Taqbit Labs

Quantum Cybersecurity Solutions
Founded 2022
Bangalore, India
$1+ million raised
15+ employees
Quantum CybersecurityPost-Quantum CryptographyQuantum Random Number GenerationSecure Communications

About Taqbit Labs

Taqbit Labs specializes in quantum cybersecurity solutions, including post-quantum cryptography and quantum random number generation (QRNG). The company helps organizations prepare for the quantum threat by implementing quantum-safe security measures to protect against attacks from future quantum computers.

Taqbit Labs is addressing the urgent need for quantum-safe cybersecurity. As quantum computers advance, they will be able to break current encryption methods, threatening the security of sensitive data. Taqbit Labs provides solutions including post-quantum cryptographic algorithms, quantum random number generators for truly unpredictable encryption keys, and consulting services to help organizations transition to quantum-safe security infrastructure.

Products & Solutions

Quantum Random Number Generator (QRNG)

Hardware-based true random number generation using quantum processes

  • Certified randomness
  • High-speed generation
  • Compact form factor
  • Easy integration

Post-Quantum Cryptography Suite

Software library implementing quantum-resistant encryption algorithms

  • NIST-approved algorithms
  • Drop-in replacement for existing crypto
  • Performance optimized

Quantum Security Consulting

Assessment and migration services for quantum-safe security

  • Risk assessment
  • Migration planning
  • Implementation support
  • Training

Funding

Total Raised
$1+ million
Latest Round
Pre-Seed
Stage
Early Stage
Investors:Angel investors, Incubators

Latest News & Updates

View All Taqbit Labs News
Florida Atlantic University Launches Executive Certificate in Quantum Computing Strategyquantum-computing

Florida Atlantic University Launches Executive Certificate in Quantum Computing Strategy

Florida Atlantic University Launches Executive Certificate in Quantum Computing Strategy The Executive Education program in the College of Business at Florida Atlantic University (FAU) has launched a new professional certificate course titled “Quantum Computing: Business and Sourcing Strategy.” Designed for non-technical enterprise leaders, technology executives, procurement directors, and strategists, the eight-week program focuses on evaluating, sourcing, and deploying quantum capabilities across commercial and public sector organizations. Scheduled to run from August 24 to October 12, 2026, the 24-hour course ($2,700 tuition) is offered both on-campus at FAU’s Boca Raton campus and via live virtual sessions. Led by Dr. Mehran Basiratmand, Director of Innovation and Programs, alongside College of Business Dean Dr. Daniel Gropper, the curriculum covers four primary areas: enterprise information systems and software licensing agreements, quantum ecosystem evaluation (spanning IBM Quantum, Google Quantum AI, D-Wave, IonQ, Quantinuum, AWS Braket, and Azure Quantum), Quantum-as-a-Service (QaaS) procurement strategies, post-quantum cryptography risk management, and hands-on laboratory exercises. The educational initiative follows FAU’s landmark $20 million agreement with D-Wave Quantum Inc. to install an on-site, 4,400+ qubit Advantage2™ annealing quantum computer at its Boca Raton campus. The installation makes FAU the first university in Florida to host a dedicated, on-premises quantum system, positioning South Florida as an emerging regional hub for hybrid quantum computing research, defense application development, and workforce training. Review the official announcement on the FAU Newsdesk here, and explore curriculum details on the FAU Executive Education Portal here. August 7, 2026 Mohamed Abdel-Kareem2026-08-07T10:38:17-07:00 Leave A Comment Cancel replyComment Type in the text displayed above Δ This site uses Akismet to reduce spam. Learn how your comment data

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Carahsoft to distribute ZeroTier’s quantum-safe networking platformquantum-computing

Carahsoft to distribute ZeroTier’s quantum-safe networking platform

On August 6, 2026, ZeroTier and Carahsoft announced a partnership to distribute ZeroTier Quantum, a software-defined networking platform designed to replace cryptographic security standards used for over two decades. The collaboration will leverage NASA’s Solutions for Enterprise-Wide Procurement (SEWP) V contract, offering government agencies a direct path to deploy and scale this post-quantum secure networking solution. “Public Sector agencies today are operating in a threat environment that is more distributed, more dynamic, and more demanding than ever,” said Andrew Gault, CEO of ZeroTier, emphasizing the need for resilient connectivity in increasingly complex environments. ZeroTier Quantum embeds post-quantum cryptographic resilience into the transport layer, addressing the immediate threat of quantum computing breaking modern encryption. ZeroTier Quantum: Post-Quantum Cryptography via ZTP and Rust Architecture ZeroTier Quantum employs a memory-safe Rust architecture, a deliberate design choice to fortify its defenses against increasingly sophisticated cyberattacks and vulnerabilities common in traditionally coded networking platforms. This focus on memory safety directly addresses a core weakness exploited by many modern exploits, reducing the attack surface and enhancing the platform’s overall resilience. The platform implements hybrid ML-KEM-1024 and ECDH P-384 cryptography, a layered approach intended to neutralize both immediate and future threats, specifically those involving the “harvest now, decrypt later” and “trust now, forge later” scenarios. By combining these cryptographic methods, ZeroTier Quantum aims to provide a robust defense against evolving quantum computing capabilities. This contract vehicle is particularly significant because it provides a pre-approved pathway for federal agencies to acquire and deploy the technology, bypassing lengthy and complex acquisition processes. Mark Demerse, Sales Director who oversees the ZeroTier Team at Carahs

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SEALSQ adds CMOS quantum paths with Quobly, EeroQquantum-computing

SEALSQ adds CMOS quantum paths with Quobly, EeroQ

SEALSQ will begin the second phase of its $200 million SEALQuantum.com initiative in September, extending its quantum ecosystem into areas including satellite and space-based infrastructure. Building on over $65 million already deployed, the company has earmarked an additional $100 million for investment through the end of 2027. SEALSQ’s SEALQuantum Sovereign Quantum Vertical Stack interconnects partners like Quobly and EeroQ, aiming to create a scalable quantum platform. “With the Quantum Vertical Sovereign Stack, our objective is to build a scalable, sovereign quantum platform that can translate today’s capital deployment into tomorrow’s recurring revenue and strategic moat,” said Carlos Moreira, Chairman and CEO of SEALSQ. SEALSQ’s $200 million initiative enters the second phase of deployment, signaling a sustained, multi-stage financial commitment to quantum technology development. The Stack interconnects a growing number of partners and portfolio companies, aiming to create a fully integrated quantum ecosystem. The company’s strategy centers on an architecture linking layers from secure semiconductors to orbital infrastructure, and is designed to be interoperable; portfolio companies like EeroQ and Quobly are being integrated into this framework, each contributing a unique technological layer. At the foundation of this Stack is SEALSQ’s secure-semiconductor and Public Key Infrastructure (PKI) base, developed in collaboration with GlobalFoundries under a strategic Memorandum of Understanding covering secure semiconductor platforms and post-quantum cryptography. This partnership provides a trusted, high-volume manufacturing base for the entire system. Quobly’s silicon spin-qubit architecture and EeroQ’s electrons-on-helium (eHe) architecture both utilize CMOS-compatible fabrication, allowing them to leverage the same secure manufacturing base developed with GlobalFoundries. This dual-processor approach provides SEALSQ with two complementary, industrially scalable

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Post-Quantum Cryptography Timelines: When Will Organizations Migrate? - thequantuminsider.comquantum-computing

Post-Quantum Cryptography Timelines: When Will Organizations Migrate? - thequantuminsider.com

Every major organization has published a timeline. Governments, technology companies, financial institutions, critical infrastructure operators, and blockchain communities – all of the major players disagree on when a cryptographically relevant quantum computer will arrive, but none of them have published a “wait and see” position. As TQI’s Year of Quantum Security coverage has tracked, 2026 has become the year where that broad agreement on action became concrete – with deadlines, roadmaps, and product commitments replacing general awareness. This article maps what the major players have actually committed to, where the ranges cluster, and what the spread tells organizations still deciding how to prioritize their own migration. Regulatory deadlines form the bottom line. It’s important to note that they are the bare minimum expectations, not the goal post. NIST IR 8547, the transition framework published as an initial public draft in November 2024, calls for RSA-2048 and ECC-256 to be deprecated by 2030 and disallowed after 2035. These dates apply to federal agencies and extend to organizations handling federal data or operating in regulated environments. As TQI has covered, the three finalized standards such as ML-KEM (FIPS 203), ML-DSA (FIPS 204), and SLH-DSA (FIPS 205) – provide the algorithm foundation for that migration. CNSA 2.0 requires new acquisitions into National Security Systems to support quantum-resistant cryptography from January 1, 2027. Software and firmware signing must use quantum-resistant signatures by 2030, systems that cannot be upgraded must be retired, and quantum-resistant encryption must be the exclusive standard for web, cloud, and operating systems by 2033, with most other transitions completing on a similar timeline. Full quantum-resistant infrastructure across all systems is required by 2035 under NSM-10.

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ZeroTier and Carahsoft Partner to Bring Post-Quantum Software-Defined Networking to the Public Sectorquantum-computing

ZeroTier and Carahsoft Partner to Bring Post-Quantum Software-Defined Networking to the Public Sector

ZeroTier and Carahsoft Partner to Bring Post-Quantum Software-Defined Networking to the Public Sector Software-defined networking (SDN) provider ZeroTier and government IT aggregator Carahsoft Technology Corp. have entered into a strategic partnership to distribute ZeroTier Quantum across U.S. public sector and defense agencies. Under the agreement, Carahsoft will serve as ZeroTier’s Master Government Aggregator, making its software-defined, post-quantum secure networking platform available through Carahsoft’s reseller network and the NASA Solutions for Enterprise-Wide Procurement (SEWP V) contract vehicles (NNG15SC03B and NNG15SC27B). ZeroTier Quantum embeds post-quantum cryptographic resilience directly into the transport layer via the ZeroTier Transport Protocol (ZTP). Developed using a memory-safe Rust architecture, the software overlay implements a hybrid ML-KEM-1024 (NIST-standardized Module-Lattice-Based Key-Encapsulation Mechanism) and ECDH P-384 (Elliptic Curve Diffie-Hellman) key exchange protocol. This hybrid model protects against “Harvest Now, Decrypt Later” (HNDL) interdictions and satisfies National Security Agency Commercial National Security Algorithm Suite 2.0 (NSA CNSA 2.0) timelines and NIST post-quantum migration mandates. [ ZeroTier Quantum Transport Security Architecture ] │ ┌────────────────────────────────────┴────────────────────────────────────┐ ▼ ▼ Hybrid Key Exchange Layer Infrastructure-Agnostic Overlay • NIST ML-KEM-1024 (Post-Quantum). • Memory-Safe Rust Architecture (ZTP). • ECDH P-384 (Classic Asymmetric). • Encapsulates Legacy High Value Assets (HVAs). • NSA CNSA 2.0 & FIPS Standard Compliance. • Public Cloud, Edge, Tactical & Air-Gapped Deployments. Designed as an infrastructure-agnostic overlay, the platform enables defense and government entities to wrap legacy infrastructure, High Value Assets (HVAs), and edge platforms—such as uncrewed aerial vehicles (UAVs), tactical sensors, and software-defined vehicles (SDVs)—in a

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Amazon Researcher Claims Quantum Algorithm Could Challenge PQC Foundations - The Quantum Insiderquantum-computing

Amazon Researcher Claims Quantum Algorithm Could Challenge PQC Foundations - The Quantum Insider

A preliminary paper from an Amazon Web Services cryptographer describes a polynomial-time quantum algorithm for a long-standing mathematical problem whose solution could have implications for lattice-based cryptography, the foundation of many post-quantum encryption systems proposed by the National Institute for Standards and Technology, among others. This is early work, but if validated, the work would represent a significant advance in quantum algorithms. It would not, however, amount to an immediate attack on deployed post-quantum cryptography. The paper, written by Daniel R. Simon of Amazon Web Services’ Cryptography Group, presents what it describes as a polynomial-time quantum algorithm for the Dihedral Coset Problem, or DCP. The problem has occupied quantum algorithm researchers for more than two decades because earlier work connected it to several difficult lattice problems. Lattices are regular arrangements of points and while most people think of two-dimensional grids when they imagine a lattice, in this case, the lattice is extended across many dimensions. Cryptographic systems can construct problems on those lattices that are easy to generate but believed to be extraordinarily difficult for an attacker to reverse. Two of the most important are the Shortest Vector Problem, which asks a computer to find a sufficiently short nonzero vector — essentially, the shortest nontrivial step — in a lattice, and Learning With Errors, which hides information inside mathematical equations containing deliberately introduced noise. Variants of these problems underpin much of modern post-quantum cryptography. They are intended to remain secure against both classical computers and future quantum systems.

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enQase and Light Rider Partner to Deliver Integrated Quantum-Safe Communications Architecturequantum-computing

enQase and Light Rider Partner to Deliver Integrated Quantum-Safe Communications Architecture

enQase and Light Rider Partner to Deliver Integrated Quantum-Safe Communications Architecture Quantum cybersecurity platform provider enQase and quantum communications firm Light Rider Inc. have announced a strategic technology partnership to combine their software, hardware, and key distribution capabilities into unified quantum-resistant security architectures. Announced on August 4, 2026, the collaboration targets government, defense, critical infrastructure, and enterprise customers preparing for post-quantum cryptography (PQC) transitions and “Harvest Now, Decrypt Later” mitigation. The partnership integrates the enQase Platform—which includes a FIPS 140-3 validated cryptographic module (Certificate #5346) and crypto-agile management layer—with Light Rider’s suite of quantum hardware and optical networking technologies. Light Rider’s portfolio encompasses its Quantum Light hardware, Light Rider Entropy Management System (providing physical quantum random number generation), digital quantum key distribution (dQKD), and secure optical communications infrastructure. By linking these platforms, the two companies aim to provide end-to-end security bridging the software, hardware, entropy generation, key management, and optical transmission layers. The initial phase of the partnership focuses on six operational areas: developing joint quantum-safe reference architectures, conducting technical interoperability testing, executing proofs-of-concept for regulated industries, providing joint quantum-readiness risk assessments, and exploring future commercial channel opportunities. Leadership from both organizations—including enQase CEO Rajesh Patil and Light Rider Founder and CEO Anthony “Tony” Lawrence—emphasized that combining algorithmic PQC agility with physical quantum key delivery offers a modular deployment path for legacy network modernizations. Review the official announcement on enQase Press Releases here. August 6, 2026 Mohamed Abdel-Kareem2026-08-06T04:16:57-0

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Thales Introduces Luna 8 Hardware Security Module for Post-Quantum Encryptionquantum-computing

Thales Introduces Luna 8 Hardware Security Module for Post-Quantum Encryption

Thales Introduces Luna 8 Hardware Security Module for Post-Quantum Encryption French cybersecurity and defense technology firm Thales has launched Luna 8, a next-generation hardware security module (HSM) designed to safeguard enterprise cryptographic infrastructure against emerging quantum decryption threats and high-throughput AI workloads. Powered by a custom-designed Thales cryptographic processor, the hardware appliance provides high-speed key management, digital signing, Public Key Infrastructure (PKI) protection, and cryptographic agility to support post-quantum cryptography (PQC) algorithm migrations. The deployment directly addresses vulnerabilities highlighted in the 2026 Thales Data Threat Report, which surveyed 3,120 IT and security professionals globally. According to the report, 61% of respondents cited “Harvest Now, Decrypt Later” (HNDL) attacks as their primary quantum concern—where adversaries intercept and store encrypted data traffic today to decrypt once cryptographically relevant quantum computers become available. Consequently, 59% of surveyed organizations reported that they are actively prototyping and evaluating PQC algorithms to prepare for post-quantum standards. [ Luna 8 Quantum-Resistant Appliance Architecture ] │ ┌───────────────────────────────────────┴───────────────────────────────────────┐ ▼ ▼ Hardware & Processor Layer Cryptographic Control Layer • Custom Thales Cryptographic Processor. • NIST-Standardized PQC Algorithm Support. • FIPS 140-3 Level 3 & EU Common Criteria. • Cryptographic Agility Firmware Architecture. • Upgradable Platform for payShield 11K Payment Networks. • Dual Support for Legacy & Post-Quantum PKI. Luna 8 incorporates several technical and operational features engineered to support enterprise PQC integration: Cryptographic Agility: Built with an upgradeable architecture, the platform enables organizations to introduce new NIST-finalized post-quantum algorithms and security parameters via firmware upd

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Quantum Corridor, Ciena, and Toshiba Validate 1.6 Tb/s Quantum-Safe Encryption on Live Fiber Networkquantum-computing

Quantum Corridor, Ciena, and Toshiba Validate 1.6 Tb/s Quantum-Safe Encryption on Live Fiber Network

Quantum Corridor, Ciena, and Toshiba Validate 1.6 Tb/s Quantum-Safe Encryption on Live Fiber Network Midwest network infrastructure developer Quantum Corridor, optical networking provider Ciena (NYSE: CIEN), and Toshiba have completed a field trial of high-speed quantum-safe optical encryption across a live commercial network. Conducted on Quantum Corridor’s production fiber network connecting data center nodes between Chicago, Illinois, and Hammond, Indiana, the trial validated 1.6 Terabits per second (Tb/s) of encrypted optical capacity secured simultaneously by post-quantum cryptography (PQC) and Quantum Key Distribution (QKD). The field deployment utilized Ciena’s Waveserver platform powered by WaveLogic 6 Extreme (WL6e) coherent optics to deliver wire-speed, optical-layer AES-256-GCM encryption. The platform ran NIST-certified post-quantum cryptographic algorithms in tandem with Toshiba’s QKD servers, which continuously fed quantum-generated symmetric key material directly into Ciena’s optical encryption system. The trial operated alongside existing WaveLogic 5 Extreme (WL5e) 800G encrypted traffic over the same RLS photonic line system, demonstrating that legacy 800G optical links can be upgraded to support PQC algorithms via software without replacing physical line hardware. [ Live 1.6 Tb/s Hybrid Quantum-Safe Architecture ] Chicago Data Center (ORD 10) ◄──────────────── 21.8 km Metro Fiber ────────────────► Hammond Data Center (Digital Crossroad) │ ┌─────────────────────────────────────────────┴─────────────────────────────────────────────┐ ▼ ▼ Physical Layer Security (Toshiba QKD) Algorithmic Security (NIST PQC) • Real-Time Symmetric Key Generation (1-s Rotation). • Software-Upgradable PQC Protocols. • Optical Fiber Co-Propagating Multiplexing. • AES-256-GCM Optical Layer Encryption. • Interoperable ETSI API Key Injection via Ciena. • Ciena WaveLogic 6 Extreme (1.6 Tb/s). Key Technical Insights from Ciena and Quantum Corridor Discussions Recent commentary f

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Thales Luna 8 module protects data from future quantum attacksquantum-computing

Thales Luna 8 module protects data from future quantum attacks

Fifty-nine percent of organizations are already prototyping post-quantum cryptography as concerns mount over future attacks, according to the 2026 Thales Data Threat Report. Thales responded by launching Luna 8, a hardware security module designed to address “Harvest Now, Decrypt Later” attacks by securing cryptographic keys for both current and post-quantum algorithms. “Enterprises need to build post-quantum readiness through cryptographic agility,” said Todd Moore, VP of Data Security Products at Thales. Jack Zhou, CIO at HKVAX, states the Luna 8 module will simplify operations and make more efficient use of their infrastructure. Luna 8 HSM: Addressing Harvest Now, Decrypt Later Threats This proactive stance reflects a growing awareness that encrypted data is vulnerable to decryption by future quantum computers, prompting a shift toward quantum-resistant cryptographic solutions. Luna 8 directly tackles the Harvest Now, Decrypt Later scenario, where adversaries are actively collecting encrypted data with the intention of decrypting it once sufficiently powerful quantum computers become available. The module’s architecture supports both current and anticipated post-quantum algorithms, allowing organizations to implement a phased transition without immediate disruption to existing systems. This future-proof design is bolstered by an upgradeable architecture, ensuring adaptability as security requirements evolve and new standards emerge. The module’s performance is a key differentiator, delivering faster cryptographic operations crucial for demanding applications and rapidly growing workloads. Beyond enhanced security, Luna 8 is engineered to streamline operations and maximize infrastructure investments. Jack Zhou, CIO at HKVAX, highlighted the module’s versatility, stating, “The flexibility to support multiple use cases, applications and business needs over time helps us maximize hardware investments.” HKVAX’s early adoption demonstrates a focus on both security and

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Quantum Computing: Creating the Next Cybersecurity Skills Race - dice.comquantum-computing

Quantum Computing: Creating the Next Cybersecurity Skills Race - dice.com

While artificial intelligence is having its moment, there is another potential industry-changing technology that has gained momentum while avoiding the scrutiny that has followed the release of large language models and virtual chatbots. That technology is quantum computing. For years, quantum computing has mainly been relegated to the worlds of theoretical mathematics and physics. There is now, however, a growing sense that practical applications for quantum computing are moving closer to reality. In turn, the technology has the potential to upend multiple industries and deliver breakthroughs in areas such as medical and pharmaceutical research. Quantum computing also raises significant cybersecurity concerns. Before the annual RSA Conference in April, Google Research released a paper detailing new developments in post-quantum cryptography (PQC). Specifically, researchers updated their estimates of the number of quantum computing “resources” – qubits and gates – required to break the 256-bit elliptic curve discrete logarithm problem (ECDLP-256), which underpins elliptic curve cryptography. Elliptic curve cryptography (ECC) uses the mathematics of curves to create secure keys. ECC provides high security with smaller key sizes than older methods, such as RSA. This makes it fast and safe for computer systems, cell phones and blockchain systems that make cryptocurrency possible. “Cybersecurity is one of the most disruptive areas that quantum computing is expected to affect because today’s internet relies heavily on cryptography,” Julien Camirand Lemyre, CEO and co-founder of Nord Quantique, a Canadian-based quantum computing company, told Dice. “A sufficiently powerful quantum computer could eventually break some of the cryptographic techniques currently used to protect digital communications, requiring a transition to new quantum-resistant standards.” Another significant cyber question is: Are organizations ready for this change, especially around security? In late 20

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Quantum Corridor proves 1.6 Tb/s encryption works on a commercial linequantum-computing

Quantum Corridor proves 1.6 Tb/s encryption works on a commercial line

Quantum Corridor, Ciena, and Toshiba have completed the first demonstration of 1.6 terabits per second quantum-safe optical encryption on a live, commercial network in the Midwestern United States. The trial combined Ciena’s WaveLogic 6 Extreme optical encryption with NIST-certified post-quantum cryptography algorithms and Toshiba’s quantum key distribution technology, offering a hybrid approach to secure data against future quantum computing threats. This successful test addresses the growing concern of “harvest now, decrypt later” attacks and demonstrates a practical migration path for organizations seeking quantum security without fully replacing existing infrastructure. “Quantum-safe networking is no longer a future discussion,” said Ryan Lafler, President & CTO, Quantum Corridor. “By validating 1.6 Tb/s encrypted connectivity with both PQC and QKD on our live network, we’re demonstrating how we can help customers transition to a quantum secure solution.” WaveLogic 6 Extreme Enables 1.6 Tb/s Quantum-Safe Encryption Ciena’s WaveLogic 6 Extreme (WL6e) has successfully demonstrated 1.6 terabits per second optical encryption capable of quantum-safe security on a live, commercial network, moving beyond laboratory demonstrations to a practical, operational deployment. The trial, conducted on Quantum Corridor’s network in the Midwest United States, establishes a new benchmark for data transmission rates secured against potential threats from future quantum computers. This achievement signifies a critical step in safeguarding data confidentiality as the quantum era approaches and highlights the feasibility of integrating advanced encryption methods into existing network infrastructure. This hybrid approach offers organizations immediate protection against evolving cyber threats, particularly the risk of “harvest now, decrypt later” attacks where data is intercepted and stored for decryption once quantum computers become powerful enough to break current encryption st

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IonQ says orders set 2030 deadline for post-quantum crypto migrationquantum-computing

IonQ says orders set 2030 deadline for post-quantum crypto migration

President Trump signed two executive orders on June 22 that shift United States quantum technology policy from research toward practical application and national security. One order initiates a national effort to build a quantum computer for scientific discovery, while the other establishes deadlines of 2030 and 2031 for federal agencies to adopt post-quantum cryptography. These orders build upon the National Quantum Initiative Act and National Security Memorandum 10, signaling, as one expert notes, “Quantum isn’t just about academic research. It’s a national security priority with a schedule attached.” IonQ reports its Application-Centric Benchmarking Framework now measures progress by Time-to-Solution for real-world workloads, reflecting a move toward assessing practical impact. The recent executive orders issued on June 22 represent a fundamental shift in United States quantum technology policy, moving beyond research-focused initiatives to a strategy defined by concrete action and timelines. These orders, EO 14411 (“Ushering in the Next Frontier of Quantum Innovation”) and EO 14412 (“Securing the Nation Against Advanced Cryptographic Attacks”), acknowledge that quantum technology has reached a critical juncture, transitioning from decades of scientific advancement to the urgent need for practical capability and robust security measures. Rick Muller, IonQ’s Senior Vice President and Chief Scientist for IonQ Federal, emphasizes this evolution, stating, “Quantum isn’t just about academic research.” He notes that while the science has progressed significantly, a clear pathway from prototype to operational dependence has been lacking, a gap these executive orders directly address. The orders recognize that the question is no longer if quantum will matter, but how quickly the United States can leverage decades of research to bolster national security, scientific leadership, and economic competitiveness. A key component of this acceleration is a revised approach to mea

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