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Delivering sharp insights and high value crypto content every day. Verified KOL on Binance, Available for Collaborations. X: @gmnome
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The average garment today is worn just seven times before it is discarded. Seven wears, then waste. In contrast, a handmade textile created by an artisan cooperative can last 15 to 20 years, carrying craftsmanship, culture, and care in every thread. The mathematics of sustainability are simple: longevity reduces waste, lowers resource consumption, and honors human skill. What’s truly required is the willingness to choose quality over convenience. Fabric Foundation is making that choice easier by connecting conscious consumers with responsibly made, long lasting textiles. When you invest in craftsmanship, you invest in communities, heritage, and a future with less landfill and more intention. Sustainability isn’t complicated. It’s a decision. @FabricFND #ROBO $ROBO {future}(ROBOUSDT) {alpha}(560x475cbf5919608e0c6af00e7bf87fab83bf3ef6e2)
The average garment today is worn just seven times before it is discarded. Seven wears, then waste. In contrast, a handmade textile created by an artisan cooperative can last 15 to 20 years, carrying craftsmanship, culture, and care in every thread. The mathematics of sustainability are simple: longevity reduces waste, lowers resource consumption, and honors human skill. What’s truly required is the willingness to choose quality over convenience.

Fabric Foundation is making that choice easier by connecting conscious consumers with responsibly made, long lasting textiles. When you invest in craftsmanship, you invest in communities, heritage, and a future with less landfill and more intention. Sustainability isn’t complicated. It’s a decision.
@Fabric Foundation #ROBO $ROBO
Naturalne barwniki, starożytna mądrość i rewolucja kolorów, którą prowadzi Fabric FoundationZanim chemik William Perkin przypadkowo odkrył pierwszy syntetyczny barwnik w 1856 roku, fioletowo-liliowy, który nazwał mauveine, każdy kolor, który kiedykolwiek pojawił się w ludzkiej odzieży, pochodził z ziemi. Z roślin, minerałów, insektów i zwierząt. Z liści indygo moczonych w fermentujących kadziach. Z korzeni madder mielonych na proszek. Z rozgniecionych muszli owadów cochineal. Z błota bogatego w żelazo. Z łupin orzechów włoskich i skórek granatu oraz z kolczastego stworzenia morskiego, które produkowało cesarską purpurę starożytnego Rzymu.

Naturalne barwniki, starożytna mądrość i rewolucja kolorów, którą prowadzi Fabric Foundation

Zanim chemik William Perkin przypadkowo odkrył pierwszy syntetyczny barwnik w 1856 roku, fioletowo-liliowy, który nazwał mauveine, każdy kolor, który kiedykolwiek pojawił się w ludzkiej odzieży, pochodził z ziemi. Z roślin, minerałów, insektów i zwierząt. Z liści indygo moczonych w fermentujących kadziach. Z korzeni madder mielonych na proszek. Z rozgniecionych muszli owadów cochineal. Z błota bogatego w żelazo. Z łupin orzechów włoskich i skórek granatu oraz z kolczastego stworzenia morskiego, które produkowało cesarską purpurę starożytnego Rzymu.
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Mira node operators are not just running servers. They are doctors, legal researchers, financial analysts, and AI developers putting real economic stake behind their models. If they verify honestly, they earn. If they guess randomly or collude, they lose their stake. Honest verification is not hoped for. It is the only financially rational choice. That is how you build a network you can actually trust. @mira_network #Mira $MIRA {spot}(MIRAUSDT) {future}(MIRAUSDT)
Mira node operators are not just running servers.

They are doctors, legal researchers, financial analysts, and AI developers putting real economic stake behind their models.

If they verify honestly, they earn. If they guess randomly or collude, they lose their stake.

Honest verification is not hoped for. It is the only financially rational choice.

That is how you build a network you can actually trust.
@Mira - Trust Layer of AI #Mira $MIRA
Zobacz tłumaczenie
Blockchain Meets AI, This Time It's Not a GimmickUnderstanding why decentralized infrastructure is the right tool for the AI verification problem Fair warning: this article is going to ask you to set aside whateverreaction you just had to the word "blockchain." If it was enthusiasm, hold that. If it was skepticism, hold that too. The goal here is to understand why blockchain infrastructure is specifically well suited to the AI verification problem, not because it's trendy, but because it solves genuine technical requirements that other approaches cannot. Let's start with what the AI verification problem actually requires from its infrastructure. First, it requires tamper-proof records. When a verifier node in the network evaluates a claim and submits a verdict, that verdict needs to be recorded in a way that cannot be altered after the fact. If records can be changed, the integrity of the entire verification system collapses. Anyone with database access could retroactively adjust verification results, and the certified "truth" of any output would be only as trustworthy as the person who controls the database. Second, it requires transparency without centralization. Anyone should be able to inspect the verification history of any piece of content. But this transparency cannot depend on a single organization to maintain and provide access to the records. Central points of control are central points of failure and central points of manipulation. Third, it requires economic coordination among parties who do not trust each other. Node operators in the network are independent actors. They have their own commercial interests. They need to be incentivized to verify honestly, and they need to be penalized when they do not. This requires a system that can enforce economic agreements without requiring trust between parties or relying on a central authority to adjudicate disputes. Fourth, it requires cryptographic proof of work. The system needs to be able to verify that a node actually performed inference, actually ran a claim through an AI model, rather than submitting a random or cached response. This "proof of inference" is essential for the economic incentives to work properly. Now look at what a blockchain provides. It is a distributed ledger where records are immutable once written, no single party can alter them. It is transparent to all participants, anyone can inspect the full history. It supports smart contracts, self-executing code that enforces economic agreements automatically, without requiring trust between parties. And it provides cryptographic infrastructure for proving computational work. This is not a case of finding a use for blockchain technology. It is a case of the AI verification problem having genuine technical requirements that blockchain infrastructure is specifically designed to meet. The fit is unusually clean. Compare this to the alternatives. A centralized database run by a single company meets none of the four requirements above. It can be tampered with, it is transparent only at the company's discretion, it requires trusting the company to enforce economic agreements fairly, and it cannot provide cryptographic proof of work without additional infrastructure. A federated system run by a consortium of companies does better on centralization but introduces coordination costs and still requires trusting the consortium members to maintain integrity. History suggests that industry consortia are not reliable guardians of public interest, particularly when members have commercial stakes in the outcomes. An open-source protocol without economic incentives addresses the centralization problem but cannot ensure participation or honest behavior without some mechanism for economic coordination. Public goods problems are well documented, systems that anyone can use but no one is specifically incentivized to maintain, tend toward underinvestment and degradation. The blockchain-based approach Mira uses is not the only possible technical architecture, but it is the one that addresses all four requirements simultaneously. The immutability of blockchain records ensures verification history cannot be tampered with. The distributed nature of the ledger ensures no single point of control. Smart contracts automate the enforcement of the staking and reward mechanisms without requiring trust. And the cryptographic infrastructure supports proof of-inference verification. The specific economic design is worth understanding in more detail. Mira uses a hybrid mechanism that combines Proof of Work and Proof of Stake principles. The "work" in question is not the arbitrary cryptographic puzzle solving of Bitcoin mining, it is actual AI inference. Running a claim through an AI model and producing a meaningful evaluation is the computational work that earns rewards. But unlike Bitcoin mining, where random guessing has essentially zero chance of success, AI verification tasks have constrained probability spaces. A binary true/false verification question gives a 50 percent chance of a correct random answer. Multiple-choice formats reduce this, but not to zero. If the network rewarded based on answers alone without any additional safeguard, random guessing could be a rational strategy. This is where Proof of Stake comes in. Nodes must stake value to participate. If a node consistently deviates from honest consensus, if its answers look more like random guessing than genuine inference, its stake gets slashed. The economic penalty for dishonest participation must exceed the expected benefit of dishonest participation. When this condition holds, rational actors choose honest verification. The mathematics of this are illustrated clearly in Mira's own analysis. With enough answer options and enough verification rounds, the probability of sustained random success drops to effectively zero. The table in the whitepaper shows that with ten answer options and ten verifications, the probability of guessing correctly by chance drops to 0.0000%. The economic calculation becomes simple: the cost of staking exceeds the expected return from random guessing, while honest participation generates consistent rewards. As the network matures, additional mechanisms strengthen security. Verification requests are randomly sharded across nodes, making coordinated manipulation more difficult. Response pattern analysis can identify nodes that show suspicious similarities in their answers, potentially indicating collusion. The accumulated verification history enables increasingly sophisticated anomaly detection. None of this is magic. It is careful economic and cryptographic design applied to a genuine infrastructure problem. The blockchain is not a solution in search of a problem here, it is the right tool for requirements that conventional infrastructure cannot meet. The result, if the design holds, is a verification system that is trustworthy not because any particular participant is trustworthy, but because the system is designed to produce reliable outcomes even when individual participants have mixed motivations. This is how good institutions work. They do not require participants to be saints. They align participants' rational self interest with the behavior the system needs them to exhibit. Building this for AI verification is one of the most important infrastructure problems in technology right now. The stakes of getting AI reliability wrong are too high, and the structural limitations of centralized verification are too severe, to leave it to any single company or consortium. Mira's approach, decentralized, economically incentivized, and cryptographically verifiable, is a serious attempt to build the infrastructure that the AI age actually requires. @mira_network #Mira $MIRA {future}(MIRAUSDT) {spot}(MIRAUSDT)

Blockchain Meets AI, This Time It's Not a Gimmick

Understanding why decentralized infrastructure is the right tool for the AI verification problem
Fair warning: this article is going to ask you to set aside whateverreaction you just had to the word "blockchain." If it was enthusiasm, hold that. If it was skepticism, hold that too. The goal here is to understand why blockchain infrastructure is specifically well suited to the AI verification problem, not because it's trendy, but because it solves genuine technical requirements that other approaches cannot.
Let's start with what the AI verification problem actually requires from its infrastructure.
First, it requires tamper-proof records. When a verifier node in the network evaluates a claim and submits a verdict, that verdict needs to be recorded in a way that cannot be altered after the fact. If records can be changed, the integrity of the entire verification system collapses. Anyone with database access could retroactively adjust verification results, and the certified "truth" of any output would be only as trustworthy as the person who controls the database.
Second, it requires transparency without centralization. Anyone should be able to inspect the verification history of any piece of content. But this transparency cannot depend on a single organization to maintain and provide access to the records. Central points of control are central points of failure and central points of manipulation.
Third, it requires economic coordination among parties who do not trust each other. Node operators in the network are independent actors. They have their own commercial interests. They need to be incentivized to verify honestly, and they need to be penalized when they do not. This requires a system that can enforce economic agreements without requiring trust between parties or relying on a central authority to adjudicate disputes.
Fourth, it requires cryptographic proof of work. The system needs to be able to verify that a node actually performed inference, actually ran a claim through an AI model, rather than submitting a random or cached response. This "proof of inference" is essential for the economic incentives to work properly.
Now look at what a blockchain provides. It is a distributed ledger where records are immutable once written, no single party can alter them. It is transparent to all participants, anyone can inspect the full history. It supports smart contracts, self-executing code that enforces economic agreements automatically, without requiring trust between parties. And it provides cryptographic infrastructure for proving computational work.
This is not a case of finding a use for blockchain technology. It is a case of the AI verification problem having genuine technical requirements that blockchain infrastructure is specifically designed to meet. The fit is unusually clean.
Compare this to the alternatives. A centralized database run by a single company meets none of the four requirements above. It can be tampered with, it is transparent only at the company's discretion, it requires trusting the company to enforce economic agreements fairly, and it cannot provide cryptographic proof of work without additional infrastructure.
A federated system run by a consortium of companies does better on centralization but introduces coordination costs and still requires trusting the consortium members to maintain integrity. History suggests that industry consortia are not reliable guardians of public interest, particularly when members have commercial stakes in the outcomes.
An open-source protocol without economic incentives addresses the centralization problem but cannot ensure participation or honest behavior without some mechanism for economic coordination. Public goods problems are well documented, systems that anyone can use but no one is specifically
incentivized to maintain, tend toward underinvestment and degradation.
The blockchain-based approach Mira uses is not the only possible technical architecture, but it is the one that addresses all four requirements simultaneously. The immutability of blockchain records ensures verification history cannot be tampered with. The distributed nature of the ledger ensures no single point of control. Smart contracts automate the enforcement of the staking and reward mechanisms without requiring trust. And the cryptographic infrastructure supports proof of-inference verification.
The specific economic design is worth understanding in more detail. Mira uses a hybrid mechanism that combines Proof of Work and Proof of Stake principles. The "work" in question is not the arbitrary cryptographic puzzle solving of Bitcoin mining, it is actual AI inference. Running a claim through an AI model and producing a meaningful evaluation is the computational work that earns rewards.
But unlike Bitcoin mining, where random guessing has essentially zero chance of success, AI verification tasks have constrained probability spaces. A binary true/false verification question gives a 50 percent chance of a correct random answer. Multiple-choice formats reduce this, but not to zero. If the network rewarded based on answers alone without any additional safeguard, random guessing could be a rational strategy.
This is where Proof of Stake comes in. Nodes must stake value to participate. If a node consistently deviates from honest consensus, if its answers look more like random guessing than genuine inference, its stake gets slashed. The economic penalty for dishonest participation must exceed the expected benefit of dishonest participation. When this condition holds, rational actors choose honest verification.
The mathematics of this are illustrated clearly in Mira's own analysis. With enough answer options and enough verification rounds, the probability of sustained random success drops to effectively zero. The table in the whitepaper shows that with ten answer options and ten verifications, the probability of guessing correctly by chance drops to 0.0000%. The economic calculation becomes simple: the cost of staking exceeds the expected return from random guessing, while honest participation generates consistent rewards.
As the network matures, additional mechanisms strengthen security. Verification requests are randomly sharded across nodes, making coordinated manipulation more difficult. Response pattern analysis can identify nodes that show suspicious similarities in their answers, potentially indicating collusion. The accumulated verification history enables increasingly sophisticated anomaly detection.
None of this is magic. It is careful economic and cryptographic design applied to a genuine infrastructure problem. The blockchain is not a solution in search of a problem here, it is the right tool for requirements that conventional infrastructure cannot meet.
The result, if the design holds, is a verification system that is trustworthy not because any particular participant is trustworthy, but because the system is designed to produce reliable outcomes even when individual participants have mixed motivations. This is how good institutions work. They do not require participants to be saints. They align participants' rational self interest with the behavior the system needs them to exhibit.
Building this for AI verification is one of the most important infrastructure problems in technology right now. The stakes of getting AI reliability wrong are too high, and the structural limitations of centralized verification are too severe, to leave it to any single company or consortium. Mira's approach, decentralized, economically incentivized, and cryptographically verifiable, is a serious attempt to build the infrastructure that the AI age actually requires.
@Mira - Trust Layer of AI #Mira $MIRA
$CHZ /USDT silny odbicie + wolumen na zielonej świecy, odzyskując wsparcie MA99 po spadkowym trendzie, cena popycha w kierunku klastra MA7/MA25. Strefa wejścia: 0.0360 – 0.0368 Cele: TP1 0.0380 | TP2 0.0400 | TP3 0.0425 Zlecenie Stop Loss: 0.0350 {future}(CHZUSDT) {spot}(CHZUSDT)
$CHZ /USDT silny odbicie + wolumen na zielonej świecy, odzyskując wsparcie MA99 po spadkowym trendzie, cena popycha w kierunku klastra MA7/MA25.
Strefa wejścia: 0.0360 – 0.0368
Cele: TP1 0.0380 | TP2 0.0400 | TP3 0.0425
Zlecenie Stop Loss: 0.0350
$AIXBT silny byczy kontynuacja, przebijając wyżej przy dużym wzroście wolumenu, teraz dobrze powyżej wszystkich MA z ceną rozszerzającą rajd.Strefa wejścia: 0.0255 – 0.0260 Cele: TP1 0.0275 | TP2 0.0290 | TP3 0.0310 Zlecenie Stop Loss: 0.0245 {future}(AIXBTUSDT) {spot}(AIXBTUSDT)
$AIXBT silny byczy kontynuacja, przebijając wyżej przy dużym wzroście wolumenu, teraz dobrze powyżej wszystkich MA z ceną rozszerzającą rajd.Strefa wejścia: 0.0255 – 0.0260
Cele: TP1 0.0275 | TP2 0.0290 | TP3 0.0310
Zlecenie Stop Loss: 0.0245
$AAVE spadek trendu, cena odbija się od wsparcia MA99 ~110-118 po odrzuceniu w klastrze MA7/MA25, wolumen stabilny na zielonych świecach. Strefa wejścia: 108.50 – 110.50 Cele: TP1 115 | TP2 120 | TP3 128 Zlecenie stop loss: 106.00 {future}(AAVEUSDT) {spot}(AAVEUSDT)
$AAVE spadek trendu, cena odbija się od wsparcia MA99 ~110-118 po odrzuceniu w klastrze MA7/MA25, wolumen stabilny na zielonych świecach.
Strefa wejścia: 108.50 – 110.50
Cele: TP1 115 | TP2 120 | TP3 128
Zlecenie stop loss: 106.00
$NEAR silny trend wzrostowy utrzymany, paraboliczna hossa przy rosnącym wolumenie, teraz lekko się cofa po odrzuceniu w pobliżu 1.41, dobrze utrzymując się powyżej wszystkich MA. Strefa wejścia: 1.36 – 1.39 Cele: TP1 1.45 | TP2 1.55 | TP3 1.65 Zlecenie stop loss: 1.32 {future}(NEARUSDT) {spot}(NEARUSDT)
$NEAR silny trend wzrostowy utrzymany, paraboliczna hossa przy rosnącym wolumenie, teraz lekko się cofa po odrzuceniu w pobliżu 1.41, dobrze utrzymując się powyżej wszystkich MA.
Strefa wejścia: 1.36 – 1.39
Cele: TP1 1.45 | TP2 1.55 | TP3 1.65
Zlecenie stop loss: 1.32
$LTC silna zielona świeca + skok wolumenu, odbijająca się od wsparcia MA99 z ceną odzyskującą powyżej klastra MA7/MA25, momentum przesuwa się w górę. Strefa wejścia: 54.00 – 54.60 Cele: TP1 56.00 | TP2 57.50 | TP3 59.50 Zlecenie Stop Loss: 53.00 {future}(LTCUSDT) {spot}(LTCUSDT)
$LTC silna zielona świeca + skok wolumenu, odbijająca się od wsparcia MA99 z ceną odzyskującą powyżej klastra MA7/MA25, momentum przesuwa się w górę.
Strefa wejścia: 54.00 – 54.60
Cele: TP1 56.00 | TP2 57.50 | TP3 59.50
Zlecenie Stop Loss: 53.00
$PAXG /USDT cofa się po szczycie rajdu, teraz testując wsparcie MA99 w pobliżu 5,150-5,160 z MA7/MA25 nad głową, wolumen stabilny w trakcie spadku. Strefa Wejścia: 5,100 – 5,140 Cele: TP1 5,250 | TP2 5,350 | TP3 5,500 Zlecenie Stop Loss: 5,050 {future}(PAXGUSDT) {spot}(PAXGUSDT)
$PAXG /USDT cofa się po szczycie rajdu, teraz testując wsparcie MA99 w pobliżu 5,150-5,160 z MA7/MA25 nad głową, wolumen stabilny w trakcie spadku.
Strefa Wejścia: 5,100 – 5,140
Cele: TP1 5,250 | TP2 5,350 | TP3 5,500
Zlecenie Stop Loss: 5,050
$ADA silna zielona świeca + wzrost wolumenu, mocne odbicie od wsparcia MA99 z ceną odzyskującą poziomy powyżej ostatnich minimów w kierunku MA7/MA25. Strefa wejścia: 0.265 – 0.270 Cele: TP1 0.280 | TP2 0.290 | TP3 0.305 Zlecenie Stop Loss: 0.258 {spot}(ADAUSDT) {future}(ADAUSDT)
$ADA silna zielona świeca + wzrost wolumenu, mocne odbicie od wsparcia MA99 z ceną odzyskującą poziomy powyżej ostatnich minimów w kierunku MA7/MA25.
Strefa wejścia: 0.265 – 0.270
Cele: TP1 0.280 | TP2 0.290 | TP3 0.305
Zlecenie Stop Loss: 0.258
$KITE cofnięcie po szczycie rajdu, teraz testowanie strefy wsparcia MA99/MA25 ~0.224-0.240 z silnym wolumenem na najnowszej zielonej świecy. Strefa Wejścia: 0.222 – 0.227 Cele: TP1 0.235 | TP2 0.245 | TP3 0.260 Stop Loss: 0.215 {future}(KITEUSDT) {spot}(KITEUSDT)
$KITE cofnięcie po szczycie rajdu, teraz testowanie strefy wsparcia MA99/MA25 ~0.224-0.240 z silnym wolumenem na najnowszej zielonej świecy.
Strefa Wejścia: 0.222 – 0.227
Cele: TP1 0.235 | TP2 0.245 | TP3 0.260
Stop Loss: 0.215
$BNB cofanie się po pompie, teraz testowanie wsparcia MA99/MA25 w okolicach 629-632 z MA7 nad głową, wolumen stabilny podczas konsolidacji. Strefa wejścia: 630 – 633 Cele: TP1 640 | TP2 650 | TP3 665 Zlecenie stop loss: 625 {future}(BNBUSDT) {spot}(BNBUSDT)
$BNB cofanie się po pompie, teraz testowanie wsparcia MA99/MA25 w okolicach 629-632 z MA7 nad głową, wolumen stabilny podczas konsolidacji.
Strefa wejścia: 630 – 633
Cele: TP1 640 | TP2 650 | TP3 665
Zlecenie stop loss: 625
$SOL stabilne odbicie po spadku, cena powyżej MA99/MA25 z MA7 prowadzącą, wolumen stabilny na zielonych świecach.Strefa wejścia: 84.50 – 85.20 Cele: TP1 86.50 | TP2 88.00 | TP3 90.00 Zlecenie stop loss: 83.80 {spot}(SOLUSDT) {future}(SOLUSDT)
$SOL stabilne odbicie po spadku, cena powyżej MA99/MA25 z MA7 prowadzącą, wolumen stabilny na zielonych świecach.Strefa wejścia: 84.50 – 85.20
Cele: TP1 86.50 | TP2 88.00 | TP3 90.00
Zlecenie stop loss: 83.80
$ETH dryfowanie na boki w wąskim zakresie, cena blisko klastera MA99/MA25 wokół 1,960-1,963 po odrzuceniu wyżej, wolumen umiarkowany podczas konsolidacji.Strefa wejścia: 1,950 – 1,970 Cele: TP1 2,000 | TP2 2,040 | TP3 2,100 Zlecenie Stop Loss: 1,930 {future}(ETHUSDT) {spot}(ETHUSDT)
$ETH dryfowanie na boki w wąskim zakresie, cena blisko klastera MA99/MA25 wokół 1,960-1,963 po odrzuceniu wyżej, wolumen umiarkowany podczas konsolidacji.Strefa wejścia: 1,950 – 1,970
Cele: TP1 2,000 | TP2 2,040 | TP3 2,100
Zlecenie Stop Loss: 1,930
$BTC /USDT stabilizuje się w przedziale po spadku, cena odbija się od strefy 66k-67k w pobliżu klastra MA99/MA25, wolumen niski, ale formują się zielone świece. Strefa wejścia: 66,800 – 67,400 Cele: TP1 68,500 | TP2 70,000 | TP3 72,000 Zlecenie stop loss: 65,800 {future}(BTCUSDT) {spot}(BTCUSDT)
$BTC /USDT stabilizuje się w przedziale po spadku, cena odbija się od strefy 66k-67k w pobliżu klastra MA99/MA25, wolumen niski, ale formują się zielone świece.
Strefa wejścia: 66,800 – 67,400
Cele: TP1 68,500 | TP2 70,000 | TP3 72,000
Zlecenie stop loss: 65,800
$DOT /USDT silny rajd na wzroście wolumenu, teraz cofa się do klastra MA7/MA25 po osiągnięciu oporu, nadal powyżej MA99 z byczym układem. Strefa wejścia: 1.48 – 1.50 Cele: TP1 1.55 | TP2 1.62 | TP3 1.70 Zlecenie Stop Loss: 1.44 {future}(DOTUSDT) {spot}(DOTUSDT)
$DOT /USDT silny rajd na wzroście wolumenu, teraz cofa się do klastra MA7/MA25 po osiągnięciu oporu, nadal powyżej MA99 z byczym układem.
Strefa wejścia: 1.48 – 1.50
Cele: TP1 1.55 | TP2 1.62 | TP3 1.70
Zlecenie Stop Loss: 1.44
$XRP opadając w zakresie, testując wsparcie MA99 blisko 1.34-1.35 po odrzuceniu na MA25, wolumen stabilny, ale nie ma jeszcze silnych kupujących. Strefa wejścia: 1.34 – 1.36 Cele: TP1 1.39 | TP2 1.42 | TP3 1.47 Zlecenie Stop Loss: 1.31 {future}(XRPUSDT) {spot}(XRPUSDT)
$XRP opadając w zakresie, testując wsparcie MA99 blisko 1.34-1.35 po odrzuceniu na MA25, wolumen stabilny, ale nie ma jeszcze silnych kupujących.
Strefa wejścia: 1.34 – 1.36
Cele: TP1 1.39 | TP2 1.42 | TP3 1.47
Zlecenie Stop Loss: 1.31
$DASH drifting lower in consolidation, hugging MA99/MA25 support around 32.9-33.0 after failed rallies, volume steady but no conviction. Strefa wejścia: 32.70 – 33.10 Cele: TP1 34.00 | TP2 35.20 | TP3 36.80 Stop Loss: 32.00 {future}(DASHUSDT) {spot}(DASHUSDT)
$DASH drifting lower in consolidation, hugging MA99/MA25 support around 32.9-33.0 after failed rallies, volume steady but no conviction.
Strefa wejścia: 32.70 – 33.10
Cele: TP1 34.00 | TP2 35.20 | TP3 36.80
Stop Loss: 32.00
$AR pokazuje wczesne oznaki odbicia po głębokim cofnięciu, ostatni wzrost wolumenu na zielonej świecy przesuwającej się od minimów w kierunku klastra MA25/MA7.Strefa wejścia: 1.60 – 1.63 Cele: TP1 1.68 | TP2 1.75 | TP3 1.85 Stop Loss: 1.56 {spot}(ARUSDT) {future}(ARUSDT)
$AR pokazuje wczesne oznaki odbicia po głębokim cofnięciu, ostatni wzrost wolumenu na zielonej świecy przesuwającej się od minimów w kierunku klastra MA25/MA7.Strefa wejścia: 1.60 – 1.63
Cele: TP1 1.68 | TP2 1.75 | TP3 1.85
Stop Loss: 1.56
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