Shareholder & stakeholder update
How a login actually happens — and what changed this quarter
This page walks through the real protocol behind every Access Glow login, in plain language, alongside the measured results of a performance review completed this quarter. Nothing here is simplified into fiction — these are the actual standards and the actual numbers.
The login flow
Six steps, roughly two seconds end to end. Three parties are involved: the website a customer is logging into, the Access Glow service, and the customer's own phone.
Why this holds up
Three properties of the design that reduce the risk categories most password breaches come from.
- Nothing to steal. No password is ever typed, transmitted, or stored for this login method — eliminating reuse and credential-stuffing attacks by design, not by policy.
- Biometrics never travel. Face ID and fingerprint checks happen inside the phone's own secure hardware. Access Glow only ever receives a cryptographic signature — never the biometric itself.
- Still plays by the site's rules. Completion runs through WordPress's standard sign-in process, so firewalls, audit logs, and other installed security plugins keep working exactly as before.
What changed this quarter
Results from controlled capacity tests against the live production service, comparing before and after a series of security and performance improvements completed this quarter. Figures are measured against real infrastructure, not projected.
Concurrent logins handled with zero errorswas <1001,100↑ 11×, full real login flow, 100% success
Time to verify a site's identitywas 371 ms19ms↓ 19× faster
Requests that stalled under peak loadwas 80% of traffic0%stalls eliminated
Passwords stored for this login method0alwaysby design, not policy
Access Glow's security model is built around cryptographically secure tokens, device-bound signatures, and biometric verification performed entirely on-device. This quarter's optimization work removed a capacity bottleneck without changing that model — the same standards shown above now run substantially faster under real-world load.