Nulla @NullaNetwork

This infographic illustrates the user-facing functionality of the post-quantum privacy layer, stay tuned for more updates!

The Deposit app is now live on the official website: nulla.network/deposit You can also access it directly from the nulla.network homepage, as demonstrated in the video. The tokenomics will be shared in some hours, stay tuned!

We’re excited to update the Deposit dApp tomorrow with more information for our users. Stay tuned!

We are also working on the official release of the wallet, which will be necessary to fully utilize the capabilities of the Nulla environment. For now, we are defining the UI components and will proceed with full testing on the testnet in the coming days.

ProofHub emphasizes hash-based and lattice-based primitives like BLAKE3, ML-DSA-44, and Merkle trees, while ScanProof focuses on additive homomorphic ideas using Pedersen commitments, Schnorr, Bulletproofs, and Blake2b-256 . Major updates on Monday, don't miss it.

In this test, we demonstrate a complete bridge cycle between the NULLA Network and Sepolia. The process begins with the NULLA wallet 5HYwzZdzkGHHfjaCmTjvD3spQvEn3Fom6oKbqKPv3yhsgtkr and the Sepolia wallet 0xd9b1604c5a2d291ce9fb3d30fbbab0ae196493e2. When tokens are locked on NULLA, the relayer detects the on-chain event and triggers a mint transaction on Sepolia: 0x0c5f59db45151caad3fda749ea67b908e32c9d941e7c4943a1d3fcc1fc11816d For the return flow, tokens are burned on Sepolia using the following transaction: 0x1062c55b3907acfe89727c673d08e30d481122174e01c06a03f7edbc2c29a7f8 Afterward, the relayer executes the unlock operation on NULLA, which is recorded in block: 0x8e0be14eb2195a30bb5b111f1c90eedfb63ead93e91fca8781d78b2026bdc124 The complete flow is therefore: Lock on NULLA → Mint on Sepolia → Burn on Sepolia → Unlock on NULLA This confirms a successful end-to-end bidirectional bridge operation.

Here we show the output gathered during the registration of the parachains on the new runtime. As you can see, this time we are implementing two proof parachains: ProofHub and ScanProof. The second one is designed to introduce a parallel encryption route enforcing homomorphic encryption. This will allow users to choose their preferred level of privacy by deciding on which parachain to deposit their NULLA tokens. The behavior of these parachains, together with the rest of the ecosystem, is currently under testing. ScanProof will not be made public immediately, as we first want to test it without exposing the RPC. Our ecosystem is growing rapidly and becoming more articulated, so we also intend to provide detailed tutorials throughout this upcoming week.

The new runtime for the relay has been upgraded. We decided to start the testnet with a clean slate. This upgrade is central to what we are building next. - A custom pallet for the Ethereum bridge implementation. - A bridge between the parachain and the relay chain.

We have rebranded our website as we approach important milestones for NULLA. We continue to believe in our product, and we thank the community for continuing to support us! Anyway, the new design is out: nulla.network Stay tuned for the next update!

End-to-end bridge stack running clean! Rust pallet tests (lock/unlock, replay protection, origin guards) + Solidity contract suite, all green in one shot. From relay chain to Ethereum in one codebase, stay tuned for the next update. $NULLA

End-to-end bridge stack running clean! Rust pallet tests (lock/unlock, replay protection, origin guards) + Solidity contract suite, all green in one shot. From relay chain to Ethereum in one codebase, stay tuned for the next update. solana:HthQKKW6M9Q8pb27r9xoqjfviiJ3kzdojP8TKqjJpump

We're building a native bridge for the Nulla relay chain so NULLA tokens can flow to Ethereum and trade on Uniswap. The design: lock NULLA on-chain → relayer mints wNULLA ERC-20 on Sepolia for the first tests and then on mainnet. Reverse direction works too, burn wNULLA, unlock NULLA on the relay. No third-party bridge dependency.

Solidity tests passing on WrappedNULLA + NullaBridge contracts. Mint protection, nonce replay prevention, operator rotation, all covered. Also confirmed the pallet is wired into the nulla relay runtime at index 249. Building in public.

This showcases the first steps being taken to build the trusted bridge that will allow users to bridge tokens on Ethereum and enable the creation of a trading pool on Uniswap. The first command shows the files built so far for this implementation, while the second provides a deeper look into the bridge pallets, specifically the pallet’s public interface. It then moves on to the output of the first test run for the implementation, followed by a quick overview of the Solidity contracts, we are moving smooth, stay tuned for more exciting updates coming soon.

Parachains are now officially live on the nullascan.com explorer. You can already browse them, and we currently have one collator running for the ProofHub parachain and another for the simulated RWA parachain. This is a major step forward, as we can now begin expanding the bridging capabilities between parachains. At the moment, communication is handled through XCM messaging for the privacy workflow, and the next phase is enabling token bridging to create a fully interconnected Layer 1 ecosystem.

After our first week, we have confirmed that the chain is stable. We are now fully focused on stress-testing the purchase routine. Tomorrow we will open the chain RPC to the public, where everyone will be able to follow our simulated purchase workflow live on the explorer. We are officially entering the second week of the plan. The dev team will begin working on the token's bridging capabilities across all parachains, with the relay chain at the center.

$Nulla Network — Privacy Workflow Stability Testing Hey community, We just completed a full end-to-end privacy workflow test on the live Nulla production chains (ProofHub para 2000 + RWA para 2001) and every step passed with on-chain proof. But this is just the beginning of something bigger. What we are building now We are designing a continuous privacy stability testing system. The plan is to open the public RPC endpoints of both chains and run automated privacy workflows 24/7 against synthetic (fake) RWA assets. These workflows will repeatedly execute the full private buying cycle — deposit, purchase, ownership — non-stop, around the clock. Why this matters Running thousands of privacy cycles over time lets us verify two critical things: - Long-term unlinkability — as the Merkle tree grows with real and synthetic commitments mixed together, we verify that no on-chain observer can link a depositor to a buyer across any of the cycles, even with a large dataset to analyze. - Pallet stress testing — the proofs pallet, RWA registry, and marketplace all get exercised continuously under realistic load, exposing any edge cases in state management, nullifier handling, or spend tag tracking before they can affect real users. Timeline This is fully in line with the biweekly development plan we shared with you. We are preparing this infrastructure now and it will be fully operational by the next comunity update. From that point, the privacy guarantees of Nulla will be continuously and publicly verifiable by anyone, at any time. More details coming soon.

$NULLA team is now wrapping up Day 2 with this Ansible deployment of the two parachain collators that will be used in the coming days for stability checks.

We just completed day one of the 2-week plan. We’re currently building the wallets, management keys, and Ansible playbooks required to deploy the new version of the testnet. The deployment scripts will simultaneously upload the relay binaries across the new validator and bootnode set, and will be used for the overall management of the new $NULLA testnet infrastructure. These tools will also be shared with the community to help node operators properly deploy and manage their validators. nullascan.com/#/staking