Woofun AI reports that the eCash ecosystem has officially commenced its Alpha phase, anchoring the initial deployment to Bitcoin block 963,648 on August 23. This launch serves as a preliminary stress-test environment rather than the final hard fork, generating practice tokens designated as pECX for developers and miners to validate code stability before the permanent allocation of ECX occurs. The roadmap explicitly distinguishes this testing period from the eventual Mainnet event, which will facilitate the one-for-one distribution of the actual asset, while clarifying that the current activity has no impact on the underlying Bitcoin network or its consensus rules.

The technical timeline is rigidly structured around specific block heights, with the Alpha phase initiating at block 963,648 and the subsequent Beta phase scheduled to emerge near block 967,680. The critical milestone for the Mainnet launch is targeted at Bitcoin block height 973,728, with a projected calendar date of October 31.

However, this date is not fixed; it is entirely dependent on the variable speed of Bitcoin block production, which fluctuates based on network hash rate dynamics. Consequently, the actual calendar timing for the Mainnet event may shift, requiring all participants to monitor block height 973,728 as the definitive trigger rather than relying on the October 31 estimate.

Woofun AI data shows that infrastructure readiness across the market hinges on the precise execution of these block-based milestones, creating significant pressure on wallet developers, exchanges, and custodians to prepare for the transition. Wallet developers must verify their code compatibility before block 973,728 is reached, while exchanges face complex decisions regarding customer credits and operational freezes. Custodians need to establish secure protocols for handling the split, ensuring that funds are protected during the transition period. The accurate metric for market preparation is Bitcoin block height 973,728, as this height determines when the final allocation software will activate and when the network will become fully operational for user transactions.

Security risks remain a paramount concern, particularly regarding transaction replay attacks that could compromise user funds if not properly mitigated. Because the new network copies Bitcoin's transaction history, a transaction signed on the BTC chain could potentially execute on the ECX chain without dedicated protection mechanisms. Recent technical examinations identify replay security as a key open issue, highlighting the need for robust client software that prevents identical signatures from broadcasting across both chains. Until final production code and verification tools are published, pECX remains an isolated testing environment, and users must ensure that their private keys are not exposed through insecure channels during the testing phase.

User access and custody challenges further complicate the landscape, as the ability to claim ECX depends heavily on whether individuals control their private keys or rely on third-party platforms. Holders with self-custody solutions can claim ECX directly once the allocation software releases, but those with exchange accounts are subject to third-party platform policies. Major exchanges have yet to finalize their operational decisions, leaving uncertainty around whether they will support the fork or distribute tokens to customers. Key operational decisions pending from major exchanges include the integration of the new network and the management of private keys, which ultimately determine whether users can access their forked assets.

Brand confusion poses a final layer of risk, as the fork uses the ticker ECX while marketing under 'eCash', a brand already associated with an existing cryptocurrency trading as XEC. This naming collision increases the likelihood of user confusion, fake wallet releases, and malicious claim portals targeting unsuspecting investors. Users are strongly advised to never enter a Bitcoin recovery phrase into unverified fork-claiming software, as legitimate network splits do not require exposing private keys to third-party web forms. A fork is only complete when users can safely separate, custody, and spend both assets independently, a state that remains unachieved until all security and infrastructure hurdles are cleared.