#btq

Hmm, good question. I had to think about it, and still don’t have a particularly great answer. I’ve found that most of my headcanons tend to revolve around character personalities and relationship dynamics, more than situational events - so, I have a whole lot of characters jabbering in my head and nothing to do with them.

As a writer, plot and worldbuilding have always been the bane of my existence, and so, I latch on to characters, suss out their little quirks and interests, and then twiddle my thumbs because I’m bad at the other stuff. So, while I am super interested in exploring the dynamic between Rayla and Runaan, my mind blanks when I try to figure out something to actually do with them.

BTQ+ Pride Flag

[Image: a 8-striped horizontal flag; dark pink, dark lilac purple, blue, cerulean blue, light pink, white, pink, dark purple]

BTQ+: bi, trans, (gender)queer, questioning & plusic.

Can be used as a solidarity flag or personal identity, i.e. transgenderqueer biromantic, bisexual queer transgender, transexpressive queeric bigender. Note this isn’t the same as LG-exclusionism, it’s an acronym variation, also used as BTQIAP+/BTQA+. Review your conceptions if you consider offensive BTQ+ termic existence but not LG/GLOW/GLS initials.

BPQUA+ Pride Flag

[Image: a 14-striped horizontal flag; green, light green, white, light purple, purple, hot pink, dark lilac purple, dark blue, pink, yellow, light blue, grey-blue, green, light orange]

BPQUA+: bi, pan, ply, questioning, undefined, a-spectral & plusic. Often used as m-spec/a-spec (BPA+) solidarity.

ITRI and BTQ Validate QCIM Quantum Secure Chips

Strategy has brought BTQ Technologies and the Industrial Technology Research Institute (ITRI) together to develop the QCIM security chip. Since it proves hardware performance and energy efficiency in silicon, this relationship is crucial to commercial readiness. Direct memory processing of data aims to advance post-quantum cryptography systems beyond performance and power limits.

Specific technological standards are required to provide quantum-resistant infrastructure for critical businesses like finance and telecommunications. This project is coordinated with others to ensure the final product is fully integrated and ready for use. International networks should be protected from large-scale quantum computing's new threats.

Post-Quantum Security Turning Point

As the world prepares for large-scale quantum computing, quantum-resistant infrastructure is in high demand. BTQ and Industrial Technology Research Institute will test the QCIM chip's next-generation security features to combat these threats.

This validation process measures the chip's real-world performance, focusing on speed and power consumption. The teams created these benchmarks to guide safe, scalable cryptographic computing and product development.

The CIM Innovation

QCIM is an alternative to typical semiconductor architectures. As security requirements increase, typical systems move data between memory and the CPU, limiting power and performance.

To execute cryptographic activities near data storage, QCIM was established. BTQ and Industrial Technology Research Institute use “compute-in-memory” software to improve post-quantum cryptography (PQC) workload management. Expect this design change to:

Validating solutions early in the product cycle reduces development risk.

Quicken system integration engineering decisions. Industry standards for silicon-level performance and energy efficiency.

The ITRI programme

The ITRI initiative is part of BTQ's end-to-end commercialization strategy. Industrial Technology Research Institute promotes BTQ's relationship with South Korean hardware-level security pioneer ICTK while focusing on early-stage silicon validation and architectural benchmarks.

The ICTK cooperation aims to construct a fully functional, commercially deployable post-quantum chipset for downstream development. This comprises system-level integration, packaging, and mass production. ITRI helps BTQ test its core technology before ICTK implements it for mass market.

Leadership Viewpoint

BTQ Technologies CEO Olivier Roussy Newton recommended applying theory to practice. As governments and businesses prepare for the post-quantum future, security requirements are rising swiftly, but adoption requires practical, efficient, and deployable technology, Newton said.

Dr. Chih-Cheng Lu, Industrial Technology Research Institute's Electronic and Optoelectronic System Research Laboratories Manager, emphasized the research's technical significance. This study evaluates the feasibility, performance, and energy efficiency of compute-in-memory PQC workloads to address the high computational cost of post-quantum cryptography as quantum threats grow.

Future Applications and Industry Impact

Quantum-resistant infrastructure is needed in public and private sectors. The QCIM chip is developed for long-term security and energy efficiency in the following settings:

That includes mission-critical networks and secure communications.

Financial systems that need quick cryptographic processing.

Critical infrastructure and edge computing.

Telecommunications, biology, and defense. Read Infleqtion Inc.'s $6.2M ENCODE Project to Secure U.S. Energy Grid.

About Partners

One of the world's largest applied research companies, ITRI was founded in 1973. It helped create TSMC and UMC and put Taiwan on the map as an innovation-driven economy. This new project builds on a 2022 relationship with BTQ.

BTQ and ICTK sign a $15 million quantum-secure chip development deal.

BTQ, ICTK

BTQ Technologies Corp. and ICTK Co., Ltd. signed a $15 million development and cooperation investment agreement to develop the Quantum Compute in Memory (QCIM) chip. A next-generation quantum-secure secure-element semiconductor to defend vital industries from quantum threats is the goal of this alliance.

The strategic cooperation intends to accelerate the commercialisation of this crucial technology to secure defence, critical infrastructure, IoT devices, payments, mobile authentication, AI, and digital assets. The project also promotes Korea's Quantum Defence Strategy, which prioritises rapid quantum-secure technology integration into critical defence and infrastructure systems.

A participation arrangement covers BTQ's direct equity participation in ICTK, and a Development Agreement covers the QCIM chip's joint design, validation, tape-outs, and certification. In exchange, ICTK promises preferential production capacity and in-kind cost sharing. This collaboration shows a strong commitment to building a quantum ecosystem in Korea and worldwide.

Future Quantum Compute in Memory The new QCIM chip addresses quantum computing's shifting threat landscape, improving hardware-level security. Direct integration of post-quantum cryptography (PQC) and BTQ's CASH cryptographic acceleration into the silicon layer is the primary innovation.

By integrating PQC at this fundamental level, the QCIM chip provides end-to-end quantum-secure identity, signing, attestation, and secure storage for next-generation commercial and financial networks. Using crypto-agility, this unique architecture allows adaptable cryptographic upgrades without disrupting client workflows or systems. This makes the security solution future-proof and easy to add new PQC algorithms as they are developed and standardised.

BTQ CEO Olivier Roussy Newton says this places quantum-safe security at the centre of the global silicon ecosystem. He said the cooperation allows hardware makers to implement post-quantum protection at scale by integrating ICTK's secure-element expertise with BTQ's QCIM platform, driven by CASH acceleration.

Setting New Secure Hardware Performance Benchmarks Compared to secure hardware systems, the QCIM chip should perform better. Early performance goals include five times faster AES throughput than top secure hardware.

Real-time applications require the chip's ability to authenticate one million digital signatures per second. With this high output, the design uses less than 1 microjoule every cryptographic operation to conserve energy. QCIM is a resource-conscious security component for high-assurance use cases, according to these requirements.

QCIM applications include secure cold and hardware wallets for digital assets, mobile authentication, financial security, IoT endpoints, payment gateways, and defence systems. Cybersecurity threats to stablecoin and digital asset markets are the focus of the collaboration.

Partnership accelerates globalisation and commercialisation This alliance uses both companies' strengths to quickly penetrate the market. BTQ provides PQC technology and intellectual property, while ICTK provides secure element (SE) design and manufacturing expertise.

ICTK, Korea's top secure element chip maker and provider, will match its future secure element roadmap with QCIM development by providing resources, scalability, and third-party validation. ICTK has many financial and telecommunications partnerships, including LG U+.

In partnership with BTQ, ICTK CEO Jungwon Lee stated they can natively embed post-quantum security into their next-generation SE platform, ensuring clients gain supply-chain scalability, certification, and performance.

The initiative supports Korean national efforts, as shown by the Republic of Korea Air Force (ROKAF) and the Ministry of Science and ICT (MSIT) partnership to deploy quantum technology in weapon systems and secure communications.

BTQ Technology

Decentralised finance (DeFi) has reached a major milestone with BTQ Technologies' successful demonstration of the first NIST-standardized post-quantum cryptography (PQC) signature verification on the high-performance Solana blockchain. This noteworthy achievement, enabled by Bonsol Labs’ validated compute network, directly tackles the growing quantum security vulnerabilities identified by the Federal Reserve and other entities. Crucially, the invention maintains Solana's reputation for lightning-fast, sub-second transaction speeds while including robust quantum defences.

This good solution eliminates significant computational barriers inherent in PQC. With this action, BTQ Technologies is leading the charge to safeguard emerging online capital markets. It safeguards Solana's incredible $1 trillion annual decentralised exchange (DEX) turnover and offers crucial support for expanding institutional tokenisation activities. Given that regulatory bodies are calling for post-quantum security for financial infrastructure more and more, this development is both important and timely.

Taking on the Imminent Quantum Danger

Due to the underlying vulnerabilities of current cryptography standards, there is an urgent need for quantum-safe alternatives. In today's digital world, which includes the blockchain ecosystem overall, the Elliptic Curve Digital Signature Algorithm (ECDSA) is crucial for identity verification and transaction security, particularly in public-key cryptography. However, this foundation is gravely threatened by Shor's algorithm and other emerging quantum computing techniques.

Government organisations including the Federal Reserve and cryptographers have issued strong cautions against the pervasive practice of "Harvest Now, Decrypt Later" (HNDL) attacks. Enemies intentionally collect massive amounts of today's encrypted blockchain transaction data, which is permanently exposed on the public ledger, in order to decipher the data when a powerful quantum computer becomes available.

This threat is not just hypothetical; it is real and needs to be mitigated immediately. While blockchains can be improved for new transactions, past transaction data on networks such as Solana and Ethereum is always susceptible to the retroactive HNDL threat, even with post-quantum improvements. This significant vulnerability necessitates a rapid and federally mandated transition to quantum-resistant cryptography.

The National Institute of Standards and Technology (NIST) is in the forefront of standardising new PQC algorithms that are mathematically secure against both classical and quantum assaults. Instead of merely being a proof of concept, BTQ's successful integration of these precise, NIST-approved standards on Solana is described as the installation of a crucial security measure for the internet's financial infrastructure.

Cracking the 50x Technical Obstacle

Integrating PQC into a high-performance blockchain like Solana presented a considerable technological barrier. The primary challenge is presented by the characteristics of the new quantum-resistant algorithms: The ECDSA signatures that are currently being used on blockchains are often more than 50 times smaller than PQC signatures.

This massive increase in data capacity raised concerns about latency, which had a direct impact on transaction throughput and undermined Solana's core selling point of unparalleled speed and throughput. The company noted that this bigger data collection directly affects transaction speed and introduces latency, which could harm Solana's reputation as a quick processor.

BTQ's method skilfully combines specialised hardware with off-chain computational verification. This approach was designed to maintain transaction times of less than a second, despite the higher requirements for signatures.

Two essential elements are included in the solution:

BTQ's Hardware Acceleration for QCIM: The core component is the BTQ-only Quantum-safe Cryptography and Integrity Module (QCIM) hardware. Both the PQC algorithms and the computations required by Bonsol Labs' proving network will be accelerated by this specialised hardware. By moving these taxing cryptographic activities off the main Solana network, Thec significantly reduces congestion and helps maintain the network's intrinsic performance standards.

Verifiable Computation Network of Bonsol Labs: BTQ worked with Bonsol Labs to leverage their network, which enables the safe and dependable off-chain verification of PQC signatures. Instead of flooding the Solana mainnet with the 50x more PQC data, the verifiable computation network manages the verification proofs outside of the blockchain and posts only a succinct, cryptographically confirmed confirmation back to the chain.

With this combo approach, Solana can handle the higher PQC signature requirements without sacrificing its high-throughput capabilities. The QCIM hardware and Bonsol Labs' network work together to speed up the computationally intensive post-quantum cryptography techniques and the proving calculations required by Bonsol's network through a synergistic flywheel effect, significantly reducing latency and increasing throughput.

Obtaining $1 Trillion and Facilitating Institutional Development

The global banking industry will be significantly impacted strategically by this event. Since Solana already manages over $1 trillion in annual decentralised exchange (DEX) activity, adoption of quantum-safe solutions is a compelling economic imperative that attracts significant institutional interest in tokenisation initiatives. Even a small reduction in transaction risk saves a lot of money for market players.

BTQ aims to become a crucial infrastructure provider for these companies by offering robust defence against impending quantum-based attacks on financial operations. Financial institutions are asking for solutions that guarantee the long-term security and regulatory compliance of their digital holdings as they rapidly study real-world asset (RWA) tokenisation.

This essential level of trust is provided by the efficient use of NIST-standardized PQC. Regulations are increasingly calling for the usage of quantum-resistant encryption, and BTQ's product provides Solana with an easy-to-understand and workable way to comply with these impending federal regulations. It is expected that this guarantee of quantum-safe security will accelerate institutional investment in the Solana ecosystem.

Additionally, creating a sustainable economic model is the aim of this integration. By enabling more secure, institution-backed transactions, the cooperative solution can earn a portion of the $1 trillion annual DEX volume through transaction fees. This "flywheel effect" of higher transaction volume brought about by institutional participation, when paired with collected transaction fees, strengthens BTQ's market dominance.

"We are not only resolving a technical issue but also facilitating the quantum-safe development of online capital markets by successfully deploying NIST-standardized PQC on Solana, the network handling the majority of decentralised exchange volume," CEO Olivier Roussy Newton affirmed.

While retroactive data privacy for previous transactions remains impractical due to the HNDL hazard, BTQ's approach provides a required, proactive defence for new transactions, ensuring the long-term survival of Solana-based DeFi solutions. As a result, BTQ is positioned as a vital enabler of stability and confidence in the ever-changing realm of online capital markets, in addition to being a security supplier. This historic achievement provides a strong paradigm for other rapidly evolving digital ecosystems and industries that rely on the long-term integrity of their data. The invention might enable online capital markets to keep growing by lowering quantum risks to high-volume networks.

BTQ's Quantum-Secure Stablecoin Network Sets Digital Finance Standards Worldwide.

Quantum computing threatens the global financial system, and BTQ Technologies Corp. (BTQ) is swiftly becoming a leader in digital banking. QSSN has gained international recognition after the U.S. Post-Quantum Financial Infrastructure Framework (PQFIF) highlighted it and QuINSA unanimously approved it as a global standard initiative. QSSN is crucial to revitalising worldwide tokenised asset and digital currency security mechanisms, as these endorsements show.

Quantum Secure Stablecoin Network

The Quantum Secure Stablecoin Network protects stablecoins and other digital currencies against future quantum computers. Post-quantum cryptography aims to construct systems that are immune to classical and quantum assaults, a major leap.

QSSN functions are explained below:

The Issue: Quantum Threat to Cryptography Public-key cryptography is a vital element of digital security systems, including stablecoins and other cryptocurrencies. Since traditional computers cannot crack this cryptography, it is safe. Shor's algorithm could crack RSA and ECC on a massive quantum computer. An attacker might disrupt the network and produce, burn, or steal tokens by revealing private keys.

Quantum Secure Stablecoin Network

BTQ built the QSSN to combat this “quantum threat.” Instead of developing a new blockchain, it will connect existing stablecoin platforms. The key is adding a “quantum-secure control layer” to the most sensitive stablecoin network processes.

It works

For security, the QSSN framework uses “dual-signature” technology. This means that privileged activities like burning, upgrading, or minting tokens are cryptographically signed using a new post-quantum signature in addition to ECDSA. This makes quantum resilience easy without redesigning the system.

Focus on Privileged Functions: The QSSN does not affect wallets, end users, or integrations. Only the stablecoin issuer or operator's critical functions are upgraded. This concentrated method covers system weaknesses with minimal disruption.

The QSSN works with wallets, payment systems, and compliance procedures. The U.S. National Institute of Standards and Technology (NIST) is establishing post-quantum cryptography standards to match these worldwide requirements.

The QSSN “future-proofs” digital assets like stablecoins. It helps stablecoin issuers and financial institutions prepare for quantum computing by providing a scalable solution that protects their networks without affecting user experience or business operations.

Answering the Quantum Threat to Digital Money

Quantum computing threatens traditional encryption, which might weaken digital financial infrastructures. Understanding this critical issue, BTQ's QSSN provides a quantum-secure layer for tokenised assets and digital currencies to prevent quantum attacks. This effort is crucial to maintaining financial system credibility and security.

QSSN upgrades privileged issuer controls with post-quantum signatures. This innovative method co-signs minting, burning, stopping, upgrading, and first contract distribution using conventional keys and a strong post-quantum signature. QSSN provides a standards-based way to meet quantum-resilience requirements without disrupting user processes, wallets, or integrations.

US Regulatory Validation: PQFIF Endorsement

The U.S. Post-Quantum Financial Infrastructure Framework (PQFIF), a key publication on quantum-resistant techniques, references BTQ's QSSN as a paradigm for quantum-secure tokenised deposits. In September 2025, government agencies issued PQFIF, a strategic plan for U.S. financial institutions to switch to quantum-resistant encryption. PQFIF's recognition is a major step towards deploying quantum-secure controls in the US financial system. Market integrity, investor interests, and NIST Post-Quantum Cryptography (PQC) standards are prioritised in the framework.

QuINSA approves global standard momentum

BTQ's QSSN was unanimously certified by the Quantum Industrial Standard Association (QuINSA), boosting its global status. In 2024, QuINSA became the first private group to create industry-driven, de facto quantum computing, communication, and sensing standards. QuINSA's Communications Coordination Group's unanimous support puts QSSN on track to submit to IEEE, ITU, ISO, and ETSI, which promote global interoperability and compliance.

As QuINSA's Quantum Communications Working Group Chair, BTQ's significance in this essential subject grows. BTQ can directly impact international blockchain infrastructure and quantum-secure communications standards since it leads a sector that could transform cybersecurity worldwide.

Accelerating Commercial Deployment and Market Capture

These key endorsements position BTQ to quickly commercialise QSSN. Q4 2025 will see the company test with major stablecoin issuers. These experiments add quantum-secure capabilities to tokenised financial products management to revolutionise it.

QSSN has substantial commercial potential. On-chain transactions will exceed $5.7 trillion by 2024, and the stablecoin market will reach $280 billion. As institutional usage accelerates, BTQ expects QSSN to manage billions in daily settlement value. At the DeFi Technologies Insights Frankfurt Symposium on September 25, 2025, BTQ will demonstrate QSSN's quantum-secure stablecoin issuances for DeFi protocols and financial institutions.

Strategic Partnering with Global Quantum Initiatives

BTQ's QSSN strategically promotes global quantum resilience. It followed the NSA's CNSA 2.0 guidance, the EU's quantum network programs, Korea's Quantum Technology Industry Act, and NIST PQC standards (FIPS 203, 204, and 205). This multimodal convergence ensures cross-border digital asset and payment interoperability, strengthening BTQ's position in a united, quantum-secure future.

BTQ is well-positioned to capitalise from this quantum technology transition from research to commercial use. Olivier Roussy Newton, CEO of BTQ Technologies, said, “Quantum security is no longer a distant concept it’s a strategic priority for nations, industries and investors.” The “watershed moment” of PQFIF's QSSN certification verifies BTQ's approach and accelerates its commercial pipeline.

BTQ: Designing Quantum-Secure Finance

This text was written by Comply with I’m Emmanuel Onwusah—a monetary analyst, author, and recovering engineer. I maintain FMVA® and BIDA® certifications from the Company Finance Institute, and I spend most of my time creating pitch decks, constructing fashions, analyzing firms, and attempting to make sense of the place worth meets narrative. My background is in petroleum and fuel engineering,…