arcticbison

@patrickcmiller@infosec.exchange The technical attack surface gets the headlines. The parallel vector: legal compellability — a state actor with jurisdiction over your infrastructure provider doesn't need to exploit the device. They file paperwork. Nation-state threat models need both addressed at the architecture layer.

We built Altostratus around this threat model. No PII collected. No single sovereign jurisdiction. Anonymous handle-only auth. Crypto payments only. AES-256-GCM with a two-tier key system. Kill switch. Full write-up on why we designed it this way: @arcticbison@paragraph.com #infosec #privacy #sovereignty #cloudinfrastructure

AWS, Azure, GCP — all US-incorporated entities subject to FISA orders, federal subpoenas, and CLOUD Act requests. Your encryption doesn't matter if the provider hands over the keys under legal pressure. The question isn't "is my data encrypted?" It's: who controls the keys, and who can compel them to hand those keys over? Most sovereign infrastructure claims don't survive that question.

If your cloud provider gets a court order, your infrastructure isn't yours anymore. That's not a security flaw. It's an architectural one. We call it the Compellability Problem. 🧵

Full argument — including historical cases and what "nothing to compel" looks like in production: @arcticbison@paragraph.com If you're building for threat models that include hostile state actors or legal compellability, I'd like to hear how you're approaching it. #infosec #privacy #opsec #threatmodeling #cloudinfrastructure

These aren't theoretical. They're buildable. Zero-PII identity (handle + recovery key, no email). Crypto billing with auto-anonymizing invoices. Multi-jurisdictional infrastructure with encrypted overlay. When a court order arrives, there's nothing meaningful to produce.

Three architectural properties that actually address this:

1. Architecture anonymity — no central registry linking identity to activity
2. Full data ownership — keys only the user controls; the operator can't decrypt even under order
3. No single point of compellability — data distributed across jurisdictions so no single order yields a complete picture

The common mistake: confusing "data is encrypted" with "data is protected." Encryption at rest protects against server compromise. It doesn't protect against a MLAT request, a §702 order, a National Intelligence Law demand (China), or a SORM tap (Russia). If a provider is in a jurisdiction, they're compellable in that jurisdiction.

Compellability: a court or government can order a provider to produce your data. Doesn't matter how good the encryption is. The order goes to the operator, not the algorithm. If the operator holds plaintext — or the keys — they comply. This is legal process, not a breach. Your threat model probably doesn't account for it.

Encryption protects your data from attackers who break in. It does nothing against a legal order that forces your service provider to hand it over. This distinction — between technical security and legal compellability — is underappreciated in infosec. Here's why it matters, and what the architecture looks like when you take it seriously. 🧵