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ANOTHER LOOS😢
BIG LOSS TODY😓
#BNBATH and $BNB Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
#Plume $PLUME Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
#Dolomite $DOLO
Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
#BounceBitPrime $BB Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
#walletconnect $WCT Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
#Mitosis $MITO Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
#Somnia and $SOMI Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
#OpenLedger and $OPEN Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
@OpenLedger $OPEN
Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
Until now, every Bitcoin Improvement Proposal (BIP) that needed cryptographic primitives had to reinvent the wheel. Each one came bundled with its own custom Python implementation of the secp256k1 elliptic curve and related algorithms, each subtly different from one another. These inconsistencies introduced quiet liabilities and made reviewing BIPs unnecessarily complicated. This problem was recently highlighted in Bitcoin Optech Newsletter #348, and it’s something at least a handful of developers in the Bitcoin development community have long felt: there should be a unified, reusable standard for cryptographic BIP reference secp256k1 code.
Last week, Jonas Nick and Tim Ruffing of Blockstream research and Sebastian Falbesoner made big progress towards this. As part of their existing ChillDKG proposal, the team released secp256k1lab. A new, intentionally INSECURE Python library for prototyping, experimenting, and BIP specifications. It’s not for production use (because it’s not constant-time and therefore vulnerable to side-channel attacks), but it fills a critical gap: it offers a clean, consistent reference for secp256k1 functionality, including BIP-340-style Schnorr signatures, ECDH, and low-level field/group arithmetic. The goal is simple: make it easier and safer to write future BIPs by avoiding redundant, one-off implementations. For BIP authors, this means: less custom code, fewer spec issues, and a clearer path from prototype to proposal.
why not available in all region 😓😓
Binance Announcement
--
Binance Monthly Challenge: Complete September’s Challenge to Earn Your Share of 4,000,000 HUMA!
This is a general announcement and marketing communication. Products and services referred to here may not be available in your region.
Fellow Binancians,
Get ready for the Binance Monthly Challenge! Set out on a journey of simple and exciting tasks and stand a chance to share 4,000,000 HUMA in token vouchers.
Activity Period: 2025-09-01 00:00 (UTC) to 2025-09-30 23:59 (UTC)
How to Get Started
Step 1: Visit the landing page.Step 2: Click the “Do it” button next to a challenge.Step 3: Complete challenges during the Activity Period to get a corresponding number of Activity attempts. Other ways of completing a challenge shall be deemed invalid.Step 4: To make an Activity attempt, click “GO” on the landing page. The cursor will rotate and settle on a square that represents the outcome of the attempt.
Possible Rewards from Each Activity Attempt
20 HUMA50 HUMA100 HUMA200 HUMA500 HUMA600 HUMA800 HUMAHUMA Pool Token – Collect more to unlock your proportional share of 1M in HUMA token vouchers!
Note:
All rewards will be distributed instantly, except for the HUMA Pool Token reward, which will be distributed within 2 weeks after activity ends.For the HUMA Pool Token reward category, users can receive a maximum of 1,000 HUMA in token vouchers.
How to Get More Attempts
Complete the tasks below to unlock more Activity attempts:
Premium Tasks
Successfully refer one friend to sign up for a Binance account, complete KYC, and deposit at least $50 equivalent via Fiat Deposit or the “Buy Crypto” function to unlock five Activity attempts.Trade a total of at least $500 equivalent (buys and/or sells) on any HUMA trading pairs to unlock two Activity attempts.Trade a total of at least $500 equivalent (buys and/or sells) on any HUMA USDⓈ-Margined trading pairs in Binance Futures to unlock two Activity attempts.
Basic Tasks
Trade a total of at least $500 equivalent (buys and/or sells) on any spot trading pairs to unlock one Activity attempt.Buy a total of at least $100 equivalent with a supported Card to unlock one Activity attempt.Deposit a total of at least 100 USDC via P2P to unlock one Activity attempt.
Notes:
Basic tasks can only be completed once a week by each participant during the Activity Period.Premium tasks can be completed once a day by each participant during the Activity Period.
Complete Challenge Now!
Terms & Conditions
Only verified users are eligible to participate in the Activity.To participate in the Activity, users must click the “Do it” button next to the corresponding task first. After that, users may complete the task at any time during the Activity Period to get Activity attempts. Other ways of completing a challenge shall be deemed invalid.All token voucher rewards will be distributed within two weeks after the Activity ends.All token voucher rewards will expire within 21 days after distribution. Eligible users should claim their vouchers before the expiration date, and no replacement reward will be provided. Learn how to redeem a Binance voucher.Please note that the actual value of rewards received by a user is subject to change due to market fluctuation.Token voucher rewards are subject to additional terms and conditions.Rewards are not negotiable nor transferable.Non-Binance users may click here to register for a Binance account and get a 10% spot trading fee discount. The 10% spot trading fee discount will remain valid as long as the Binance referral program is in place. Binance reserves the right to disqualify any participants who tamper with Binance program code, or interfere with the operation of Binance program code with other software.Sub-account’s trading volume will not be combined with the master account’s standard trading volume in the final calculation. Each sub-account will not be viewed as an independent account when participating in this Activity.Binance reserves the right to disqualify trades that are deemed to be wash trades or illegally bulk account registrations, as well as trades that display attributes of self-dealing or market manipulation.Binance reserves the right to modify, suspend, or cancel the Promotion at any time without prior notice.Binance also reserves the right to update the list of eligible countries or regions for the Promotion at any time. Users who were previously eligible to participate may no longer qualify to join or receive rewards under the updated terms.Furthermore, Binance retains the sole and absolute discretion to determine, amend, or vary these Activity Terms at any time without prior notice. This includes, but is not limited to, the right to cancel, extend, terminate, or suspend the Activity; modify eligibility criteria; adjust the selection process and number of winners; and change the timing of any related actions. All participants agree to be bound by such amendments.Additional promotion terms and conditions can be accessed here.There may be discrepancies between this original content in English and any translated versions. Please refer to the original English version for the most accurate information, in case any discrepancies arise.
Thank you for your support!
Binance Team
2025-09-01
USDC is an e-money token issued by Circle Internet Financial Europe SAS (https://www.circle.com/). USDC’s whitepaper is available here. You may contact Circle using the following contact information: +33(1)59000130 and [email protected].
Holders of USDC have a legal claim against Circle SAS as the EU issuer of USDC. These holders are entitled to request redemption of their USDC from Circle SAS. Such redemption will be made at any time and at par value.
Fellow Binancians,
Get ready for the Binance Monthly Challenge! Set out on a journey of simple and exciting tasks and stand a chance to share 4,000,000 HUMA in token vouchers.
Activity Period: 2025-09-01 00:00 (UTC) to 2025-09-30 23:59 (UTC)
How to Get Started
Step 1: Visit the landing page.Step 2: Click the “Do it” button next to a challenge.Step 3: Complete challenges during the Activity Period to get a corresponding number of Activity attempts. Other ways of completing a challenge shall be deemed invalid.Step 4: To make an Activity attempt, click “GO” on the landing page. The cursor will rotate and settle on a square that represents the outcome of the attempt.
Possible Rewards from Each Activity Attempt
20 HUMA50 HUMA100 HUMA200 HUMA500 HUMA600 HUMA800 HUMAHUMA Pool Token – Collect more to unlock your proportional share of 1M in HUMA token vouchers!
Note:
All rewards will be distributed instantly, except for the HUMA Pool Token reward, which will be distributed within 2 weeks after activity ends.For the HUMA Pool Token reward category, users can receive a maximum of 1,000 HUMA in token vouchers.
How to Get More Attempts
Complete the tasks below to unlock more Activity attempts:
Premium Tasks
Successfully refer one friend to sign up for a Binance account, complete KYC, and deposit at least $50 equivalent via Fiat Deposit or the “Buy Crypto” function to unlock five Activity attempts.Trade a total of at least $500 equivalent (buys and/or sells) on any HUMA trading pairs to unlock two Activity attempts.Trade a total of at least $500 equivalent (buys and/or sells) on any HUMA USDⓈ-Margined trading pairs in Binance Futures to unlock two Activity attempts.
Basic Tasks
Trade a total of at least $500 equivalent (buys and/or sells) on any spot trading pairs to unlock one Activity attempt.Buy a total of at least $100 equivalent with a supported Card to unlock one Activity attempt.Deposit a total of at least 100 USDC via P2P to unlock one Activity attempt.
Notes:
Basic tasks can only be completed once a week by each participant during the Activity Period.Premium tasks can be completed once a day by each participant during the Activity Period.
Complete Challenge Now!
Terms & Conditions
Only verified users are eligible to participate in the Activity.To participate in the Activity, users must click the “Do it” button next to the corresponding task first. After that, users may complete the task at any time during the Activity Period to get Activity attempts. Other ways of completing a challenge shall be deemed invalid.All token voucher rewards will be distributed within two weeks after the Activity ends.All token voucher rewards will expire within 21 days after distribution. Eligible users should claim their vouchers before the expiration date, and no replacement reward will be provided. Learn how to redeem a Binance voucher.Please note that the actual value of rewards received by a user is subject to change due to market fluctuation.Token voucher rewards are subject to additional terms and conditions.Rewards are not negotiable nor transferable.Non-Binance users may click here to register for a Binance account and get a 10% spot trading fee discount. The 10% spot trading fee discount will remain valid as long as the Binance referral program is in place. Binance reserves the right to disqualify any participants who tamper with Binance program code, or interfere with the operation of Binance program code with other software.Sub-account’s trading volume will not be combined with the master account’s standard trading volume in the final calculation. Each sub-account will not be viewed as an independent account when participating in this Activity.Binance reserves the right to disqualify trades that are deemed to be wash trades or illegally bulk account registrations, as well as trades that display attributes of self-dealing or market manipulation.Binance reserves the right to modify, suspend, or cancel the Promotion at any time without prior notice.Binance also reserves the right to update the list of eligible countries or regions for the Promotion at any time. Users who were previously eligible to participate may no longer qualify to join or receive rewards under the updated terms.Furthermore, Binance retains the sole and absolute discretion to determine, amend, or vary these Activity Terms at any time without prior notice. This includes, but is not limited to, the right to cancel, extend, terminate, or suspend the Activity; modify eligibility criteria; adjust the selection process and number of winners; and change the timing of any related actions. All participants agree to be bound by such amendments.Additional promotion terms and conditions can be accessed here.There may be discrepancies between this original content in English and any translated versions. Please refer to the original English version for the most accurate information, in case any discrepancies arise.
Thank you for your support!
Binance Team
2025-09-01
USDC is an e-money token issued by Circle Internet Financial Europe SAS (https://www.circle.com/). USDC’s whitepaper is available here. You may contact Circle using the following contact information: +33(1)59000130 and [email protected].
Holders of USDC have a legal claim against Circle SAS as the EU issuer of USDC. These holders are entitled to request redemption of their USDC from Circle SAS. Such redemption will be made at any time and at par value.
AND LIGHT SPEED 🤣🤣
I get some reward from Binance❤️
Complate your first future trade And get 5$ Free😎
Are yoy complate the task??
TREE Binance glitch🤣
Whitch coin should I Buy tody????
#BinanceP2P -Buy or sell your Crypto,Stay_Alart_Stay_Safe
10$ To 200$ My journey ♥️♥️
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