Yes. Neti can integrate blockchain and digital asset infrastructure with an existing core banking system without requiring the institution to replace a platform that already supports critical financial operations. The existing core can remain the system of record, while new blockchain, settlement, custody, compliance, or payment components are connected around it. We begin by assessing the current architecture, APIs, data flows, transaction lifecycle, reporting requirements, and integration constraints. Based on this analysis, we define which responsibilities should remain in the core banking system and which should be handled by additional components. Integration may use APIs, event-driven communication, messaging infrastructure, or a dedicated orchestration layer. We also define how transaction states, balances, reconciliation, exceptions, and audit records remain synchronized across the connected systems. Where possible, Neti recommends a phased integration rather than a high-risk replacement of the entire infrastructure. The objective is to add new capabilities while preserving operational continuity, regulatory controls, and the systems that already work.
Frequently Asked Questions
Frequently asked questions pertaining to blockchain and web development.
Enterprise Blockchain & Legacy Systems
No. In many cases, blockchain can be introduced as an additional layer connected to existing systems rather than as a full replacement. Neti helps define which processes should remain in the current infrastructure, which can benefit from blockchain, and how both environments should exchange data and transaction states. Depending on the architecture, integration may use APIs, event-driven communication, or an orchestration layer. Where possible, we recommend a phased approach that adds new capabilities while preserving operational continuity and systems that already work.
Yes. Neti can integrate blockchain infrastructure with legacy, proprietary, and highly customized systems, provided their interfaces, dependencies, and operational constraints are understood first. We begin with a technical assessment of the existing architecture, available APIs, data flows, documentation, and business-critical processes. Where direct integration is not practical, we may recommend an adapter, event-driven integration, or dedicated orchestration layer. Our goal is to introduce new capabilities without disrupting systems that already support essential operations. When possible, we use a phased approach that limits risk and allows each integration stage to be tested before wider deployment.
Yes. Neti can modernize blockchain and backend infrastructure incrementally, without replacing the entire system at once. We can introduce new components alongside existing platforms, migrate selected workflows in stages, and use APIs, adapters, or interoperability layers to maintain continuity during the transition. This reduces operational risk, limits downtime, and allows each stage to be validated before the next one begins.
Yes. Neti can work with partially documented or undocumented systems. We begin by mapping the existing architecture, dependencies, data flows, integrations, and operational constraints through code review, stakeholder interviews, and system analysis. This allows us to identify risks, document the current state, and plan modernization or integration without relying on assumptions.
Yes. Blockchain infrastructure can be introduced as an additional layer around your existing core banking system rather than replacing it. Neti can connect blockchain-based settlement, asset, or verification components through APIs, adapters, and integration services while the core system continues to manage accounts, customer records, and internal operations. This supports phased implementation, limits disruption, and avoids a high-risk big-bang migration.
Zero Knowledge Proof Privacy Solutions
Zero-knowledge proof privacy solutions use cryptographic proofs to verify that a transaction or action is valid without revealing the underlying confidential information. In blockchain applications, they can help protect balances, transaction relationships and sensitive business activity while preserving on-chain verifiability.
Neti designs ZK privacy layers for financial and blockchain systems that need confidentiality without giving up auditability or access to existing public infrastructure.
Public blockchains expose transaction data by default, including wallet activity, balances and interactions between addresses. Zero-knowledge proofs allow a system to confirm that predefined conditions have been met without publishing all the data used to prove them.
This makes it possible to reduce wallet tracing, protect sensitive transaction flows and limit the exposure of trading or financial activity while retaining cryptographic verification.
The user creates a transaction or trading intent and generates a ZK-SNARK proof on their device. A relayer submits the anonymized payload and pays the gas fee, reducing the risk of linking execution to the user’s funding wallet.
The Neti proxy contract then interacts with the existing DEX router, and the resulting assets can be settled to a one-time address. Where an authorized review is required, selected information can be disclosed through the configured view-key mechanism.
Depending on the implementation, the ZK privacy layer can protect private balances, participant relationships and the direct connection between a source wallet, shielded activity and a settlement address.
The public blockchain may still show that assets entered or exited a privacy contract. The objective is not to make the blockchain invisible, but to prevent observers from easily reconstructing the private transaction path and associating it with a specific user or strategy.
The underlying blockchain continues to record public smart-contract interactions. For example, an observer may see that assets were deposited into or withdrawn from a privacy mechanism. However, encrypted commitments, private balance updates and zero-knowledge proofs can prevent the observer from seeing the confidential information behind those operations or directly linking an input with a later output. The exact privacy boundary is defined during architecture design.
No. Neti’s current approach is designed to add blockchain privacy to the EVM infrastructure the client already uses.
A DEX or financial application can retain its existing network, contracts, users, integrations and liquidity instead of migrating to a separate privacy-first blockchain. The current implementation is EVM-based, while parts of the underlying cryptographic architecture can be adapted to other environments.
No. The Shielded Trading Proxy is designed to use the DEX’s existing public liquidity rather than creating a separate shielded pool that must build liquidity independently.
The proxy acts as an additional execution and privacy layer while routing trades through the existing AMM infrastructure. This allows the DEX to introduce privacy-sensitive flows without splitting its liquidity between separate markets.
The architecture is designed so that the proxy behaves like a standard smart-contract caller interacting with the existing DEX router. This means the core AMM logic does not necessarily need to be rebuilt.
The new proxy contracts, ZK circuits, relayer, SDK and integration boundaries still require implementation-specific testing and security review. The advantage is a reduced scope of change, not the elimination of security work.
Selective disclosure allows specifically authorized information to be revealed without exposing all private activity in the system.
For example, an institution may need to disclose a defined transaction path or information connected to a particular user during an audit or compliance review. A scoped view key can provide access to that information without making the complete privacy pool or every user’s activity public.
View-key governance is defined for each implementation. Access can be assigned to designated compliance, audit or governance participants and protected through multisig or threshold authorization.
The architecture can be designed so that no single party has unrestricted access to all private activity. The exact model should define who can authorize disclosure, what information can be accessed and whether the key applies to a user, transaction path or specific period.
The system can be designed so that neither Neti nor the DEX operator has default access to confidential user information.
Private data is processed through client-side proof generation and can only be disclosed according to the agreed key-governance model. The final visibility rules depend on the implementation, including who holds disclosure rights and how access is authorized.
Zero-knowledge technology can support compliance-aware privacy, but it does not make an entire platform automatically compliant.
Neti combines privacy with selective disclosure so that designated information can remain available for audit, investigation or regulatory workflows. The final compliance position also depends on the client’s KYC and AML controls, transaction-monitoring processes, key governance, operating model and jurisdiction.
A traditional mixer is primarily designed to break public transaction links and may not provide controlled visibility for regulated entities.
Neti’s approach is designed around institutional privacy with selective disclosure. It allows confidential flows to remain private by default while preserving a governed mechanism for reviewing specific activity when required. The goal is controlled blockchain data privacy, not unrestricted anonymity.
Not completely in the current Shielded Trading Proxy model.
The solution is primarily designed to reduce wallet tracing, balance exposure, post-trade strategy leakage and copy-trading. Because execution ultimately interacts with public DEX infrastructure, some transaction-ordering and MEV risks may remain.
Full pre-trade protection would require deeper changes to areas such as mempool visibility, transaction ordering or the blockchain execution environment.
Yes. ZK privacy can be applied to stablecoin transfers, payment infrastructure, treasury flows and other financial systems where public balances and transaction relationships create operational or confidentiality risks.
Potential applications include neobank transfers, institutional settlement, corporate treasury operations and privacy-sensitive cross-border payments. The architecture must be adapted to the client’s ledger, wallet, custody and compliance model.
In the current architecture, ZK proofs are generated on the user’s device through a ZK-aware wallet or application. Private keys and confidential inputs do not need to be sent to the DEX or an external proving service.
The proof is then verified by the relevant smart contract, allowing the blockchain to confirm that the operation is valid without learning the private values used to create it.
A ZK-SNARK is a compact cryptographic proof that allows one party to prove that a statement is true without revealing the private information behind it.
In Neti’s privacy architecture, ZK-SNARKs can be used to prove ownership, balance sufficiency or the validity of a shielded operation. The blockchain verifies the proof rather than receiving the confidential inputs themselves.
Neti currently follows a hybrid model.
The Shielded Trading Proxy is being developed toward an API and SDK integration path for clients that need a faster implementation. Neti also provides custom ZK delivery covering discovery, architecture, circuit development, smart contracts, wallet or frontend integration, deployment and production support.
This allows a client to choose between a more standardized integration and a solution adapted to complex privacy, compliance or protocol requirements.
Tokenized Gold
We use a Secure Mint architecture with Chainlink PoR. The smart contract only mints tokens after the Oracle verifies the bar's metadata in the VMS.
1:1 stability = MiCA. Yield-bearing = MiFID II. Neti helps you choose the right technical standard (ERC-20 vs. ERC-3643) for either path.
ERC-20 lacks built-in compliance. ERC-3643 (T-REX) embeds an ONCHAINID layer, validating every transfer against KYC/AML rules in real-time.
Can I get physical gold back?
With our modular infrastructure, we can deploy a functional MVP in 3 to 5 months.