Institutional Research Note · Quantum Cyber Risk Intelligence · Post-Quantum Ready, Continuously™
The 2029 Quantum Security Race
Quantum security has stopped being a science question and become a control question with a date attached. This note reads the platform, policy, and field signals together and treats 2029 as a planning horizon for provable cryptographic readiness — not a prediction of Q-Day.
Company-reported · normalized and banded · not independently audited
01 / Executive Summary
Most quantum reports explain the threat. This note defines the control model.
For a board, quantum security has stopped being a science question. It has become a control question with a date attached. The major technology platforms now anchor post-quantum migration plans around 2029, and financial and defense regulators have moved from awareness into implementation planning. Data an enterprise encrypts today can already be captured for later decryption, so the exposure clock has started. The date that matters for governance is not an unknowable Q-Day. It is a readiness control date an institution sets for itself.1
Qtonic Quantum Corp is a quantum risk and vulnerability intelligence company. It moves enterprises from their current cryptographic state, through hybrid readiness, to post-quantum readiness across three products — QScout, QStrike, and QSolve. It does not sell encryption products. The method is direct: find cryptographic exposure, prove materiality, fix migration sequence in sequence, prove readiness, and monitor for drift.
2029 is a control date, not a prophecy
Major platforms now anchor public post-quantum migration plans around 2029. Qtonic Quantum treats that as a self-imposed readiness control date, not a forecast of when a cryptographically relevant quantum computer arrives.
HNDL exposure accumulates today
Harvest-now-decrypt-later means data with a long confidentiality life cannot wait for certainty. The exposure window opens the moment encrypted data is captured, not on Q-Day.
Proof, not posture
Boards will be judged on demonstrated cryptographic control — predicted exposure, assessed material risk, sequenced CryptoAgility. Not awareness, and not stated intent.
“I spent my career in environments where encryption failure means mission failure. Qtonic Quantum applies that standard to enterprise systems.”
Board conclusion. 2029 should be treated as a control date for provable readiness. Waiting for certainty on cryptanalytically-relevant-quantum-computer timing creates a governance problem, because harvest-now-decrypt-later exposure accumulates today and cryptographic migration cycles in large enterprises can exceed three years.
1 This note draws on independent sources for external developments (platform, policy, standards, funding, financial-system risk) and on Qtonic Quantum sources only for product capability, public field evidence, and leadership attribution. Each is kept distinct. Any third-party organization named is referenced from public sources and is not a Qtonic Quantum client. Illustrative customers, where used, are composite and fictional.
02 / The Setting
Independent signals, one planning window
Quantum risk is no longer a single forecast about a single date. It is a convergence of independent operating signals — hyperscale platform operators, financial and defense regulators, government capital, and quantum-infrastructure vendors. No individual signal is decisive on its own. Together they make an unfunded, unmeasured, or unsequenced post-quantum program difficult for any board to defend.
| Signal | What happened | Why it matters for boards |
|---|---|---|
| Published a 2029 timeline to migrate its full stack to post-quantum cryptography. | A hyperscale platform operator has turned PQC migration into a dated execution objective. | |
| Cloudflare | Matched a 2029 target for full post-quantum security, including identity and authentication. | The network layer is moving beyond encryption-in-transit into identity and authenticity. |
| Meta | Published work on hybrid post-quantum TLS at internet scale. | Large platforms are proving hybrid deployment is operational, not theoretical. |
| U.S. Commerce | Announced letters of intent reported at roughly $2 billion for quantum and foundry companies in 2026. | The U.S. is treating quantum as strategic infrastructure, not a research side project. |
| Capital flows | Independent trackers reported double-digit-billion 2025 quantum investment and new public commitments. | Capital is concentrating around companies moving from science into infrastructure. Different trackers measure different things; both point the same way. |
The platform commitments are migration targets each company set for its own ecosystem. They are not external mandates. Enterprise dependence on those ecosystems is what turns them into a practical planning anchor. The result is not proof that Q-Day arrives in 2029. For governance it is more useful than proof: a prudent board can no longer defend a program that is unfunded, unmeasured, or unsequenced.
03 / The Deadline
Why 2029 is a control date, not a prediction
The wrong question is whether a cryptographically relevant quantum computer will arrive in 2029. The better question is whether the institution can prove, by 2029, that it has identified quantum-vulnerable cryptography, prioritized long-lived data, assessed material attack paths, and moved critical systems into hybrid or post-quantum controls.
NIST finalized the first three post-quantum standards in 2024 — ML-KEM (FIPS 203), ML-DSA (FIPS 204), and SLH-DSA (FIPS 205). The algorithms exist. The hardware bar is also moving: a 2025 analysis estimated that factoring RSA-2048 could require under one million noisy qubits under that analysis’s specified architecture and error-rate assumptions, a sharp reduction from earlier estimates measured in the millions to tens of millions. Independent expert surveys place meaningful probability on a cryptographically relevant quantum computer within the next decade, with wide uncertainty. A control program cannot be governed against a probability distribution. It can be governed against a fixed readiness date.2
Three dates, kept distinct. This note deliberately separates three things the market routinely conflates. 2029is a Qtonic Quantum planning assumption — a self-imposed readiness control date, not a NIST date and not a prediction. NIST IR 8547 (initial public draft) describes deprecating quantum-vulnerable public-key cryptography after 2030 and disallowing it after 2035. The QStrike adversary modelis bounded to 2030–2031 and is an explicit, documented set of assumptions used for validation — not a forecast presented as fact.
Qtonic Quantum thesis. 2029 is a readiness control date, not a prophecy. It is the year by which executive teams should be able to show evidence of inventory, risk scoring, migration sequencing, vendor alignment, and validation.
| Readiness evidence | Minimum board question | Failure pattern |
|---|---|---|
| Cryptographic inventory | Do we know where RSA, ECC, ECDSA, TLS, PKI, signing, and key exchange are used? | Inventory is limited to certificates or public endpoints. |
| Data shelf life | Which data remains sensitive past 2030, 2035, and 2040? | HNDL is treated as a future attack, not a present exposure. |
| Vendor dependency | Which vendors, HSMs, KMS, cloud services, and APIs control our migration path? | Procurement asks for PQC readiness only after renewal. |
| Validation | Have we tested whether exposed paths create material business risk? | Findings are counted, but exploitability is not proved. |
2The RSA-2048 figure refers to C. Gidney, “How to factor 2048-bit RSA integers in under a week using fewer than a million noisy qubits” (arXiv, 2025) — a resource estimate under stated architecture and error-rate assumptions, not a demonstrated capability. Probability ranges are from independent expert surveys (e.g., the Global Risk Institute Quantum Threat Timeline) and prediction-market-implied figures, each carrying wide uncertainty.
04 / The Mandate
The policy clock is already running
The strongest external validation for a 2029 posture is not one company announcement. It is the policy stack now forming across finance, government, defense, and critical infrastructure.
| Policy source | Practical signal | Interpretation |
|---|---|---|
| G7 Cyber Expert Group | A roadmap for financial authorities across G7 jurisdictions on harmonization, governance, third-party dependency, and time constraints. | Global finance is told to plan before certainty becomes regulatory urgency. |
| European Commission | Member states are recommended to develop PQC strategies with goals, milestones, timelines, and hybrid paths; high-risk systems targeted by end of 2030. | Critical-infrastructure suppliers face synchronized EU expectations. |
| NSA CNSA 2.0 | National-security-systems timelines across signing, web and cloud services, networking, operating systems, PKI, and legacy systems. | Defense-adjacent enterprises should treat PQC as a procurement expectation, not a future feature. |
| Bank of Israel | Banking entities directed to map encrypted assets and build preparedness plans within one year of the January 2025 directive. | Financial regulators are starting with asset mapping and governance. |
| U.S. Federal Reserve | Analyzed harvest-now-decrypt-later as a data-privacy risk: encrypted data collected now can be exposed later. | Historical confidentiality loss cannot be undone after capture. |
| Bank for International Settlements | Published quantum-readiness analysis for the financial system as a whole. | Central-bank attention signals a supervisory topic, not only a vendor topic. |
For boards, the lesson is simple. Standards adoption will not arrive as one global mandate. It will arrive through procurement, supervisor letters, client diligence, insurance underwriting, cloud-provider requirements, and supply-chain pressure — each on its own clock, all pointing the same way. In the United States, defense agencies and contractors are expected to adopt PQC for newly purchased or contracted systems after 2027, with full migration across national security systems targeted for 2035.
05 / Sector Focus
Financial services: the clearest sector test
Financial services is the clearest sector test. It combines long-lived confidentiality, high-value transactions, interbank dependency, identity assurance, public trust, and systemic contagion risk in one operating environment.
Modeled scenario and third-party telemetry · attributed to their publishers · not a Qtonic Quantum metric
The practical threat is not limited to a future attacker breaking one algorithm. It is the failure to know where public-key cryptography secures transaction authentication, payment initiation, client identity, digital signatures, internal APIs, certificate authorities, code signing, HSM and KMS policy, treasury workflows, vendor connectivity, and customer data flows.
| Financial surface | Quantum failure mode | 2026-to-2029 control objective |
|---|---|---|
| Payments and settlement | Compromise of authentication, signing, or encrypted messaging can create systemic confidence loss. | Map dependencies across major payment rails, ACH, card rails, treasury, and correspondent paths. |
| Client identity and access | ECC and RSA exposure can undermine authentication, device trust, and non-repudiation. | Prioritize identity and customer-facing controls for hybrid migration. |
| PKI and certificates | Issuance, revocation, and internal trust chains can become migration bottlenecks. | Build a certificate and key inventory tied to ownership, data class, and vendor path. |
| Long-lived data | HNDL affects archives, KYC, trading records, and legal and HR data. | Classify data by confidentiality life and move the longest-life data first. |
| Third parties | Vendors may control HSMs, gateways, cloud KMS, managed PKI, and APIs. | Insert PQC readiness evidence into renewals and vendor scorecards. |
“Article 5 commitments depend on interoperable, trustworthy communications across allied nations. Quantum changes the cryptographic foundation that interoperability depends on.”
3 The single-day attack impact figure is a published modeled scenario under stated assumptions, expressed as a range of U.S. GDP impact across a modeled recession. It is an illustrative model, not a forecast of any specific event. The hybrid-key-exchange adoption share is from third-party web telemetry (e.g., F5 Labs) and is an adoption share, not a readiness score. Both are attributed to their publishers, not to Qtonic Quantum.
Open complete 2029 research appendix
06 / The Platform
The Qtonic Quantum evidence model
Most post-quantum programs fail in the same place. They convert awareness into slideware, not evidence. Qtonic Quantum is built around the opposite motion. The platform turns cryptographic risk into evidence a CISO, board, auditor, regulator, insurer, or client can inspect.
QScout — Find · Monitor
Finds cryptographic exposure across public and credentialed surfaces, benchmarked to OpenSSL. Tiers: QScout public intake, public, credentialed, privileged, and reassessment scope depths. First-findings and completion timing set during operator scoping.
QStrike — Prove
Converts priority exposure into governed, signed validation across six provider-aligned modeled profiles and four physical modalities, with provider-calibrated modeled testing where scope requires. Demonstrated, not asserted. Backed by the $2M QStrike Challenge, subject to published terms and review conditions.
QSolve — Fix · Route
Sequences remediation from current state to hybrid to post-quantum, CISO-led. Houses the Qtonic Quantum Lab, the scoring registry behind the work.
The Qtonic Quantum Lab
The Lab is the public scoring registry within QSolve, and the reference standard behind an engagement. It is buyer-controlled. There is no paid inclusion, no vendor ranking fees, and no customer-logo proof claims. It scores post-quantum implementations against a published 10-dimension rubric with expert validation, and publishes a continuously updated leaderboard. Results are released as ML-DSA-signed, hash-bound, tamper-evident proof records.
Public metrics are normalized and banded before release · governed validation artifacts available for review · company-reported, not independently audited
Where the exposure lives
| Layer | Where public-key cryptography is load-bearing |
|---|---|
| Identity & access | Authentication, device trust, non-repudiation. |
| TLS / HTTPS | Transport confidentiality and server authenticity. |
| PKI & certificates | Issuance, revocation, internal trust chains. |
| Code signing | Software and firmware integrity. |
| HSM / KMS | Key custody and signing roots. |
| APIs & services | Service-to-service authentication and message integrity. |
| Archives & customer data | Long-lived confidentiality exposed to harvest-now-decrypt-later. |
| Cloud & vendor gateways | Third-party-controlled cryptographic dependencies. |
Every row above resolves to the same root dependency: public-key cryptography — RSA, ECC, and ECDSA.
07 / The Evidence
Field evidence and benchmark signals
Field evidence is the difference between commentary and authority. Qtonic Quantum publishes a synthesized readiness benchmark that weights deployed controls, cryptographic inventory, and procurement-ready evidence above awareness and policy activity.
It synthesizes independent public evidence — including implementation data, an industry readiness index, third-party web telemetry, and U.S. GAO findings — calibrated against Qtonic Quantum’s Fortune-1000 field observations. It is a synthesized estimate, not a census or an independently audited dataset.
| Cohort | Readiness (0–100) | Source basis |
|---|---|---|
| Fortune 1000 (Qtonic Quantum benchmark) | 18 | Qtonic Quantum Fortune-1000 governed engagements; company-reported |
| Cross-industry (independent index, 2025) | 25 | Independent industry readiness index, with top organizations reaching only 35–50 |
| Board-grade target maturity | 70 | Qtonic Quantum target maturity reference line |
The readiness gap is measurable, fundable, and board-ownable. A separate published figure — roughly 5% of organizations with quantum-safe encryption implemented — is an adoption share, not a readiness score, and is reported on its own.
Field evidence, qualified. QScout Surface has surfaced more than 100,000 cryptographic findings across public scans, passively and without credentials. Governed engagements show widespread harvest-now-decrypt-later exposure across nearly all assessed environments. Public metrics are normalized and banded before release. These are field observations, not an independently audited statistical sample, and likely skew toward larger, more mature enterprises that commission external assessment.
How to read Qtonic Quantum metrics.Qtonic Quantum field metrics reflect governed engagements and defined benchmark tests conducted within authorized scopes. They are not an independently audited market census. Reported findings depend on scope, asset availability, authorization level, data access, and test conditions. Metrics are normalized and banded before release, and buyer-facing claims are tied to a governed claim registry. A claim that is not live in that registry does not appear in buyer materials. The Fortune-1000 readiness benchmark reflects Qtonic Quantum’s Fortune-1000 governed engagements to date, and does not extend to federal or military environments.
08 / The Plan
The 2026-to-2029 operating roadmap
A serious institution should not treat 2029 as a single migration date. It should treat 2029 as the readiness horizon for provable control maturity. The plan begins with visibility and ends with continuous evidence. The institutions that win the 2029 race will not be the ones with the most elegant quantum forecast. They will be the ones with the fewest unknown cryptographic dependencies.
Milestone 1 of 4· select a marker to advance the timeline
2026
System heat map, data shelf-life register, first executive risk score. Inventory public-key usage, certificates, and signing paths; classify data by confidentiality life beyond 2029; name an accountable PQC governance owner.
2027
Validated attack-path reports, pilot results, board migration funding. Validate material attack paths on critical systems; update procurement and vendor PQC language; pilot hybrid TLS and harden signing and identity.
2028
Migration burn-down, exception register, vendor attestations. Move high-risk systems to hybrid or PQC controls; align cloud and HSM migration roadmaps; embed continuous monitoring and test rollback.
2029
Prove readiness — a Qtonic Quantum planning assumption, not a prediction and not a NIST date. Demonstrate measured coverage and residual risk; govern exceptions and compensating controls; maintain monitoring across critical surfaces, with an enterprise-evidence evidence pack, audit trail, and updated risk appetite.
Board cadence. Each year belongs on a board or risk-committee agenda, not an internal status page. A roadmap reviewed once a year is a plan. A roadmap reviewed every quarter, against evidence, is a control.
09 / Governance
Board controls, KPIs, and red flags
A quantum program that cannot be measured will become a slide deck. The board dashboard should be simple, stable, and hard to game.
| Control area | KPI that matters | Red flag |
|---|---|---|
| Inventory | Percent of applications, APIs, certificates, keys, signing paths, and vendors mapped to accountable owners. | Inventory excludes internal PKI, embedded systems, or managed encryption. |
| Exposure | Percent of RSA, ECC, ECDSA, DH, and vulnerable TLS paths scored by business criticality and data shelf life. | Risk ranking uses CVSS alone and ignores confidentiality life. |
| Migration | Percent of critical systems with funded hybrid or PQC migration plans. | Program depends on vendor roadmaps without contractual evidence. |
| Validation | Number of critical paths with proof-backed validation and remediation verification. | The program reports findings counts without proving exploitability. |
| Governance | Board review cadence, exception aging, executive owner, and risk-appetite statement. | Quantum risk lives inside innovation or architecture with no cyber-risk owner. |
| Monitoring | Frequency of drift detection across public, cloud, internal, and vendor surfaces. | Assessment is annual, static, and disconnected from change management. |
The CISO test. A mature program can answer five questions without a special project. Where are we exposed? What data remains valuable after 2029? Which vendors block migration? Which paths have been assessed? Which controls are drifting?
10 / Scrutiny
Counterpoints and disciplined answers
A credible note handles skepticism directly. The point is not to overstate certainty. The point is to show that action is rational under uncertainty.
The credibility boundary. The strongest version of QStrike is not that quantum computers can break production cryptography today. The defensible claim is narrower and more valuable: QStrike shows which current implementation defects, weak protocol choices, leakage patterns, and migration gaps are likely to matter first when quantum-capable adversaries arrive.
A cryptographically relevant quantum computer may not exist by 2029.
Correct. This note does not require that claim. 2029 is the control date for readiness evidence because platform and policy timelines have compressed and migration cycles are multi-year.
Open quantum-computing tooling is just one product launch.
Correct. Treat it as a compression signal, not proof of Q-Day. Its significance is that open models for calibration and decoding can accelerate the whole ecosystem.
Post-quantum standards may evolve.
Correct. That is why crypto-agility and hybrid readiness matter. Inventory, ownership, validation, and monitoring survive algorithm updates.
Vendor reports can look self-interested.
Correct. The answer is source discipline. Independent sources carry the timeline and threat model. Qtonic Quantum sources carry only product capability and public field evidence.
Internal metrics can be challenged.
Correct. Publish denominators, time windows, scope, exclusions, and review method. Avoid unqualified absolutes in public materials.
Large institutions already know this.
Some do. Few can prove coverage across all business units, vendors, certificates, signing paths, and long-lived data classes. The gap is evidence depth.
This discipline is why the note can be direct without sounding promotional. It does not ask the reader to believe Qtonic Quantum. It asks the reader to inspect the same public signals and then demand operational evidence.
11 / The Engagement
Working with Qtonic Quantum
A board does not need another quantum briefing. It needs evidence it can act on, a sequence it can fund, and a partner it can hold to both. That is the purpose of an engagement.
| What defines the work | In practice |
|---|---|
| Buyer-controlled by design | Assessment, validation, and migration governance. Qtonic Quantum does not sell encryption products, so findings are not steered toward an encryption product of its own. |
| Governed validation | QStrike converts priority exposure into governed, signed validation across six provider-aligned modeled profiles and four physical modalities, with provider-calibrated modeled testing where scope requires. Material risk is demonstrated, not asserted. Backed by the $2M QStrike Challenge, subject to published terms. |
| A field-evidence base | Informed by QScout Surface findings across public scans, 100,000+ to date, and by governed engagements showing widespread harvest-now-decrypt-later exposure. Public metrics are normalized and banded before release. |
| A methodology-governed standard | Within QSolve, the Lab anchors scoring against a published 10-dimension rubric. Results are released as ML-DSA-signed, hash-bound proof records, with no paid inclusion. |
| A defense-grade bench | A leadership team and councils drawing on former national-security, intelligence, and enterprise-security leaders, and serving enterprise CISOs. |
The modeled profile set
| Platform | Modality | Published model context | QStrike role |
|---|---|---|---|
| IBM Quantum | Superconducting | Direct (IBM Quantum Platform) | Modeled gate-system calibration context; no provider job implied |
| Rigetti | Superconducting | AWS Braket | Modeled superconducting calibration context; no provider job implied |
| IonQ | Trapped-ion | AWS Braket; direct | Modeled trapped-ion calibration context; no provider job implied |
| Quantinuum | Trapped-ion | Direct (Quantinuum Nexus) | Modeled trapped-ion calibration context; no provider job implied |
| QuEra | Neutral-atom | AWS Braket | Modeled neutral-atom calibration context; no provider job implied |
| D-Wave | Annealing | D-Wave Leap (direct); AWS Marketplace | Modeled annealing calibration context; no provider job implied |
Six provider-aligned modeled profiles span four physical modalities. Provider and access-route names describe model context and published calibration inputs; they do not establish provider access or execution. Google Quantum research team’s Willow and other non-commercial research processors are calibration inputs only, not in the modeled profile set; QStrike does not run customer workloads on them.
QScout finds and monitors. QStrike proves. QSolve fixes CryptoAgility, and includes the Qtonic Quantum Lab. The first step is deliberately small: a governed QScout assessment produces a cryptographic exposure snapshot with prioritized findings — fast enough to inform the next board cycle, structured to support audit and board review. QStrike then proves the material paths. QSolve sequences the migration. A program can begin narrow and widen on results rather than on faith.
12 / Execution
The first 90 days
A credible post-quantum program should begin small enough to execute and serious enough to survive scrutiny. The first 90 days should create evidence that budget, architecture, audit, legal, procurement, and business owners can use. Each phase produces a discrete artifact the next phase consumes.
01 · Mandate — Days 0–15
Name the executive owner, approve the 2029 control date, define data shelf-life categories, and establish a quantum risk register. Output: a board or risk-committee mandate with accountable owner and reporting cadence.
02 · Prove — QScout
Run external and credentialed discovery across highest-value domains, identity surfaces, APIs, certificates, key exchange, and vendor paths. Output: a cryptographic exposure snapshot with priority tiers.
03 · Fix — QStrike
Validate the top material exposure paths, identify HNDL-sensitive flows, map remediation owners, and separate urgent controls from long-cycle migration. Output: a proof-backed material risk report and remediation decision log.
04 · Prove — QSolve
Launch hybrid readiness pilots, update procurement clauses, define the exception process, and prepare the first board evidence pack. Output: a 90-day board pack with KPIs, gaps, funding ask, and next-quarter plan.
Decision rule. At the end of 90 days, leadership should know the first systems to protect, the first vendors to pressure, the first controls to pilot, the first exceptions to govern, and the first proof artifacts to retain. QScout is the fastest credible first step. QStrike is the proof layer for material risk. QSolve is the migration governance layer. This is not a brochure sequence. It is the control sequence.
13 / Reference
Glossary
| Term | Definition |
|---|---|
| CRQC | Cryptographically relevant quantum computer. One capable of breaking widely used public-key cryptography such as RSA and ECC at meaningful scale. |
| Q-Day | The future point at which quantum capability can defeat today's widely used public-key cryptography. |
| PQC | Post-quantum cryptography. Algorithms designed to resist attacks by both classical and quantum computers. |
| HNDL | Harvest now, decrypt later. Encrypted data is captured today and stored for later decryption. |
| Crypto-agility | The ability to change algorithms, keys, protocols, and implementations without breaking business operations. |
| Hybrid readiness | A transition state where classical and post-quantum controls operate together to reduce migration risk. |
| ML-KEM | NIST-standardized key-establishment mechanism for PQC, derived from CRYSTALS-Kyber (FIPS 203). |
| ML-DSA | NIST-standardized PQC digital signature algorithm, derived from CRYSTALS-Dilithium (FIPS 204). |
| SLH-DSA | NIST-standardized stateless hash-based signature algorithm, derived from SPHINCS+ (FIPS 205). |
| CNSA 2.0 | NSA guidance for quantum-resistant algorithms and transition timing for national security systems. |
| Cryptographic inventory | A governed map of where cryptography is used, who owns it, what it protects, and how it can migrate. |
| Validation | Evidence that a cryptographic exposure creates, or does not create, material business risk under defined scope. |
14 / The Firm
Leadership and councils
Qtonic Quantum’s strategy and standards are informed by defense-focused councils and a leadership team assembled for buyer-grade credibility.
| Name | Role | Background |
|---|---|---|
| Lt. Gen. Mark E. Weatherington, USAF (Ret.) | Chairman, Defense Innovation Council | Former Deputy Commander, Air Force Global Strike Command. |
| Lt. Gen. Roger L. Cloutier Jr., USA (Ret.) | Founding Chair, Allied Defense Council | Former Commander, NATO Allied Land Command. |
The wider councils and expert network draw on former national-security, intelligence, and enterprise-security leaders, including former agency leadership and serving chief information security officers at major financial and healthcare institutions. Affiliations are shown for identification only and do not imply employer endorsement. The full roster is published at qtonicquantum.com/leadership.
15 / Next Step
Start with a scoped assessment
The recommended starting point is a scoped QScout assessment. It produces the cryptographic exposure snapshot and finding register needed to decide whether QStrike validation is warranted. Commercial terms are provided under NDA at scoping.
Post-Quantum Ready, Continuously™
Notices
Notices & disclaimers
Nature of this note. Published by Qtonic Quantum Corp for general information and institutional discussion. It is not investment, legal, regulatory, tax, or audit advice and should not be relied upon as such.
Forward-looking statements. Statements about timelines, probabilities, regulation, and quantum capability are forward-looking and subject to uncertainty. The 2029 reference is a Qtonic Quantum planning assumption, not a prediction of when a cryptographically relevant quantum computer will exist, and is distinct from NIST IR 8547 timing and from the bounded 2030–2031 QStrike adversary model.
Resource estimates, not demonstrations. Cited cryptanalysis results — including the March 2026 Google Quantum research team ECDLP-256 estimate and the Caltech/Oratomic neutral-atom P-256 estimate — are resource estimates under stated assumptions, not demonstrated capability against production systems.
QStrike capability scope. QStrike provides a modeled forward-threat demonstration and resource-estimate analysis against deployed primitives. It does not claim, and should not be interpreted as claiming, present-day capability to break, decrypt, or forge production RSA-2048, ECC-256, ECDSA, or ECDH at full parameter sizes.
Company-reported metrics. “100,000+ findings,” “widespread HNDL exposure,” “18/100 Fortune-1000 readiness,” “governed false-positive control,” “200+ implementations evaluated,” and the “51.8/100 Lab average” are company-reported within authorized scopes, normalized and banded before release, and are not an independently audited market census.
Standards. NIST IR 8547 is an initial public draft; deprecation timing and scope may change in final publication. FIPS 203 (ML-KEM), FIPS 204 (ML-DSA), and FIPS 205 (SLH-DSA) are published standards. Use of ML-DSA for Lab attestations does not by itself imply FIPS 140-3 module validation. CNSA 2.0 applicability depends on an organization’s systems and contracts.
Third-party sources and incidents. Any third-party organization, product, standard, or publication named is referenced from public sources for context and is not certified, rated, or endorsed by Qtonic Quantum, and is not a Qtonic Quantum client. Market and financial-system statistics are attributable to their publishers, not to Qtonic Quantum. Illustrative customers, where used, are composite and fictional.
No public commercial terms; no binding offer. This page does not contain public commercial terms. Commercial terms are provided under NDA at scoping. No part of this note constitutes a binding offer.
$2M Challenge. The $2M Challenge applies to QStrike only, subject to published terms and review conditions, and does not apply to QScout, QSolve, or the Qtonic Quantum Lab.
No guarantee. No assessment, validation, or migration activity guarantees security, readiness, or the elimination of risk. Cryptographic risk evolves with technology, standards, and adversary capability.
Quotations and affiliations. Quotations are attributed to named individuals in their stated roles. Affiliations are shown for identification only and do not imply endorsement by any employer or third party.
Trademarks; governing law. Qtonic Quantum, QScout, QStrike, QSolve, and Post-Quantum Ready, Continuously are marks of Qtonic Quantum Corp. Other names and marks are the property of their respective owners. Florida law governs. © 2026 Qtonic Quantum Corp.