$SIGN SIGN just printed a powerful breakout candle from the 0.020 area straight into 0.030, signaling aggressive institutional-style buying. Price is holding elevated levels near 0.0286, which is bullish if consolidation forms above 0.027. Immediate support lies at 0.0268, with deeper support at 0.0245. Resistance is the psychological 0.030 level — a clean break could accelerate upside. 🎯 Targets: 0.030 → 0.033 → 0.037. Suggested stop-loss: 0.0265. Trend remains strongly bullish while price stays above the breakout zone.
$LUNC LUNC continues to trade with heavy volume after its surge to 0.00004947, now consolidating around 0.0000426. This sideways compression suggests accumulation rather than distribution. Key support sits at 0.0000405, followed by stronger demand near 0.000038. Resistance stands at 0.0000440 and the major barrier at 0.0000495. 🎯 Targets: 0.0000440 → 0.0000495 → 0.0000550. Suggested stop-loss: 0.0000398. A breakout above the local range could trigger another volatility spike typical of LUNC cycles.
$ALICE ALICE delivered a strong impulse move to 0.1681 followed by sharp profit-taking, a classic spike-and-cool pattern after aggressive accumulation. Price is stabilizing near 0.140, which now acts as a key pivot. Strong support lies at 0.126–0.130; a break below would weaken the trend. Resistance is stacked at 0.156 and then 0.168. 🎯 Targets: 0.156 → 0.168 → 0.182. Suggested stop-loss: 0.124. As long as higher lows hold, bulls remain in control for another expansion leg.
$SAHARA Explosive momentum pushed SAHARA into a vertical rally before sellers stepped in near 0.0277, triggering a healthy pullback. Price is now cooling around 0.0219 while still holding above the breakout zone, which keeps bullish structure intact. Immediate support sits at 0.0205 — losing this level could open a slide toward 0.0188. Resistance stands at 0.0245, with a reclaim likely sending price back to 0.0277 highs. 🎯 Targets: 0.0245 → 0.0277 → 0.0310. Suggested stop-loss: 0.0198. Momentum favors continuation if buyers defend the current base.
I don’t know many tech ideas that actually feel like they could change the game but Mira Network might be one of them. Right now most AI you and I use is clever but fundamentally untrustworthy under the hood it can confidently hallucinate facts or get things wrong in ways that would be disastrous in healthcare finance or legal settings. Mira doesn’t try to train a better AI it builds a trust system around existing ones.
The way it works is surprisingly simple and powerful every AI answer gets broken into tiny checkable statements. Then a decentralized network of independent AI models checks those statements and only when enough of them agree does Mira mark it as verified. That’s not subjective filtering it’s consensus verification.
Here’s the real‑world part that hit me imagine using AI on something as sensitive as diagnosing a health issue or making an investment decision, and knowing the answer you get isn’t just a guess dressed up as confidence but something verified by a whole network of models. That’s no small thing. It feels like the first step toward AI you can trust to make real decisions without a human babysitter and puts a safety layer under the wild west of AI outputs that so many of us have learned to take with a grain of salt.
From Smart to Certain How Mira Is Redefining AI Reliability
Mira Network is building something the AI world desperately needs trust that is earned not assumed
Right now artificial intelligence speaks with confidence even when it is wrong. It can draft legal opinions write market analysis generate medical suggestions and even guide financial decisions. But anyone who has used advanced AI long enough has felt that uncomfortable moment when something sounds perfect yet feels slightly off. You check it and discover an error. That small doubt becomes a bigger question how can we rely on systems that sometimes hallucinate facts
Mira Network steps into that tension and offers a different path. It is not trying to build another massive language model competing on size. It is building a decentralized verification layer that sits beneath AI outputs and tests them before they are trusted
The idea is powerful. When an AI produces content Mira does not treat the entire answer as one single block. It breaks the output into individual claims. If the AI says a company reported certain revenue numbers launched a product on a specific date or passed a regulation each of those statements becomes a separate unit. These units are then distributed across a network of independent AI validators. Each validator checks the claim. The network reaches consensus. Only the claims that survive collective scrutiny are considered verified
This changes the emotional experience of using AI. Instead of blind trust users gain structured confidence. You are not just reading an answer. You are reading something that has been economically challenged and defended inside a decentralized system
What makes this system serious is the incentive design. Validators are rewarded for accuracy and penalized for incorrect verification. Truth becomes economically valuable. Mistakes become costly. That dynamic pushes participants toward precision rather than popularity
Think about a real life example. Imagine an autonomous AI trading agent managing digital assets. It scans news social media and on chain signals to make decisions. One hallucinated regulatory headline could trigger a massive trade and cause heavy losses. With a verification layer like Mira the agent does not act immediately on raw interpretation. The factual claims inside that news are validated through decentralized consensus before execution. The difference between instant reaction and verified reaction could protect millions
The same logic applies beyond finance. Consider AI used in healthcare support systems. If a model references a study or treatment statistic those details can be broken into claims and verified before influencing real decisions. In governance and DAOs proposals generated by AI could pass through a verification filter before community voting. In enterprise environments compliance teams could integrate verification layers to reduce legal exposure
There is also a deeper shift happening here. We are entering a time where AI generates a massive portion of digital content online. Reports analysis code strategy drafts even political commentary. If all of this flows without structured verification the information layer of the internet becomes unstable. Noise increases. Manipulation becomes easier. Confidence declines
Mira proposes a world where AI output carries a measurable verification signal. Instead of asking do I trust this model users can ask how strong is the consensus behind this claim. That subtle change turns AI from a guessing engine into something closer to accountable infrastructure
Of course nothing is free. Decentralized verification introduces time and computational cost. Reaching consensus is slower than accepting a single output. But when decisions carry real financial legal or social weight speed without reliability is dangerous. The balance between velocity and certainty becomes a design choice rather than a blind gamble
Emotionally this feels necessary. The excitement around AI is massive but so is the anxiety. People fear misinformation automation errors and systems acting beyond control. A decentralized verification protocol does not eliminate risk but it introduces transparency and accountability. It moves the conversation from blind faith in algorithms to structured trust built through consensus
Mira Network reflects a broader evolution in technology. The first wave of AI focused on intelligence scale and creativity. The next wave must focus on reliability and economic alignment. Intelligence without verification is impressive but fragile. Intelligence backed by decentralized consensus becomes infrastructure
If this model gains traction it could reshape how autonomous AI agents operate how financial systems integrate machine analysis and how digital information is consumed globally. Instead of asking whether AI can generate answers the real question becomes whether those answers can withstand collective validation
That shift might define the future of AI more than any increase in model size ever could.
Robotik ist nicht länger durch Bewegung, Vision oder KI eingeschränkt. Der eigentliche Engpass ist die Koordination. Wenn Roboter über Unternehmen und öffentliche Umgebungen hinweg operieren, ist die schwierige Frage die Verantwortlichkeit. Wer überprüft, was eine Maschine getan hat, nach welchen Regeln und mit welchen Daten?
Das Fabric-Protokoll konzentriert sich auf diese Lücke. Anstatt bessere Hardware oder intelligentere Modelle zu entwickeln, schafft es eine gemeinsame Infrastruktur dafür, wie Roboter über Institutionen hinweg geregelt und validiert werden. Durch die Nutzung eines öffentlichen Ledgers verbindet es Daten, Berechnungen und Regulierung zu einem einzigen verifizierbaren System. Roboter können nachweisen, dass sie Sicherheitsregeln befolgt oder Updates korrekt ausgeführt haben, ohne sensiblen Code offenzulegen, und das Vertrauen von internen Berichten auf kryptografische Beweise verlagern.
Das Design behandelt Maschinen als Teilnehmer des Netzwerks erster Klasse, nicht nur als Werkzeuge, die von Menschen kontrolliert werden. Mit modularer Architektur und von der Grundlage geführter Governance zielt es darauf ab, kollektive Verbesserungen zu unterstützen und gleichzeitig eine gemeinsame, prüfbare Quelle der Wahrheit aufrechtzuerhalten.
Wenn es in großem Maßstab angenommen wird, könnte es zur Kerninfrastruktur für die Verantwortlichkeit von Robotern werden. Andernfalls bleibt es ein starkes Konzept, das auf eine Integration in die reale Welt wartet.
When Robots Stop Being Products and Start Becoming a Shared Infrastructure: Inside Fabric Protocol’s
Fabric Protocol is trying to do something that sounds abstract at first but becomes surprisingly intuitive once you sit with it: treat robots not as isolated machines owned by a single company, but as participants in a shared global network. Instead of each robot living inside its manufacturer’s walled garden, Fabric imagines a world where robots can be built, improved, governed, and coordinated collectively — more like open-source software than consumer hardware.
At the center of this idea is verifiable computing and a public ledger. In simple terms, the network records what robots do, what data they use, and how decisions are made, in a way that can be checked rather than blindly trusted. If a robot learns a new skill, completes a task, or follows a safety rule, that information can become part of a shared system rather than disappearing into a private database. This creates the possibility of machines that don’t just operate independently but evolve together.
The “agent-native infrastructure” part means the system is designed for autonomous software agents from the start. Instead of humans manually coordinating everything, robots and AI systems can request resources, share results, and comply with rules automatically. The protocol acts as a neutral coordination layer — not a controller, but a referee that ensures everyone is playing by transparent rules.
What makes this compelling is the safety angle. When machines operate in the real world, trust matters more than speed. Fabric’s modular approach suggests that regulation, permissions, and accountability can be built into the system itself rather than bolted on later. In theory, this could make human-machine collaboration less risky and more predictable.
But the challenges are substantial. Robotics is expensive, messy, and deeply tied to physical constraints. Unlike software, hardware cannot be upgraded instantly, and real-world failures carry real consequences. There is also the social dimension: agreeing on governance for a global machine network is far harder than agreeing on code changes. Who decides the rules? Who is liable when something goes wrong? How do you prevent concentration of power while still maintaining quality and safety?
Fabric Protocol does not solve these tensions outright. What it offers is a framework for managing them openly instead of hiding them behind corporate walls. If it works, robots could become less like proprietary tools and more like public infrastructure — shared, accountable, and continuously improving.
Whether that vision materializes depends not only on technology but on trust, cooperation, and sustained commitment. Still, the idea itself feels important. It suggests a future where machines are not just built for us, but built with us part of a system that grows alongside human society rather than operating apart from it.
Traders say they’re “watching” a project when they’re waiting for proof, not promises. That’s why Fogo is on the radar. ~40ms blocks and ~1.3-second confirmation don’t just mean faster speed — they create a market that updates continuously instead of in delayed chunks. If that rhythm stays stable, traders can run tighter strategies with less safety padding. If it doesn’t, outcomes become unpredictable, which is far worse than being slow.
What makes Fogo interesting is that it doesn’t ignore real-world limits. By clustering validators into tight zones and treating latency as part of the execution engine, it prioritizes coordination speed over idealized decentralization optics. SVM compatibility also means parallel execution that’s designed to handle heavy load, not just quiet conditions.
But the true test comes during stress — liquidations, congestion, everyone rushing through the same door. If performance holds, the chain starts to feel like a serious trading venue. If it breaks, the market will expose it immediately. At a 40ms cadence, weaknesses don’t stay hidden for long.
Fogo at 40ms: When a Blockchain Starts Acting Like a Trading Venue
When traders say they’re “watching” a project, it usually doesn’t mean they’re impressed. It means they’re suspicious in a productive way. They’ve seen enough chains promise speed, then fold the moment real flow arrives. That’s the exact tension around Fogo right now: it’s making a claim that can’t hide behind vague language — ~40ms blocks and ~1.3s confirmation as the baseline rhythm people should feel on the network. But the part that makes Fogo interesting isn’t the number itself. It’s what the number implies. At 40 milliseconds, you’re not just “faster.” You’re forcing the chain to behave like a live system where decisions happen in tight loops. That changes the personality of the venue. It’s the difference between a market that updates in chunks and a market that keeps ticking while you’re still thinking. If the chain stays stable at that pace, you can start running strategies with less padding — tighter quotes, faster hedges, smaller safety margins. If it doesn’t stay stable, you don’t get a slightly worse experience. You get something traders hate: unpredictable outcomes that you can’t model. Fogo doesn’t pretend geography is irrelevant either, and that’s another reason people take it seriously. They openly talk about consensus operating in Tokyo, which is basically admitting what many projects avoid saying out loud: latency isn’t a rounding error, it’s part of the execution engine. When you’re chasing a 40ms cadence, validator coordination and physical distance stop being abstract. They become visible in the results — which transactions land cleanly, which ones drift, how often inclusion timing feels “off,” how much variance you’re forced to price in. Their documentation goes further into the same mindset. Fogo describes a “zone” approach where validators can be tightly clustered (they even describe an ideal zone as a single data center) to push coordination speed toward the floor. That’s not a safe, crowd-pleasing design choice. It’s a performance-first choice. And it’s exactly the kind of choice traders pay attention to because it’s not pretending all constraints disappear with good branding. It’s picking a constraint — fast coordination — and trying to engineer around it aggressively. The execution side matters too. Fogo’s positioning around SVM compatibility isn’t just “we support the same programs.” The real point is that it inherits a model that’s already built around parallel execution where it’s safe to do so. That’s meaningful because the hardest moments for any chain aren’t calm periods with scattered activity. The hardest moments are contention events — when everyone hits the same pools, the same collateral, the same routes at the same time. If parallel execution collapses into chaos under contention, speed becomes useless. Traders don’t care how fast the chain is when it’s quiet; they care how it behaves when liquidations start and the whole market tries to move through the same door. So what does “focus on the project” look like in real terms? It’s not repeating the tagline. It’s watching whether the network behaves like a trading venue. If you want a clean reality check, you look at what the public tooling shows you about the chain’s actual cadence. Explorers like Fogoscan surface average block time and activity, which is exactly the kind of thing traders watch because it reduces the story to observable behavior. And if broader market access brings more attention and more stress, it stops being a lab experiment fast. That’s when the numbers either hold up or they don’t. The reason Fogo is on traders’ radar is simple: it’s not trying to win the usual popularity contest. It’s trying to compress time inside the chain enough that execution starts feeling closer to what serious trading systems are built around — consistent updates, tight feedback loops, and less waiting around for the network to catch up. If it delivers, it becomes a venue people use because it changes what’s practical. If it doesn’t, the market will expose it quickly, because at 40 milliseconds, small weaknesses don’t stay small for long.
Mira Network and the Trust Economy in AI Systems That Work on Their Own
Mira Network enters the market at a time when AI is growing faster than the systems that are supposed to keep an eye on it. AI tools can now write code, look at medical data, make financial reports, and decide how to run a business. But the main problem is still the same: big models still make things up, add bias, and give answers that are sometimes wrong with a lot of confidence. As AI gets better at running things on its own in finance, government, and business infrastructure, the cost of making a mistake goes up a lot. People in the market are no longer wondering if AI is powerful. It wants to know if AI outputs can be trusted even when people aren't watching them. Mira Network fits right in the middle of that gap.
This method is important because of the structural changes that are happening in both crypto and AI. Blockchain systems have changed from simple networks for moving value to layers for coordinating decentralized infrastructure in the last few years. AI models have also become centralized compute monopolies that a small number of companies control. This concentration makes it possible for one thing to go wrong. If the model is wrong, biased, or changed, other systems that use it are also in danger. Decentralized verification alters the operational framework. The system doesn't depend on just one model. Instead, it spreads validation across several independent models and makes sure that the economic incentives are in line with accuracy. In theory, this turns AI from a black box that works on chance into an output engine that works on consensus.
The core of Mira Network's architecture is claim decomposition and distributed validation. The protocol doesn't accept a complicated AI-generated answer as the whole truth. Instead, it breaks it down into smaller claims that can be checked. A network of separate AI models or verification agents sends each claim to a different location. These agents use their own logic frameworks and training data to look at the claim. A consensus mechanism is then used to put all the results together. If most validators agree that the claim is true, it is accepted and sealed with cryptography. If there is too much disagreement, the claim is either marked or turned down.
This structure adds two important dynamics. First, verification becomes modular. Instead of checking the whole document or output, the network checks small parts of it. Second, trust is more about money than how people see you. Validators want to give correct assessments because giving wrong ones can lead to punishments or lower rewards. The protocol changes AI's reliability from a single point of control to a system of incentives that are spread out.
From a systems point of view, the process probably goes in a certain direction. A piece of AI output goes into the network. The output is divided into structured claims. These claims are mixed up and sent to validators. Validators have to stake tokens in order to take part. Based on how accurate they have been in the past and how much they are willing to stake, their answers are given more weight. There is a level of agreement that determines whether or not something is accepted. When claims are finalized, they are put on a blockchain ledger or cryptographically linked to one. This makes a permanent record of the verification.
The economic layer is a very important part of how the protocol works. People who want to use decentralized verification must have a reason to be honest that has to do with money. This usually means using staking systems, giving rewards for correct validation, and punishing dishonest behavior with slashing penalties. In this kind of system, the token usually has three main jobs: it lets people stake to take part, it pays for verification services, and it sets the rules for the protocol. If the system is set up correctly, the need for tokens will grow as more people use the network, since each verification request needs a validator to be involved.
The logic behind governance is also important. A decentralized verification network must be capable of accommodating emerging attack vectors, evolving AI models, and shifts in validator behavior. People can vote on things like consensus thresholds, staking requirements, and rules for onboarding validators with governance tokens. Governance concentration can hurt decentralization, though, if a small group has a lot of voting power. Long-term resilience depends on finding the right balance between being flexible and being decentralized.
This doesn't give any detailed on-chain metrics, but you can use logical reasoning to figure out how healthy a protocol is in its early stages. In verification networks, the number of validators and how they are spread out are important signals. It's more likely that people will work together to cheat if there are only a few validators. A validator base that is getting bigger and covering a wider area is a sign of stronger decentralization. It's also important to look at trends in transactions. If requests for verification go up over time, it means that other apps want it. Another sign is how the fees go up and down. Fees that stay the same or go up show that people are still using the service, not just making guesses.
You can also keep track of how much your wallet is growing. In infrastructure protocols, the number of wallets linked to staking participation is not as important as the number of holders. People are staking more and more, which means they think the economy will be stable for a long time. When prices go up and down quickly, it's usually a sign of speculative cycles instead of real adoption.
Mira Network is in the middle of two markets that aren't very stable: AI and crypto infrastructure. This is good for cash flow. In these kinds of projects, how well the partnerships work together and how good the story is often affect how much money is available. If decentralized apps use Mira's verification layer, the speed of tokens may stay the same because they are used over and over again. Without integration, liquidity could turn into nothing but speculation. When builders choose infrastructure projects, they think about how much they will cost and how reliable they will be. AI application developers will want to use Mira if it can prove things faster or cheaper than centralized audit layers.
AI verification is becoming more and more popular with institutions. Businesses that use AI in regulated fields need to keep track of their work. A cryptographically verifiable output layer could make it less likely that people will break the rules. Mira can make a lot of money if it sees itself as a go-between for AI providers and business clients. But the problem of integration is still there. Businesses need stable and predictable cost structures before they can use decentralized parts.
The biggest technical risks are validator collusion and model correlation. If validators use the same base AI models, consensus doesn't mean they are separate. The model architecture and training data must be different for real decentralization to happen. If not, validators could still be biased against certain groups. Attacks on the economy are also a threat. If a bad actor gets enough stake, they could change the outcome of the validation. Reputation weighting and slashing lower this risk, but they don't get rid of it completely.
Another issue is that it doesn't work well on a large scale. It is easier to check outputs when they are broken down into smaller claims, but this also increases the number of transactions. If on-chain anchoring gets too expensive when the network is busy, costs could go up. To keep scalability, you need to use either efficient batching or off-chain computation with on-chain settlement.
Another thing to think about is how flexible demand is. Verification is important for fields with a lot of risk, like finance and healthcare, but not as important for making low-risk content. Developers will only use AI if they think that checking the outputs is less expensive than getting them wrong. Decentralized verification may take longer to catch on in markets where speed is more important than accuracy.
Even with these risks, the way Mira Network is set up fits in with a larger trend toward less trust. Instead of speculative token design, the crypto market is rewarding infrastructure that solves real coordination problems more and more. We need to fix the problem of AI reliability on a global scale. If decentralized verification becomes the norm, the first protocols in this area will have a strategic edge.
Token price won't matter for growth in the future; integration metrics will. The best sign of adoption will be the number of apps that send outputs through Mira's verification layer. Validator growth, staking participation, and steady fee income are all signs that the system is stable. Working with AI model providers or decentralized compute networks could change the whole ecosystem.
The realistic view is careful but good. Decentralized AI verification isn't just a temporary thing. It needs a stable economic design, a mature infrastructure, and developers who trust it. If Mira Network does a good job of validator diversity, incentive alignment, and making integration easy, it could become a permanent part of AI infrastructure. If the execution fails, other protocols that have more support from the ecosystem could take up the idea.
Mira Network is a sign of a bigger trend in the tech market. It's not enough to be smart. Verifiability determines whether intelligence can operate autonomously. The project is working on a basic part of the next digital cycle in that way. It will become the most popular choice not because of marketing but because of consistent architectural discipline and measurable network growth.
Mira Network ($MIRA ) – Independent Trust Layer for AI Meets Market Reality
Mira's promise to turn shaky LLM outputs into cryptographically verifiable facts is still important, not because it's flashy but because real AI systems still hallucinate under pressure. In a market that has cooled down, where usefulness is more important than hype Mira's main value proposition seems to be more and more useful for institutional AI use cases.
Mira's protocol takes AI outputs and breaks them down into atomic claims. Then it sends them through decentralized consensus among independent validators. Native $MIRA is the glue that holds the economy together. It pays for verification, keeps staking safe, and keeps governance in a trustless stack. This design fixes systemic bias and mistakes in the algorithm instead of at the application edge
There are only about 245 million tokens in circulation right now, which is a lot less than the maximum of 1 billion. This means that there are still a lot of tokens that need to be locked up or given to someone else. People are feeling negative, and holders are being careful after big drops.
This setup makes it hard for traders to take risks and get rewards because there is liquidity but not much conviction. Adding Mira's verification layer to apps shows that people are starting to use it for real, not just for fun.
Risks are real: there is a lot of supply, and prices stay low because they depend on real adoption instead of stories.
In the short term $MIRA 's path will depend less on slogans and more on real-world integrations that have been shown to work and on showing that decentralized verification goes beyond ideas and into measured usage.
Einmal bauen. Wieder bereitstellen — Ohne gegen Staus zu kämpfen
Nach der Bereitstellung einer Solana-App beginnt der echte Schmerz oft, wenn das Netzwerk beschäftigt ist. Nichts ist technisch kaputt, doch Transaktionen schlagen fehl, Wallet-Aufforderungen vervielfachen sich, und Nutzer verlassen leise, weil es "langsam erscheint."
Fogo zielt darauf ab, dies zu lösen, ohne eine Neuschreibung zu erzwingen. Da es die Kompatibilität auf der Ausführungsebene anvisiert, können bestehende Solana-Programme mit minimalen Änderungen neu bereitgestellt werden — der Kernlogik, dem Verhalten von Konten und dem Muskelgedächtnis der Entwickler bleibt intakt. Für Produktionsanwendungen, die mit echten Geldern umgehen, ist es wichtiger, Unbekannte zu reduzieren, als theoretische Geschwindigkeit zu verfolgen.
Das Ziel von ~40 ms pro Block ist weniger auf rohe Leistung und mehr auf Konsistenz ausgerichtet: weniger fehlgeschlagene Transaktionen, stabile Bestätigungen und vorhersehbares Verhalten unter Druck. Diese Konsistenz ergibt sich teilweise aus eng koordinierten Validierern, was die Latenz verbessert, aber das Infrastruktur-Risiko konzentriert.
Fogo-Sitzungen adressieren auch die Benutzerfriktionen, indem sie begrenzte Genehmigungsfenster zulassen, anstatt ständige Wallet-Zustimmungen zu verlangen, wodurch der "Signieren-Genehmigen-Zyklus" reduziert wird, der die Dynamik tötet.
Einfach ausgedrückt: Fogo verspricht keinen magischen Geschwindigkeit — es bietet eine reibungslosere Ausführungsumgebung mit klaren Kompromissen. Dasselbe Programm, neuer Ort, potenziell ruhigere Produktionsverhalten.
$MORPHO /USDT looks structurally strongest. Instead of a single spike, it’s printing a staircase trend — higher highs and higher lows with controlled pullbacks. That’s the signature of accumulation rather than a quick pump. As long as price holds above the 1.80–1.85 zone, momentum favors bulls.
$DENT /USDT is the standout outlier with extreme percentage gains. Moves like +70% rarely sustain without cooling. Current price action shows lower highs after the peak at 0.000275, indicating short-term exhaustion. However, if volume returns, these micro-caps can produce secondary spikes that catch late sellers off guard.
$AXL /USDT delivered a classic liquidity spike. A sharp vertical candle to 0.0705 was followed by profit-taking, but price is still holding well above the pre-pump base around 0.053. This suggests distribution has not fully taken control yet. Watch for either a higher low for continuation — or a loss of 0.060 for a deeper retrace.