proteins. And where does the body concentrate this molecule? In the inner mitochondrial membrane — exactly where the machinery of oxidative phosphorylation operates. Not a coincidence. Mitochondria generate ATP by passing electrons through respiratory protein complexes, using the released energy to pump protons across the inner membrane. Those protons then flow back through ATP synthase, driving ATP production. But for that machinery to work efficiently, the proteins need the right physical environment. Cardiolipin helps create that environment. Its unusual architecture contributes to the curvature of mitochondrial cristae — the folds of the inner membrane that house the respiratory machinery. Its phosphate groups and fatty acid chains interact with respiratory proteins, helping stabilize their structures and assemblies. And its molecular composition influences membrane packing, membrane dynamics and susceptibility to oxidative damage. The implication is profound: You can have the right proteins, but the wrong lipid environment, and still end up with dysfunctional mitochondria. The hardware is there. The operating architecture is compromised. And cardiolipin is not the only example. A few other unusual phospholipid architectures in the body make the same point: 1. BMP: the lysosomal membrane specialist Bis(monoacylglycero)phosphate has an unusual glycerol-phosphate backbone and is concentrated in late endosomes and lysosomes. Its architecture helps create a membrane environment suited for lipid processing and degradation. The mitochondrion specializes in energy conversion. The lysosome specializes in degradation. Both require specialized membrane environments. 2. Plasmalogens: changing the chemistry of the tails These phospholipids still have 2 hydrophobic chains, but one is attached through a vinyl ether bond instead of the usual ester linkage. That changes membrane packing and oxidative chemistry. Plasmalogens are especially abundant in tissues like the brain and heart. Same broad amphiphilic design. Different chemistry. Different behavior. 3. Phosphoinositides: engineering the headgroup Take a conventional 2-chain phospholipid and add extra phosphate groups to the polar head. You get signaling lipids like PIP2 and PIP3. These help recruit specific proteins to membranes, including components of the PI3K-AKT pathway. The membrane is no longer just a barrier. It becomes a spatially organized signaling surface. 4. Monolysocardiolipin: changing the number of chains Remove one fatty acid chain from cardiolipin and you get a 3-chain molecule: monolysocardiolipin. This is an intermediate in cardiolipin remodeling. The balance between monolysocardiolipin and mature cardiolipin is crucial in Barth syndrome, a genetic disease marked by defective cardiolipin remodeling and severe mitochondrial dysfunction. So changing lipid architecture can have consequences all the way up to the level of the organism. Now zoom out. The conventional way to think about biology is through genes, proteins and signaling pathways. But beneath a lot of that machinery is another layer: the physical and chemical architecture of the membranes those proteins operate in. Membranes influence where proteins sit, which partners they encounter, how they move and which conformations are energetically favorable. And the molecular composition of those membranes helps determine all of it. So the mental model is: phospholipid architecture → membrane geometry and chemistry → protein organization and activity → organelle function → cellular physiology It’s not a one-way chain. Proteins also organize lipids, and metabolism continually remodels membrane composition. It’s a feedback system. But the principle is powerful. Cardiolipin shows it in mitochondria. BMP shows it in lysosomes. Plasmalogens alter membrane chemistry. Phosphoinositides turn membranes into programmable signaling surfaces. We tend to think of membranes as the walls around the important machinery. But the walls are part of the machinery. And understanding the molecular code that determines membrane architecture may be just as important as understanding the proteins embedded within it.