Mimi Alpha
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Mimi Alpha
impossible to possible journey
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🔥 $EDGE is moving fast!
EDGE is sitting around $0.5151, up 34.84% in 24h. The chart has pushed above the upper Bollinger Band, while volume has also picked up strongly.
The big question now is simple: is this rally just getting started or ready for a pullback?
$BR
$USELESS
What’s your call for EDGE?
EDGE is sitting around $0.5151, up 34.84% in 24h. The chart has pushed above the upper Bollinger Band, while volume has also picked up strongly.
The big question now is simple: is this rally just getting started or ready for a pullback?
$BR
$USELESS
What’s your call for EDGE?
🚀 $0.55+
🔥 $0.60+
📈 $0.70+
📉 Pullback first
19 hr(s) left
MrStar
·
--
I'm going to stop talking now and let the #power of this community speak for itself.
$MAGMA
I really hope you can feel the hard work, dedication and passion in this video. Enjoy!
$FF
WELCOME TO #StarLineTeam ! Lets grow together 🚀
$MAGMA
I really hope you can feel the hard work, dedication and passion in this video. Enjoy!
$FF
WELCOME TO #StarLineTeam ! Lets grow together 🚀
Breakout
83%
Pullback
17%
6 votes • Voting closed
Hey guys today I found something interesting about BLS signatures in Dusk consensus.
Validators need to sign messages to show their agreement. If every signature had to be handled separately then the proof of agreement could become larger as more validators take part.
Dusk uses BLS signatures to combine multiple signatures into a compact representation. This helps keep the proof of collective agreement smaller instead of carrying every signature separately.
What caught my attention is that this is not just about cryptography. It also affects how efficiently Dusk can communicate validator agreement during consensus.
There is a tradeoff too. BLS aggregation adds more cryptographic complexity so the implementation and verification have to work correctly.
After reading about Dusk consensus I found this small detail much more interesting than it first looked.
Do you think compact signatures are worth the extra cryptographic complexity?
#dusk @Dusk
$DUSK
#DuskToTheMoon
$BTR
$TAC
Validators need to sign messages to show their agreement. If every signature had to be handled separately then the proof of agreement could become larger as more validators take part.
Dusk uses BLS signatures to combine multiple signatures into a compact representation. This helps keep the proof of collective agreement smaller instead of carrying every signature separately.
What caught my attention is that this is not just about cryptography. It also affects how efficiently Dusk can communicate validator agreement during consensus.
There is a tradeoff too. BLS aggregation adds more cryptographic complexity so the implementation and verification have to work correctly.
After reading about Dusk consensus I found this small detail much more interesting than it first looked.
Do you think compact signatures are worth the extra cryptographic complexity?
#dusk @Dusk
$DUSK
#DuskToTheMoon
$BTR
$TAC
I used to think tokenization was mainly about putting an asset on a blockchain.
The more I looked into @Dusk the more I realized the bigger change is coordination.
A token can represent ownership and simplify transfers. Dusk connects eligibility rules controlled transfers and settlement around the same workflow.
But a blockchain does not replace securities law or the people responsible for custody administration venues and legal processes.
That tradeoff makes this more interesting to me. The goal is not to pretend traditional infrastructure disappears. It is to reduce fragmented handoffs where possible.
So the better question is not “can tokenization replace finance?”
It is “which parts of financial infrastructure become easier to coordinate when ownership and settlement share the same system?”
What matters most for real-world tokenization?
#dusk $DUSK
@Dusk $ONG
$PROM
The more I looked into @Dusk the more I realized the bigger change is coordination.
A token can represent ownership and simplify transfers. Dusk connects eligibility rules controlled transfers and settlement around the same workflow.
But a blockchain does not replace securities law or the people responsible for custody administration venues and legal processes.
That tradeoff makes this more interesting to me. The goal is not to pretend traditional infrastructure disappears. It is to reduce fragmented handoffs where possible.
So the better question is not “can tokenization replace finance?”
It is “which parts of financial infrastructure become easier to coordinate when ownership and settlement share the same system?”
What matters most for real-world tokenization?
#dusk $DUSK
@Dusk $ONG
$PROM
Compliance
0%
Faster settlement
0%
Easier ownership
33%
All of these
67%
3 votes • Voting closed
Sometime ago I assumed that once an asset is tokenized, holding it becomes as simple as owning any other token, just send it to a wallet and you're done. Then I read into how Dusk approaches regulated assets and realized that assumption breaks down fast once compliance enters the picture. A regulated security cannot just sit in any wallet that requests it, the same way a bank cannot open an account for someone without checking who they are first.
Dusk handles this by layering access control across multiple points instead of relying on one gate. Identity credentials establish who a participant actually is without exposing unnecessary personal data on chain, wallet binding ties that verified identity to a specific address so the credential cannot be casually passed around, and smart contracts enforce the actual rule at the moment of transfer, checking eligibility before the transaction is allowed to settle. Application-level checks add another layer on top, letting issuers apply their own specific conditions depending on jurisdiction or asset type. What stood out to me is that this isn't one mechanism doing all the work, it's several independent checks that each have to pass, and that redundancy is useful for compliance but also means more moving parts that can fail or create friction for legitimate holders if not implemented carefully.
This made me see tokenized regulated assets differently, the hard part was never issuing the token, it's maintaining who is allowed to keep holding it over time as circumstances change. Understanding how Dusk structures this layered approach made the eligibility question feel less like a one time check and more like an ongoing process.
@Dusk $DUSK #dusk
When a holder's eligibility changes after issuance, how should enforcement work?
Dusk handles this by layering access control across multiple points instead of relying on one gate. Identity credentials establish who a participant actually is without exposing unnecessary personal data on chain, wallet binding ties that verified identity to a specific address so the credential cannot be casually passed around, and smart contracts enforce the actual rule at the moment of transfer, checking eligibility before the transaction is allowed to settle. Application-level checks add another layer on top, letting issuers apply their own specific conditions depending on jurisdiction or asset type. What stood out to me is that this isn't one mechanism doing all the work, it's several independent checks that each have to pass, and that redundancy is useful for compliance but also means more moving parts that can fail or create friction for legitimate holders if not implemented carefully.
This made me see tokenized regulated assets differently, the hard part was never issuing the token, it's maintaining who is allowed to keep holding it over time as circumstances change. Understanding how Dusk structures this layered approach made the eligibility question feel less like a one time check and more like an ongoing process.
@Dusk $DUSK #dusk
When a holder's eligibility changes after issuance, how should enforcement work?
Next transfer only
50%
Retroactive now
0%
Depends on asset
50%
Issuer decides
0%
2 votes • Voting closed
#dusk $DUSK @Dusk Yesterday I tried sending money to a friend, but his account had gotten flagged for KYC. The bank stopped it right there, the transaction never even went through. That stuck with me, this kind of check should happen before, not after.
@Dusk applies the same thinking to regulated asset transfers. A normal crypto transfer just needs balance and gas, and it goes through. But for a regulated asset, Dusk checks first whether the receiving wallet is even eligible.
During investor onboarding, wallets get bound to verified credentials, and eligibility rules get defined when the asset is issued. So when a transfer is submitted, the system checks it against those rules first. If the counterparty isn't eligible, the transfer simply doesn't execute. Nothing to reverse, nothing to freeze later.
This matters a lot in regulated finance. If an invalid transfer actually settles, it's not just a glitch, it becomes a compliance violation that has to be unwound afterward, sometimes with a regulator involved. Blocking it before submission avoids that entirely. This is exactly the kind of problem #Dusk. was built to solve at the protocol level.
What I hadn't thought about before is how much upkeep this needs. Investor status, jurisdiction, credentials, none of that stays fixed. If that data goes stale, a genuine investor could end up blocked too.
It changed how I see compliance here, less like paperwork attached afterward, more like a condition that has to be met before the transfer can even happen.
Who ends up responsible for keeping these eligibility rules updated, and how does that avoid becoming a bottleneck of its own?
Who should update eligibility rules?
@Dusk #Dusk/usdt✅
$TUT
$PORTAL
@Dusk applies the same thinking to regulated asset transfers. A normal crypto transfer just needs balance and gas, and it goes through. But for a regulated asset, Dusk checks first whether the receiving wallet is even eligible.
During investor onboarding, wallets get bound to verified credentials, and eligibility rules get defined when the asset is issued. So when a transfer is submitted, the system checks it against those rules first. If the counterparty isn't eligible, the transfer simply doesn't execute. Nothing to reverse, nothing to freeze later.
This matters a lot in regulated finance. If an invalid transfer actually settles, it's not just a glitch, it becomes a compliance violation that has to be unwound afterward, sometimes with a regulator involved. Blocking it before submission avoids that entirely. This is exactly the kind of problem #Dusk. was built to solve at the protocol level.
What I hadn't thought about before is how much upkeep this needs. Investor status, jurisdiction, credentials, none of that stays fixed. If that data goes stale, a genuine investor could end up blocked too.
It changed how I see compliance here, less like paperwork attached afterward, more like a condition that has to be met before the transfer can even happen.
Who ends up responsible for keeping these eligibility rules updated, and how does that avoid becoming a bottleneck of its own?
Who should update eligibility rules?
@Dusk #Dusk/usdt✅
$TUT
$PORTAL
Issuer
60%
Compliance provider
0%
Regulator
20%
On-chain automation
20%
5 votes • Voting closed
#dusk $DUSK @Dusk Last night I was reading through Dusk's material on tokenization and native issuance and one thing really caught my attention.
They are not the same thing.
Tokenization can put an asset on chain without making the token the actual source of truth. The underlying asset can still depend on an off chain register.
I kept thinking about it like this:
If you scan a paper contract into a PDF the PDF is easier to send around. But the original contract is still somewhere else.
That is where the RWA settlement problem gets interesting.
With tokenization the on chain asset still needs to stay aligned with the underlying off chain record. That means another system still matters when ownership or settlement changes. This is the exact gap @Dusk keeps pointing back to.
Native issuance takes a different approach.
The asset is created as an on chain instrument from the start. That can reduce the need to keep a separate token representation synchronized with an off chain asset.
This is what I find interesting about #Dusk.
It is not just about putting existing assets on a blockchain. It is about making the on chain environment part of where the asset is actually issued and settled.
The harder part is obvious though.
Native issuance has to deal with legal structures custody and compliance in a way that works for assets that are native to an on chain system.
Maybe that is also why tokenized wrappers remain the easier route for many projects.
So when I look at an RWA project now I would ask one question first:
@Dusk #dusk
$TRUMP
$BEAT
these 2coins booom fire 🔥
Where does the real asset actually live?
They are not the same thing.
Tokenization can put an asset on chain without making the token the actual source of truth. The underlying asset can still depend on an off chain register.
I kept thinking about it like this:
If you scan a paper contract into a PDF the PDF is easier to send around. But the original contract is still somewhere else.
That is where the RWA settlement problem gets interesting.
With tokenization the on chain asset still needs to stay aligned with the underlying off chain record. That means another system still matters when ownership or settlement changes. This is the exact gap @Dusk keeps pointing back to.
Native issuance takes a different approach.
The asset is created as an on chain instrument from the start. That can reduce the need to keep a separate token representation synchronized with an off chain asset.
This is what I find interesting about #Dusk.
It is not just about putting existing assets on a blockchain. It is about making the on chain environment part of where the asset is actually issued and settled.
The harder part is obvious though.
Native issuance has to deal with legal structures custody and compliance in a way that works for assets that are native to an on chain system.
Maybe that is also why tokenized wrappers remain the easier route for many projects.
So when I look at an RWA project now I would ask one question first:
@Dusk #dusk
$TRUMP
$BEAT
these 2coins booom fire 🔥
Where does the real asset actually live?
Native issuance
50%
Tokenized wrapper
17%
Depends on the asset
17%
Never thought about it
16%
6 votes • Voting closed
Looking at the gainers list today feels like the market decided to hand out green candles for free 😂
$GALA +34.95%
$BCH +31.68%
$ROBO +30.02%
$PROM +28.81%
$TUT +28.37%
And I’m just staring at the screen like:
“Do I enter now… or is the market about to use me as exit liquidity?” 💀
Watching +30% moves is easy. Not chasing them is the hard part.
Which one looks the riskiest right now?
$GALA +34.95%
$BCH +31.68%
$ROBO +30.02%
$PROM +28.81%
$TUT +28.37%
And I’m just staring at the screen like:
“Do I enter now… or is the market about to use me as exit liquidity?” 💀
Watching +30% moves is easy. Not chasing them is the hard part.
Which one looks the riskiest right now?
$GALA
56%
$BCH
14%
$ROBO
19%
$PROM
11%
36 votes • Voting closed
@TermMax Sometime ago, I thought TermMax's three-token setup was just a way to split yield into tradeable pieces, a UX layer on lending. I didn't look closely at the math holding FT and XT together.
Then one line in TermMax's design stuck with me: 1 FT + 1 XT always equals exactly 1 debt token, at any point before maturity. Not roughly. Always. That's when I realized it isn't a packaging choice, it's what makes the whole system work without extra scaffolding.
I thought of it like splitting a bill with a friend. If the total is fixed, whatever I don't pay, my friend covers. FT holds the principal-plus-fixed-return claim, XT holds the remaining interest exposure, and together they can never be worth more or less than the underlying debt token. If one side moves, the other moves opposite to keep the equation balanced.
What changed my view was what this removes. Because the relationship is fixed by design, not by market behavior, TermMax doesn't need an oracle or peg mechanism to keep FT and XT priced correctly against each other. The AMM curve prices one leg, the other is implied. Most yield-splitting designs I've seen lean on external price feeds or arbitrage for that. This one doesn't.
But it's not bulletproof. In low liquidity or sharp rate swings, the traded spread can drift from the "fair" 1:1 relationship, since arbitrageurs close that gap, not a contract. And at maturity symmetry ends entirely. FT converts to full value, XT drops to zero. XT was never a stable "half," it's a decaying interest claim.
That's what reframed things for me. Tokenization stopped feeling like just "assets on-chain" and started looking like a way to encode relationships that used to need external enforcement.
@TermMax #TermMax #termmax
Design-level FT + XT parity instead of an oracle feels like...
Then one line in TermMax's design stuck with me: 1 FT + 1 XT always equals exactly 1 debt token, at any point before maturity. Not roughly. Always. That's when I realized it isn't a packaging choice, it's what makes the whole system work without extra scaffolding.
I thought of it like splitting a bill with a friend. If the total is fixed, whatever I don't pay, my friend covers. FT holds the principal-plus-fixed-return claim, XT holds the remaining interest exposure, and together they can never be worth more or less than the underlying debt token. If one side moves, the other moves opposite to keep the equation balanced.
What changed my view was what this removes. Because the relationship is fixed by design, not by market behavior, TermMax doesn't need an oracle or peg mechanism to keep FT and XT priced correctly against each other. The AMM curve prices one leg, the other is implied. Most yield-splitting designs I've seen lean on external price feeds or arbitrage for that. This one doesn't.
But it's not bulletproof. In low liquidity or sharp rate swings, the traded spread can drift from the "fair" 1:1 relationship, since arbitrageurs close that gap, not a contract. And at maturity symmetry ends entirely. FT converts to full value, XT drops to zero. XT was never a stable "half," it's a decaying interest claim.
That's what reframed things for me. Tokenization stopped feeling like just "assets on-chain" and started looking like a way to encode relationships that used to need external enforcement.
@TermMax #TermMax #termmax
Design-level FT + XT parity instead of an oracle feels like...
Stronger guarantee
56%
Risk hidden elsewhere
0%
Depends on conditions
22%
New perspective
22%
9 votes • Voting closed
Verified
#dusk $DUSK @Dusk I’ve been looking at Dusk a little differently lately. Instead of just watching the token and staking numbers, I started looking at what’s actually being built around the network.
Sozu is making staking easier without users needing to run their own infrastructure. Pieswap is bringing swaps and liquidity to DuskEVM. Dusk Domains adds a native .dusk naming layer for wallets, contracts, and apps.
None of these alone changes everything overnight, but together they make the ecosystem more interesting. Staking, DeFi, naming, wallets and network tools are starting to fill different parts of the stack.
Now I’m more curious about what happens when these pieces actually start connecting and users move between them.
Which one do you think could become the biggest part of Dusk’s ecosystem?
@Dusk #dusk $DUSK #Dusk
Sozu is making staking easier without users needing to run their own infrastructure. Pieswap is bringing swaps and liquidity to DuskEVM. Dusk Domains adds a native .dusk naming layer for wallets, contracts, and apps.
None of these alone changes everything overnight, but together they make the ecosystem more interesting. Staking, DeFi, naming, wallets and network tools are starting to fill different parts of the stack.
Now I’m more curious about what happens when these pieces actually start connecting and users move between them.
Which one do you think could become the biggest part of Dusk’s ecosystem?
@Dusk #dusk $DUSK #Dusk
Sozu
30%
Pieswap
20%
Dusk Domains
10%
All of them
40%
10 votes • Voting closed
Verified
The more I look at @Dusk ’s cryptographic stack, the more interesting the primitives underneath it become.
At first I thought Dusk’s privacy was mostly about zero knowledge proofs.
But then I looked at what actually sits underneath.
BLS12-381 is a pairing-friendly elliptic curve used in modern proof systems. In Dusk it appears as part of the zero-knowledge and signature stack.
Then there’s JubJub, an elliptic curve that is efficient in SNARK-friendly settings and commonly used in privacy-preserving designs.
Schnorr signatures are used for authentication and integrity, giving Dusk a foundation for signing and verifying protocol actions.
Poseidon is another piece that caught my attention.
It’s designed to be efficient inside zero-knowledge circuits and can be used for commitments and Merkle tree hashing.
$Dusk also has dusk-merkle, a sparse Merkle tree implementation that enables efficient membership proofs over large datasets.
And then there’s PLONK.
PLONK is the proving system used to build zero-knowledge proofs. Developers can define reusable circuits and generate succinct proofs that can be verified on-chain.
So it’s not really just “Dusk uses ZK.”
There are elliptic curves, signatures, hashing, Merkle trees and the proving system all working as different parts of the stack.
I think that’s the more interesting part to look at.
Not just the privacy feature itself, but what is actually making that privacy possible underneath.
#DUSK #dusk @Dusk $DUSK
At first I thought Dusk’s privacy was mostly about zero knowledge proofs.
But then I looked at what actually sits underneath.
BLS12-381 is a pairing-friendly elliptic curve used in modern proof systems. In Dusk it appears as part of the zero-knowledge and signature stack.
Then there’s JubJub, an elliptic curve that is efficient in SNARK-friendly settings and commonly used in privacy-preserving designs.
Schnorr signatures are used for authentication and integrity, giving Dusk a foundation for signing and verifying protocol actions.
Poseidon is another piece that caught my attention.
It’s designed to be efficient inside zero-knowledge circuits and can be used for commitments and Merkle tree hashing.
$Dusk also has dusk-merkle, a sparse Merkle tree implementation that enables efficient membership proofs over large datasets.
And then there’s PLONK.
PLONK is the proving system used to build zero-knowledge proofs. Developers can define reusable circuits and generate succinct proofs that can be verified on-chain.
So it’s not really just “Dusk uses ZK.”
There are elliptic curves, signatures, hashing, Merkle trees and the proving system all working as different parts of the stack.
I think that’s the more interesting part to look at.
Not just the privacy feature itself, but what is actually making that privacy possible underneath.
#DUSK #dusk @Dusk $DUSK
Something is definitely happening with these 3… 👀🔥
$RICE , $BTW and $HEMI are all making some serious moves today.
#RICE is leading the charge 📈
#BTW is pushing hard 🚀
#HEMI is also catching strong momentum
But now comes the real question:
Which one has the strongest chance to keep pumping from here? 👀
$RICE , $BTW and $HEMI are all making some serious moves today.
#RICE is leading the charge 📈
#BTW is pushing hard 🚀
#HEMI is also catching strong momentum
But now comes the real question:
Which one has the strongest chance to keep pumping from here? 👀
$RICE
22%
$BTW
39%
$HEMI
30%
All of them dump
9%
94 votes • Voting closed
$VELVET 👀🔥
This chart is getting interesting again.
Price sitting around $0.66 after that strong move up. The volume is picking up too.
If buyers keep showing up $VELVET could have another leg ahead.
Watching this one closely 👀
#NeynarSeeksNewFarcasterOperator
This chart is getting interesting again.
Price sitting around $0.66 after that strong move up. The volume is picking up too.
If buyers keep showing up $VELVET could have another leg ahead.
Watching this one closely 👀
#NeynarSeeksNewFarcasterOperator
I’ve been looking at how wallet privacy works and honestly the more I look at it the more important the wallet structure becomes. A wallet shouldn’t have to expose everything just because you need to use a public address.
That’s where @Dusk gets interesting.
The interesting part starts with a Mnemonic based on the BIP-39 seed phrase. That becomes the wallet’s cryptographic seed and from there the same wallet can derive multiple profiles.
Each profile is built as a tuple of key pairs. Profile 1 can have its own public address and shielded address. Profile 2 can have another public address and shielded address. The same structure can continue across Profile n. $ACE
This gives the wallet a way to organize multiple profiles under the same cryptographic seed while keeping public and shielded addresses within each profile.
The real use is pretty straightforward. One profile can work with a public address while another can use a shielded address depending on what the user needs.
That’s the purpose of this design to me. It isn’t about forcing every interaction into one address type. It gives the wallet a structure where multiple profiles and different address types can exist together.
The interesting part is that this is built into the wallet architecture itself rather than being something added later.$RICE
It’s not trying to make the wallet complicated for the sake of it. The idea is simple: one cryptographic seed can support multiple profiles with public and shielded addresses.
That’s what makes Dusk’s wallet structure worth watching.
@Dusk
#dusk $DUSK
That’s where @Dusk gets interesting.
The interesting part starts with a Mnemonic based on the BIP-39 seed phrase. That becomes the wallet’s cryptographic seed and from there the same wallet can derive multiple profiles.
Each profile is built as a tuple of key pairs. Profile 1 can have its own public address and shielded address. Profile 2 can have another public address and shielded address. The same structure can continue across Profile n. $ACE
This gives the wallet a way to organize multiple profiles under the same cryptographic seed while keeping public and shielded addresses within each profile.
The real use is pretty straightforward. One profile can work with a public address while another can use a shielded address depending on what the user needs.
That’s the purpose of this design to me. It isn’t about forcing every interaction into one address type. It gives the wallet a structure where multiple profiles and different address types can exist together.
The interesting part is that this is built into the wallet architecture itself rather than being something added later.$RICE
It’s not trying to make the wallet complicated for the sake of it. The idea is simple: one cryptographic seed can support multiple profiles with public and shielded addresses.
That’s what makes Dusk’s wallet structure worth watching.
@Dusk
#dusk $DUSK
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