Organizations are now actively testing and migrating priority systems as they enter Stage 4 of a five-stage quantum-safe cryptography approach, according to Keyfactor. This shift marks a critical move from planning to repeatable action, a necessity given the challenges of managing cryptographic assets at scale; a recent Forrester study commissioned by Keyfactor revealed automated certificate provisioning takes two minutes per certificate, compared to ninety minutes with manual processes, the company says.
“Your plan is ready, now it must scale,” reflects the current focus as organizations confront increasingly frequent certificate renewals and the complexities of post-quantum constructions. This stage builds upon completed risk prioritization, enabling teams to focus on the most critical systems for immediate migration.
Keyfactor’s Five Stages to Quantum-Safe Cryptography
This disparity highlights the growing need for automation as organizations prepare for the complexities of post-quantum cryptography and increasingly frequent certificate renewals. Keyfactor’s framework addresses this challenge by defining five stages of preparedness, culminating in continuous resilience through established patterns and validation processes. Stage 4 of this framework, characterized by agility and automation, marks a critical transition from planning to active execution, a shift currently underway for many organizations.
“Stage 4, agility and automation, is where organizations move from planning into execution,” Keyfactor explains, highlighting the focus on repeatable, scalable action. Beyond simply accelerating processes, automation supports consistency and reliability during large-scale algorithm swaps, minimizing potential disruptions.
The benefits of automation were demonstrated by GRENKE, a Keyfactor customer that reportedly eliminated approximately sixty certificate-related outages and reduced certificate provisioning time from forty-five minutes to under five minutes, according to the company. This improvement was achieved through the implementation of automated certificate lifecycle management, a strategy Keyfactor advocates for transitioning to a quantum-resistant public key infrastructure, the firm reports. The company also offers a PQC Readiness Assessment, a six-question evaluation designed to pinpoint areas needing attention and gauge an organization’s current cryptographic posture.
Successfully transitioning to post-quantum cryptography demands more than just implementing new algorithms; it requires a fundamental shift towards automated, policy-driven management. Validating hybrid and PQC certificates in non-production environments before each rollout is important for ensuring performance, compatibility and scalability.
Keyfactor’s PQC Lab sandbox provides a dedicated space for this testing, mitigating the risk of disruptions to production systems. “Automation lets security, identity, and infrastructure teams work from the same playbook,” the company states, emphasizing the importance of a unified approach. The five-stage framework, according to Keyfactor, should be adopted at all levels, from algorithms to enterprise architectures.
The framework’s granular approach, assessing PQC readiness across six dimensions, moves beyond broad statements of preparedness to identify specific areas needing attention. This detailed evaluation allows organizations to focus their efforts and resources on the most critical vulnerabilities as systems transition to quantum-resistant algorithms, ensuring a more secure and resilient cryptographic infrastructure.
Stage 4, agility and automation, is where organizations move from planning into execution.
Forrester Study Quantifies Automation’s Impact on Certificate Management
This finding reflects a current industry focus on scalability, as organizations move beyond planning and into the practical implementation of post-quantum cryptographic solutions, a shift described by the company as needing to “scale” existing plans. The study quantified benefits beyond simple time savings, identifying substantial improvements across certificate lifecycle management processes. Certificate renewal, a traditionally time-intensive task, demonstrates a significant reduction in effort when automated, decreasing from twenty-five minutes to just one minute, while deploying new certificates improves from seventy minutes to fifteen minutes.
Forrester clarified these figures serve as benchmarks for internal organizational assessment, rather than guaranteed universal outcomes, but the data highlights the potential for streamlining operations. The impending changes mandated by CA/Browser Forum Ballot SC-081v3, which will reduce public TLS certificate lifespans, are projected to increase renewal frequency by approximately eightfold by 2029, further intensifying the need for automated solutions.
This increased frequency coincides with an anticipated annual growth rate of eight to twelve percent in overall certificate volumes, compounding the challenges of manual management. Post-quantum cryptography introduces additional complexity, as post-quantum keys and ciphertexts differ considerably in size from their classical counterparts, demanding a more robust and scalable approach. Keyfactor asserts that automated, policy-driven management is the only viable solution to handle this growing workload without requiring a proportional increase in personnel, a claim supported by the Forrester findings.
Indicators of an organization’s progress toward Stage 4 PQC readiness, according to the framework, include a funded program with designated ownership, automated discovery across critical environments, and controlled production migrations with tracked exceptions. One interviewee participating in the Forrester study directly linked certificate outages to frequent installation errors, emphasizing the reliability benefits offered by automated systems.
The study’s results suggest organizations can achieve significant operational efficiencies by embracing automation, particularly as they navigate the increasingly complex landscape of certificate management and prepare for the transition to post-quantum cryptography. The shift to forty-seven-day certificate lifespans, as dictated by the ballot, will necessitate a dramatic increase in renewal frequency compared to the current 398-day standard, placing further strain on existing resources.
Your plan is ready, now it must scale.
Stage 4 Focus: Scaling PQC Migration with Agility
Keyfactor asserts that organizations entering Stage 4 of their quantum-safe cryptography framework are now focused on repeatable execution, a critical shift given the complexities of managing cryptographic assets at scale. Automation forms the foundation of Stage 4, enabling security, identity and infrastructure teams to operate from a unified playbook and maintain consistency throughout the migration process.
A recent assessment by Keyfactor revealed a stark contrast in efficiency between manual and automated certificate provisioning; completing the process manually requires approximately ninety minutes, while automated systems achieve the same result in just two minutes, the company states. This disparity highlights the impracticality of manual processes when scaling migration efforts. The company maintains that automation is the only viable path to enterprise-level deployment without substantial increases in personnel.
Centralized policy governance further streamlines the process by defining approved algorithms and security parameters, reducing the need for code modifications as requirements evolve. Stage 4 transforms prior planning into active migration at scale, demanding a commitment to automation to sustain momentum and minimize disruption. Forrester research quantified these gains, demonstrating substantial time savings through automated certificate lifecycle management. The company encourages teams to explore a PQC Lab to test subsequent migration waves, emphasizing that Stage 4 is defined by establishing a sustainable, policy-driven system for managing cryptographic agility, the company’s account states.
This isn’t simply about speed, but about creating consistent and reliable migration efforts that allow organizations to scale without a proportional increase in staff. Keyfactor highlights that manual processes are insufficient for a migration impacting every certificate, key and algorithm. A company’s ability to standardize successful processes and maintain visibility as the migration expands is central to achieving sustained momentum.
Automation lets security, identity, and infrastructure teams work from the same playbook.
PQC Readiness Assessment: Evaluating Organizational Cryptographic Posture
Keyfactor’s PQC Readiness Assessment, a six-question evaluation, requires approximately two minutes to complete and offers organizations a granular view of their cryptographic preparedness across six distinct dimensions. This assessment moves beyond generalized statements of readiness to pinpoint specific areas needing attention as systems transition to quantum-resistant algorithms, providing a detailed picture of an organization’s current standing. Level 4 readiness, a critical juncture in Keyfactor’s five-stage approach, signifies a shift toward repeatable execution of PQC migration plans, marked by a funded program with named owners and active organizational support.
At this stage, automated discovery tools extend to all critical environments, offering comprehensive visibility into cryptographic deployments and potential vulnerabilities. Certificate renewal, a traditionally manual process taking 25 minutes, is reduced to just one minute with automation, while new deployments improve from 70 minutes to 15 minutes, according to the company.
The assessment considers cryptographic observability, noting that Level 4 organizations have automated discovery across critical environments, essential for mapping existing cryptographic assets and identifying those requiring updates to post-quantum algorithms. This granular approach, scoring organizations across six dimensions, allows for targeted improvements and a more efficient transition to quantum-resistant cryptography, ensuring coordinated effort across teams and a sustainable system for managing evolving threats.
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