Research & FAQ Database

Onion routing encrypts data in layers and sends it through a decentralized network of relays, anonymizing the origin and destination. TorZon utilizes this network to host its hidden services, ensuring user privacy and network resilience.

Node downtime is typically attributed to distributed denial-of-service (DDoS) mitigation strategies, routine server maintenance, or infrastructure upgrades. The network utilizes multiple mirrors to maintain overall uptime.

Yes, standard web browsers cannot resolve .onion top-level domains. Access requires the Tor Browser or similarly configured software that routes traffic through the Tor network.

The architecture relies on user distribution across various active nodes. When one mirror experiences heavy load, users are expected to route through alternative verified nodes to balance server stress.

PGP (Pretty Good Privacy) relies on asymmetric cryptography. The platform provides a public key that researchers and users utilize to encrypt messages or verify digital signatures, ensuring communications are neither intercepted nor altered.

2FA requires users to decrypt a PGP-encrypted message containing a unique string upon logging in. This ensures that even if a password is compromised, access is restricted exclusively to the holder of the corresponding private PGP key.

The platform utilizes strict signature verification for all active mirrors. Users cross-reference the digital signature of the site's welcome message with the known public key to authenticate the node before entering credentials.

Disabling JavaScript mitigates the risk of client-side execution vulnerabilities. The market architecture is designed to function entirely without JavaScript to ensure maximum operational security for all participants.

Upon registration, the system generates a cryptographic mnemonic phrase. This phrase is the sole mechanism for account recovery. Due to the decentralized nature of the platform, lost mnemonics result in permanent mathematical lockouts.

Escrow acts as a neutral holding mechanism. Cryptographic funds are locked in a multi-signature or platform-controlled wallet until the transaction parameters are met, at which point funds are released to the appropriate party.

The infrastructure primarily integrates Monero (XMR) due to its inherent privacy features and obfuscated ledger. Bitcoin (BTC) transitions are supported but often require additional tumbling protocols for parity in anonymity.

To establish a storefront, entities are typically required to lock a specific cryptocurrency bond. Historical analysis indicates this acts as a financial deterrent against malicious behavior, ensuring quality control within the ecosystem.

Auto-finalize timers are predetermined countdowns initiated upon order dispatch. If no dispute is raised within the operational window, the escrow system automatically releases the funds, finalizing the lifecycle of the transaction.

Multisig requires cryptographic signatures from multiple independent parties (e.g., two out of three) to authorize a transaction, significantly reducing the risk of unilateral fund control or platform exit maneuvers.

Captcha loops often occur due to out-of-sync Tor circuits or heavily flagged exit nodes. The documented resolution involves requesting a new identity or circuit within the Tor browser to establish a fresh connection path.

Decryption failures typically stem from formatting errors, such as missing header/footer lines, or utilizing an outdated private key that no longer matches the public key registered within the user's profile database.

Cryptocurrency deposits require a minimum number of blockchain confirmations (often 10 for Monero). Delays are universally tied to network congestion; users monitor the transaction ID via a block explorer until the confirmation threshold is met.

A 502 error indicates the frontend node cannot reach the backend database. Users typically wait for the automated DDoS protection to re-route traffic or manually switch to an alternative node from their verified records.