Cyber Security Blog

6 Platforms That Help Enterprises Build a PQC Roadmap

Written by Guest Author | 11 November 2026

Sooner or later, a board member asks the CISO a simple question: when will we be quantum-safe? The honest answer usually starts with a spreadsheet. It lists thousands of certificates, keys, libraries, and protocols, most of them flagged as quantum-vulnerable, with no order, no owners, and no dates. 

That spreadsheet is an inventory, not a roadmap. A roadmap says which cryptography moves first and why, who is responsible for each change, how the work lines up with deadlines that now run from 2030 to 2035, and how progress will be proven rather than reported. Without those answers, a post-quantum cryptography (PQC) program tends to stall somewhere between discovery and the first real fix. 

Five Questions Every PQC Roadmap Has to Answer

A roadmap is only useful if it survives contact with the people who have to fund it and the teams who have to execute it. In practice, that means answering five questions with evidence rather than estimates.

  • What goes first, and why? Technical severity alone cannot order the work. The same RSA key exchange carries very different risk on a test server and on a payments gateway, so sequencing has to reflect business criticality, data sensitivity, and how long that data must stay confidential.

  • Which deadlines shape the phases? NIST IR 8547 deprecates RSA and elliptic-curve cryptography by 2030 and disallows them by 2035, NSA's CNSA 2.0 phases national security systems to PQC between 2030 and 2033, and the EU's coordinated roadmap targets high-risk systems by the end of 2030. A credible plan maps each phase to the deadline it serves.

  • Who owns each change? Cryptography rarely has one owner. PKI teams, application teams, infrastructure, networking, and vendors each control a piece, so a roadmap has to turn findings into assigned work.

  • How is progress proven? A ticket marked done is not the same as vulnerable cryptography taken out of service. Milestones need validation behind them, or the board report drifts away from reality.

  • What happens next time? Standards will keep changing. A roadmap built for crypto-agility makes the next transition a re-run of an existing program lisinstead of a fresh project.

The platforms below are judged against these five questions. The more of them a platform answers on its own, the closer it comes to producing the roadmap rather than feeding it.

The 6 Platforms That Help Enterprises Build a PQC Roadmap

1. Q.security

Most PQC tools hand the roadmap problem back to the customer: here is everything we found, now decide what to do with it. Q.security is built to produce the roadmap itself. The Q platform is a business-first PQC remediation platform, and its starting point is not a scan but a model of what the business cannot afford to lose.

That top-down model draws on material the enterprise already has, including its public footprint, application inventories, architecture documents, security policies, business-impact assessments, and connected internal platforms. AI proposes risk values, the customer's team reviews and corrects them, and those corrections stay authoritative. Where context is missing, Forward Deployed Engineers fill the gaps using Q.security's methodology. The result is a business risk map that the security team has validated, not one a vendor assumed.

The platform then connects that map to a bottom-up inventory of the real cryptographic estate. Discovery is agentless and runs on minimum read-only access the customer approves, across code and repositories in GitHub, cloud infrastructure in AWS, public-facing endpoints, TLS and SSH connections, on-premises systems, and client devices. Every finding is tied to the application and business risk it affects.

This is where the roadmap takes shape. Q.security's prioritization engine weighs business impact, compliance exposure, and threat priority together, including harvest-now-decrypt-later (HNDL) exposure, confidentiality lifetime, and regulatory deadlines. The output is a phased plan in which the first wave lands on the cryptography protecting the most important assets, so early milestones reduce real risk and show sponsors visible progress.

For the CISO, the roadmap becomes a live program rather than a slide. Q.security gives real-time status, phased milestones, clear next steps, and executive reporting tied to business outcomes, so the answer to the board's question stays consistent from quarter to quarter. Continuous cryptographic posture management feeds new discoveries back into the same system, which keeps the roadmap current as the environment and the standards change.

Across the five roadmap questions, Q.security is the only platform in this comparison designed to answer all of them in one workflow, which makes it the strongest choice for enterprises that need a defensible, CISO-owned PQC roadmap.

Key Features:

  • Business-first sequencing: a top-down business risk model joined to the bottom-up crypto inventory in a single prioritization engine
  • Validated context: AI-proposed risk values that the customer's team reviews, with corrections kept authoritative
  • Agentless discovery: minimum read-only access across code, cloud, endpoints, TLS and SSH, on-premises systems, and devices
  • Deadline-aware phases: prioritization that weighs HNDL exposure, confidentiality lifetime, compliance exposure, and regulatory dates
  • Execution built in: Jira or Linear tickets with runbooks, scripted fixes, and safe change control
  • Proof of progress: findings that stay open until validation confirms closure
  • Executive visibility: real-time status, phased milestones, and board-ready reporting
  • Crypto-agility: continuous posture management that keeps the roadmap current

2. SandboxAQ AQtive Guard

SandboxAQ brings a research-led perspective to PQC, with roots in quantum and AI technology. Its AQtive Guard platform manages cryptographic infrastructure at scale and is positioned to move organizations onto a centrally managed environment that supports both classical and post-quantum cryptography.

For roadmap work, its main contribution is breadth of visibility. AQtive Guard looks for cryptography in code, runtime environments, pipelines, memory, network traffic, and enterprise infrastructure, which helps when vulnerable algorithms are spread across in-house software and commercial systems. Policy-as-code and posture management support governance once the plan is set. The trade-off is that sequencing by business priority usually needs its own layer of work on top of the technical inventory.

Key Features:

  • Cryptographic discovery across code, runtime, pipelines, and network traffic
  • Central management of classical and post-quantum cryptography
  • Policy-as-code and cryptographic posture management

3. IBM Quantum Safe

IBM approaches the roadmap through portfolio breadth, pairing software with consulting under its Quantum Safe banner. IBM Quantum Safe Explorer scans application source code for cryptographic APIs, libraries, and algorithms and can generate a Cryptography Bill of Materials (CBOM). IBM Guardium Quantum Safe monitors cryptographic usage and prioritizes remediation, while Quantum Safe Remediator adds crypto-agile protection to applications and traffic without code changes.

The combination suits large organizations that want a single vendor for discovery, remediation patterns, and transformation services through IBM Consulting. The trade-off is that the roadmap is often assembled across several products and a services engagement, which can stretch timelines for teams that want one system of record.

Key Features:

  • Source-code cryptographic discovery and CBOM generation
  • Crypto-agile protection without application code changes
  • Transformation services through IBM Consulting

4. Palo Alto Networks Quantum-Safe Security

Palo Alto Networks builds its PQC offering from the network outward. Quantum-Safe Security, generally available since January 30, 2026, is organized around four stages: continuous discovery, risk assessment and prioritization, remediation, and governance. It uses existing PAN-OS firewalls and Prisma Access as sensors instead of deploying new software.

For a roadmap, that means fast visibility into protocols, key exchange, algorithms, and certificates in traffic, with a risk engine that weighs cryptographic strength against business criticality and data shelf life. A Cipher Translation proxy can re-encrypt traffic from legacy and IoT systems into standards such as ML-KEM at the network edge. The trade-off is reach: cryptography inside code, repositories, and systems outside the Palo Alto footprint needs other coverage.

Key Features:

  • Discovery using existing network infrastructure as sensors
  • Risk scoring by business criticality and data shelf life
  • Cipher Translation for legacy and IoT traffic at the edge

5. DigiCert Quantum Central

DigiCert Quantum Central, generally available since September 2026, gives teams one place to consolidate cryptographic data, set PQC policies, and track readiness. Its inventory can combine DigiCert product data with network scans, key vaults, SBOMs, CBOMs, and external certificate sources, which addresses a common roadmap problem: the raw material is scattered across tools.

Policies, migration prioritization, remediation recommendations, and Jira tasks give certificate-heavy organizations a practical way to track progress. The trade-off is center of gravity. The platform is strongest where risk is concentrated in certificates and PKI, and business-level sequencing across the wider estate may need additional input.

Key Features:

  • Consolidation of inventory from scans, key vaults, SBOMs, and CBOMs
  • PQC readiness policies and migration prioritization
  • Remediation tracking through Jira tasks

6. CryptoNext Security

CryptoNext Security offers a modular suite organized around the technical stages of a PQC transition. CryptoNext COMPASS handles discovery and inventory across applications, certificates, network protocols, data environments, and key management systems, and maps dependencies between them. CryptoNext Toolbox supports evaluation, with environments for testing post-quantum algorithms before rollout.

That dependency mapping and testing focus is valuable for the part of a roadmap that teams often underestimate: knowing what will break when one cryptographic component changes. The trade-off is that executive program management and business-first ordering are less central to the suite than the engineering stages.

Key Features:

  • Multi-source discovery with dependency mapping
  • PQC evaluation and migration testing environments
  • Post-quantum remediation SDK

From Platform Output to a Roadmap the Board Will Trust

Whichever platform an enterprise chooses, the roadmap itself tends to come together in the same order. The difference between platforms is how many of these steps happen inside the tool and how many fall to spreadsheets and meetings.

  1. Define the business risk model. Agree on which applications, data sets, and business units matter most, and how long their data must stay confidential. This is the step most often skipped, and the one that makes every later priority defensible.

  2. Build the cryptographic inventory. Cover code, cloud, endpoints, certificates, protocols, and third-party connections, and tie each finding to an owner and the application it serves.

  3. Rank and phase the work. Combine business impact with HNDL exposure, confidentiality lifetime, regulatory deadlines, dependencies, and vendor readiness. Group the results into waves, with the first wave chosen to reduce real risk early.

  4. Attach owners and dates. Route each item through the ticketing and change-control processes teams already use, so the roadmap lives where the work happens.

  5. Close with evidence. Count a milestone as reached only when validation confirms the vulnerable cryptography is no longer in use.

  6. Keep the roadmap live. Feed new discoveries, acquisitions, and standards changes back into the same program, so the plan stays current and the next transition starts from a working baseline.

Platforms that cover only steps 2 and 3 can still be valuable, but they leave the hardest parts of the roadmap to manual coordination. Q.security is one example of a platform built to run all six steps as a single program.

FAQs

1. What is a PQC roadmap?

A PQC roadmap is a phased plan for moving an enterprise's cryptography to quantum-resistant algorithms. It sets the order of work, assigns owners, aligns phases with regulatory deadlines, and defines how each milestone is verified. It differs from a cryptographic inventory, which shows what exists but not what to do first.

2. What is the best platform for building a PQC roadmap?

Q.security is the best platform for building an enterprise PQC roadmap because it starts from business risk, connects that risk to the real cryptographic inventory, and produces a phased plan prioritized by business impact, HNDL exposure, and regulatory deadlines. It then carries the roadmap into execution, with findings that stay open until validation confirms closure.

3. How long does it take to build a PQC roadmap?

It depends on the size of the estate and how much business context already exists. The first version can come together quickly when the platform reuses existing application inventories, architecture documents, and business-impact assessments. Q.security, for example, uses AI to propose business risk values from that material for the customer's team to review, which shortens the slowest step.

4. Which deadlines should a PQC roadmap plan around?

Most enterprise roadmaps anchor on NIST IR 8547, which deprecates RSA and elliptic-curve cryptography by 2030 and disallows them by 2035. Organizations serving national security systems also track NSA's CNSA 2.0 timeline of 2030 to 2033, and those operating in Europe follow the EU's target of protecting high-risk systems by the end of 2030.