By NHI Mgmt Group Editorial TeamPublished 2025-07-09Domain: Best PracticesSource: Axiad

TL;DR: Passwords are being pushed out by three converging pressures: exposed credentials on the dark web, AI-assisted phishing and social engineering, and growing availability of phishing-resistant authentication such as FIDO passkeys and certificates, according to Axiad. The real shift is that stronger authentication is becoming operationally scalable, so password dependence is now a governance choice rather than a technical necessity.


At a glance

What this is: This is Axiad’s argument that workforce passwords are nearing retirement because breach-driven credential exposure, AI-enabled attack automation, and more scalable strong-authentication operations are converging.

Why it matters: IAM teams need to treat password removal as an identity programme decision across human users and downstream NHI credentials, because weak authentication patterns amplify credential stuffing, phishing, and access sprawl.

By the numbers:

👉 Read Axiad's analysis of why workforce passwords are fading


Context

Passwords remain attractive to attackers because they are easy to steal, easy to reuse, and easy to automate. In identity programmes, that means the problem is not just authentication strength, but whether the organisation can remove a credential type that keeps showing up in breach data, dark web marketplaces, and phishing kits.

The article frames workforce password retirement as an operational transition, not a theoretical preference. That matters for IAM, PAM, and NHI governance because the same trust assumptions that fail for human logins often fail for service credentials, API keys, and other non-human identity flows as well.


Key questions

Q: How should security teams phase out passwords without breaking workforce access?

A: Start with the highest-risk populations and the most exposed applications, then introduce phishing-resistant factors alongside clear recovery and help desk processes. The goal is to remove passwords from critical paths without creating unmanaged fallback channels. Successful migration depends on inventory, device readiness, and lifecycle support, not just the choice of authentication factor.

Q: Why do phishing-resistant factors matter more than stronger passwords?

A: Because they change the attack model. Stronger passwords still rely on secrets that humans can type, reuse, or disclose under pressure. Phishing-resistant factors such as FIDO and PKI bind authentication to a possession factor, making replay and credential theft far less effective. That is a structural improvement, not just a stronger version of the same weakness.

Q: What operational controls are needed before passwordless rollout?

A: You need issuance, replacement, preregistration, recovery, and help desk workflows that work at scale. Without those controls, strong authentication becomes a support problem and organisations fall back to passwords. The control objective is to make secure authentication easy enough to sustain across thousands of users and devices.

Q: Who should be first in line for password retirement?

A: Privileged users, high-risk business roles, and externally exposed access paths should move first because they are the most attractive targets for phishing and credential stuffing. Those groups deliver the fastest risk reduction and force the organisation to solve the hardest operational issues early.


Technical breakdown

Why password reuse still fuels credential stuffing

Password reuse turns one exposed secret into many viable logins. Once credentials appear in breach corpuses or dark web markets, attackers can automate credential stuffing and password spraying at scale because the authentication model still trusts knowledge factors that are cheap to clone. The article’s dark web examples show how stolen usernames and passwords become reusable inventory, not isolated incidents. For enterprises, the technical issue is not only compromise detection. It is the persistence of a login method that remains structurally easy to harvest, test, and replay across environments.

Practical implication: remove high-value accounts from password-only or password-first flows and measure how many logins still accept reusable knowledge factors.

How AI changes phishing and social engineering economics

AI changes the economics of social engineering by improving both quality and volume. It can generate polished phishing text, imitate internal tone, add context from public sources, and support deepfake voice or video impersonation. That reduces the noisy signals defenders historically relied on, such as grammar errors and obvious template reuse. The result is not a new identity primitive, but a lower-cost path to convincing a human to surrender one. For identity teams, this expands the attack surface around authentication even when the control itself has not changed.

Practical implication: treat phishing resistance, not user caution, as the primary control objective for workforce authentication.

What makes phishing-resistant authentication operationally viable

Phishing-resistant authentication works when the factor is bound to the device or cryptographic credential rather than the user’s memory. FIDO, PKI certificates, smart cards, and related possession factors reduce replay risk because they do not behave like shared or copyable passwords. The article’s operational point is that these controls now have a management layer, such as credential management systems, that can handle issuance, replacement, and lifecycle operations at scale. That changes the old tradeoff between security and usability.

Practical implication: use lifecycle-managed possession factors for the populations that can support them and reserve passwords only where migration blockers are real.


NHI Mgmt Group analysis

Password retirement is now a governance problem, not a usability preference. The article is right that breaches, dark web markets, and AI-generated phishing have made passwords structurally weak. The more important point is that security programmes still treating passwords as the default are preserving an attack path that has become cheaper to exploit and harder to defend. Identity leaders should stop asking whether passwords are familiar enough and start asking why they are still policy-compliant in high-risk access paths.

Phishing-resistant authentication changes the economics of identity compromise. FIDO and PKI do more than reduce user friction at the point of login. They remove the most reusable secret from the attacker’s toolkit and replace it with a factor that is materially harder to replay at scale. That is why the article’s CISA alignment matters: the control is no longer experimental, and the organisation’s challenge is operational adoption, not conceptual acceptance. Practitioners should re-evaluate where knowledge factors still sit in privileged and workforce flows.

Credential management at scale is the named concept here. The article’s most useful operational insight is that strong authentication only becomes viable when issuance, replacement, preregistration, and reset processes are manageable across thousands of users and devices. That means the real failure mode is not lack of cryptography, but unmanaged lifecycle overhead. Identity teams that cannot scale credential operations will keep passwords in place even when everyone agrees they are weaker.

Workforce authentication and NHI governance now share the same design pressure. The article focuses on human login, but the underlying lesson extends to service accounts, API keys, and other non-human identities that also rely on reusable secrets. When organisations tolerate one weak authentication pattern in the workforce, they often mirror that weakness in machine identity programmes. Practitioners should treat password retirement as part of a broader move toward secret minimisation across identity types.

The market is shifting from password replacement to identity operations. The article shows that the deciding factor is no longer whether a stronger factor exists. It is whether the organisation can issue, rotate, recover, and audit it without creating operational drag. That is where modern IAM programmes will differentiate themselves: not by announcing passwordless intent, but by running a credential lifecycle that users and admins can sustain.

From our research:

  • 71% of NHIs are not rotated within recommended time frames, increasing the risk of compromise over time, according to Ultimate Guide to NHIs.
  • Only 5.7% of organisations have full visibility into their service accounts, which shows how weak identity oversight remains even before attackers enter the picture.
  • For the lifecycle angle behind this post, see Ultimate Guide to NHIs , Key Challenges and Risks for the broader rotation and visibility issues that passwordless programmes must not ignore.

What this signals

Credential lifecycle is the hidden constraint in password retirement programmes. Organisations can adopt stronger authentication only when they can issue, replace, recover, and audit credentials without delay. The operational bottleneck is rarely cryptography. It is the supportability of lifecycle events across large, distributed workforces and the identity systems that depend on them.

The same pattern will surface in machine identity programmes. If teams cannot manage human possession factors cleanly, they usually cannot manage service account credentials, certificates, and other non-human secrets cleanly either. That is why password reduction should be treated as an IAM maturity signal, not a standalone security project.

With 96% of organisations storing secrets outside secrets managers in vulnerable locations including code, config files, and CI/CD tools, per the Ultimate Guide to NHIs, the broader lesson is that weak secret handling tends to travel across identity types unless governance changes with it.


For practitioners

  • Map password-dependent access paths first Inventory where workforce users still rely on passwords for primary or fallback access, then separate low-risk from high-risk flows so migration starts with privileged and internet-exposed entry points.
  • Prioritise phishing-resistant factors for exposed roles Roll out FIDO or PKI-based factors first to administrators, finance, support, and other roles most likely to be targeted by credential theft and impersonation.
  • Build the lifecycle operations before broad rollout Prepare issuance, replacement, preregistration, PIN reset, and device recovery workflows before expanding strong credentials to large populations.
  • Treat password fallback as a risk decision Define where fallback authentication is acceptable, where it should be limited, and where it should be eliminated because it reintroduces the same attack path you are trying to remove.

Key takeaways

  • Passwords remain weak because they are easy to steal, reuse, and automate at scale.
  • Phishing-resistant authentication is now operationally viable, but only if lifecycle operations are designed upfront.
  • Identity teams should treat password retirement as an IAM and lifecycle programme, not just an authentication upgrade.

Standards & Framework Alignment

This section maps relevant standards and security frameworks to the operational risks and controls described in this guidance.

OWASP Non-Human Identity Top 10 address the attack and risk surface, while NIST CSF 2.0 and NIST Zero Trust (SP 800-207) set the governance and control requirements practitioners need to meet.

FrameworkControl / ReferenceRelevance
OWASP Non-Human Identity Top 10NHI-03Password retirement depends on controlled credential lifecycle and reduced secret reuse.
NIST CSF 2.0PR.AC-1Strong authentication and access control directly support identity proofing and access decisions.
NIST Zero Trust (SP 800-207)ID and AC functionsPhishing-resistant authentication supports continuous trust decisions in zero trust environments.

Replace reusable secrets with managed possession factors and enforce lifecycle controls for recovery and replacement.


Key terms

  • Phishing-resistant authentication: Authentication that does not depend on a reusable secret a user can type or hand over to an attacker. It uses possession-bound factors such as FIDO keys or certificates, which are much harder to replay after interception and are better suited to high-risk access paths.
  • Credential management system: Software that issues, tracks, replaces, and recovers strong credentials at scale. In identity programmes, it becomes the operational layer that makes certificate-based or token-based authentication workable for large workforces without forcing a return to passwords.
  • Passwordless authentication: An access model that removes passwords from the primary login flow and relies instead on possession, biometrics, or cryptographic credentials. It reduces phishing exposure, but only if recovery, fallback, and lifecycle operations are designed to avoid recreating the same weak trust model.
  • Knowledge factor: An authentication factor based on something the user knows, such as a password or PIN. It is convenient, but it remains vulnerable to theft, reuse, coercion, and automated attack, which is why it is a poor fit for high-value access on its own.

Deepen your knowledge

NHI governance, agentic AI identity, and machine identity security are core topics in our NHI Foundation Level course, the industry's only accredited NHI security programme. If you are responsible for identity security strategy or NHI governance in your organisation, it is worth exploring.

This post draws on content published by Axiad: Enough is Enough, 4 Reasons Passwords Will Be Flushed This Year. Read the original.

NHIMG Editorial Note
Published by the NHIMG editorial team on 2025-07-09.
NHI Mgmt Group — the independent authority on Non-Human Identity, IAM, and Agentic AI security. nhimg.org