I was wondering if the Devs would consider working on building the Digital Escape Egress app in lieu of me volunteering in my local community? I pledge to match your hours or in whatever ratio seems fair.
For example: There is a group of women in my locality that cook with produce from their own land and then take it to feed the homeless in Porto. I am joining them for the next one.
Hey, can you share more about the project , specifically the parts that developers can contribute?
Thanks for sharing this, nice initiative though
I would love to discuss about how i can contribute to this
The Digital Escape Egress is not a hotline.
Not a reporting tool.
It is a privacy-first, decentralised, survivor-controlled egress protocol — built directly on Logos infrastructure.
This is a real-world stress test of the Logos stack under adversarial conditions.
If it works here, it works anywhere.
How It Uses Logos Technology
1.Encrypted Evidence Vault — Logos Storage + Chain
Files encrypted locally on device.
Hash generated.
Hash anchored on Logos blockchain.
Encrypted file optionally sharded across Logos decentralised storage nodes.
Result:
No readable central server copy.
Survivor retains keys.
Tamper-proof proof of existence.
Court-verifiable timestamp.
This demonstrates real-world blockchain utility — without exposing personal data on-chain.
2.Encrypted Distress Mesh — Logos Messaging
Instead of default police escalation:
Survivor pre-selects trusted contacts.
Distress packet encrypted end-to-end.
Optional timed release or “deadman switch.”
No central panic-button server.
Trust is distributed.
3.Self-Sovereign Identity — Legal Export
Future integration:
Decentralised identity (DID).
Exportable encrypted evidence bundle.
Selective disclosure.
Portable, verifiable documentation.
Sovereignty includes control over when and how you reveal information.
4.Optional Emergency Wallet
Economic coercion traps survivors.
A hidden stablecoin micro-wallet layer provides:
Emergency access to funds.
Optional multisig with trusted contact.
Financial autonomy during exit.
Digital Escape Egress — FURPS Specification
A universal private exit protocol for any high-risk, monitored environment
(journalists, activists, whistleblowers, refugees).
System Type: Privacy-first, decentralised survivor egress protocol
Core Stack: Logos Messaging + Storage + Blockchain + Identity Layer
f. FUNCTIONAL REQUIREMENTS
1. Encrypted Evidence Vault
Users can:
Capture/upload files (images, audio, text, video)
Encrypt files locally on device (client-side encryption)
Generate cryptographic hash (SHA-256 or equivalent)
Anchor hash to Logos blockchain
Optionally shard encrypted data across decentralised storage nodes
System must:
Never store unencrypted data centrally
Allow users to export encrypted evidence bundles
Provide verifiable timestamp + hash integrity check
2. Encrypted Distress Mesh
Users can:
Pre-select trusted contacts (peer-to-peer)
Trigger distress signal manually or automatically
Send encrypted “distress packets” (location optional, user-controlled)
Set timed release or deadman switch triggers
System must:
Use end-to-end encryption (no central relay visibility)
Operate without centralised panic server
Support asynchronous message delivery (offline-first capability)
3. Self-Sovereign Identity (Future Integration)
Users can:
Create decentralised identity (DID)
Attach verified credentials (optional)
Export selective disclosures (zero-knowledge or minimal exposure)
System must:
Enable encrypted evidence export for legal use
Maintain user-controlled key ownership
Support interoperability with EU legal/identity frameworks (eIDAS future alignment)
4. Emergency Wallet Layer (Optional)
Users can:
Hold small-value stablecoin funds
Access funds privately during exit scenarios
Enable optional multisig (trusted contact co-sign)
System must:
Obfuscate wallet presence (stealth mode)
Allow fast, low-friction transactions
Support basic integrations (transport, shelter partners in future)
u. USABILITY REQUIREMENTS
Stealth-first UX
Disguised interface (e.g. neutral app appearance)
Rapid exit / panic mode (instant screen wipe or redirect)
Low cognitive load
One-tap actions for distress + evidence capture
Minimal setup required (guided onboarding)
Trauma-aware design
No complex flows under stress
Clear, calm, non-technical language
Offline resilience
Core features usable without constant internet
Sync when connection is restored
r. RELIABILITY REQUIREMENTS
High availability (decentralised)
No single point of failure
Distributed messaging + storage
Data integrity
Hash verification must be deterministic and reproducible
Evidence must remain tamper-proof
Fail-safe mechanisms
Deadman switch executes reliably under defined conditions
Message delivery retries across nodes
Device risk tolerance
App should degrade safely if device is compromised
No plaintext data stored locally
p. PERFORMANCE REQUIREMENTS
Encryption + hashing must:
Execute within milliseconds for small files
Scale efficiently for larger media
Messaging latency:
Near real-time where connectivity allows
Graceful degradation under poor network conditions
Blockchain interaction:
Hash anchoring must be lightweight (low gas / low cost)
Batched or optimised writes where possible
s. SUPPORTABILITY REQUIREMENTS
Modular architecture
Messaging, storage, wallet, and identity layers loosely coupled
Allows independent iteration
Open standards compatibility
DID standards (W3C)
Encryption libraries (auditable, widely adopted)
Security auditability
Codebase must be externally auditable
Clear threat model documentation required
Extensibility
API-ready for:
NGOs
Legal systems
Transport / shelter integrations
CRITICAL CONSTRAINTS (Implicit Across FURPS)
No centralised data storage of sensitive content
Zero trust architecture (assume adversarial conditions)
User retains full key ownership (no recovery = intentional tradeoff)
System must not increase risk if discovered
This is:
A decentralised, adversarially-tested, real-world application of the Logos stack
where failure has real human consequences.