The Unyielding Standard in Digital Asset Custody.
Move beyond software vulnerabilities. The Quantum Trust platform represents a paradigm shift, combining certified hardware security with a dynamic, decentralized software layer, ensuring your private keys remain mathematically isolated from all network threats. We are not just a wallet; we are the foundation of your financial sovereignty.
Discover True Security ArchitectureSection I: The Foundational Architecture of Trust
The Certified Hardware Isolation Layer
At the heart of our platform lies a **Secure Element (SE)**, a specialized chip designed to withstand sophisticated physical and digital attacks. Unlike general-purpose microcontroller units (MCUs) used in less secure devices, our SE is certified to **CC EAL5+** or higher. This Common Criteria assurance level is a stringent, internationally recognized standard, confirming the chip's ability to resist penetrating analyses, side-channel attacks, and fault injection. The SE is purpose-built to execute all cryptographic operations—specifically the generation, storage, and signing process of private keys—in a physically hardened, isolated environment. No information, not even the seed phrase during recovery, ever leaves this secure boundary in plaintext form. This hardware separation is the single most critical differentiator, rendering standard malware and remote hacks ineffective by design.
The firmware operating on the Secure Element is meticulously developed and subject to rigorous third-party audits. It implements deterministic wallet generation (**BIP-32, BIP-39, BIP-44**) and transaction signing algorithms. Crucially, every firmware update is cryptographically signed by the platform provider. The device's bootloader verifies this digital signature before execution, preventing the installation of unauthorized or malicious firmware. This multi-layered defense against supply chain attacks ensures the integrity of the critical software running on the hardware. We maintain a clear separation between the Secure Element's operating system (OS) and the device's main MCU, which handles communication and display, thereby minimizing the attack surface accessible via USB or Bluetooth protocols.
Furthermore, the architecture incorporates **True Random Number Generation (TRNG)** directly on the SE. High-quality entropy is paramount for key security; a predictable random number generator is a fatal flaw. Our TRNG leverages physical processes to generate unpredictable, non-repeating sequences, which are continually audited for statistical randomness and robustness against deterministic attacks. This commitment to genuine randomness ensures that every wallet generated is cryptographically unique and unguessable. The entire system is housed in a tamper-resistant casing, incorporating mechanisms that zero-out sensitive data if unauthorized physical access is detected, establishing an unprecedented level of material and digital trust.
The Resilient Software Layer and Protocol Integrity
The accompanying software—our desktop and mobile applications—serves exclusively as a transparent interface, relaying unsigned transaction data to the hardware device and broadcasting the signed transaction back to the relevant network. **The software never holds, manages, or possesses the private key at any point.** This air-gapped security model is vital. The interface handles complex data structuring, such as fee calculation, input/output selection, and smart contract interaction details, before presenting them to the user for final, on-device confirmation. This final check is crucial, mitigating "man-in-the-middle" attacks where malicious software might attempt to swap the recipient address displayed on the screen versus what is actually sent to the SE.
Our codebase is entirely **open-source (non-SE specific components)**, enabling global security researchers and the community to audit and verify its integrity continuously. This transparency fosters trust and allows for rapid identification and patching of any potential vulnerabilities in the communication protocol. The platform utilizes advanced encryption protocols for communication between the software and the device, ensuring that even the data being relayed (unsigned transaction details) is protected during transit. We employ **multi-signature and time-locked transaction capabilities** through integrated smart contract support, allowing users to define complex security policies beyond standard single-signature transactions, such as requiring multiple devices or delayed execution for large transfers.
Furthermore, the platform actively monitors for and isolates malicious code execution environments. It utilizes whitelisting techniques for authorized application interfaces and maintains a rigorous policy against connecting to untrusted or compromised nodes. The security model is further fortified by requiring users to set a mandatory, strong **PIN code** that is verified solely by the Secure Element. A limited number of incorrect attempts will automatically trigger a complete data reset, making brute-force attacks impractical and time-consuming. This holistic approach, combining certified physical hardware defense with transparent, audited software practices, defines the Quantum Trust standard. We believe security is a perpetual process, not a final product, driving continuous architectural enhancements to stay ahead of evolving cyber threats.
Section II: Seamless Ecosystem and Universal Interoperability
The value of ultimate security is unlocked through unparalleled utility. Our platform is engineered to interact flawlessly with over 5,500 digital assets and a rapidly growing landscape of Web3 services, from decentralized exchanges to NFT marketplaces and advanced financial tooling, all without compromising key isolation.
Multi-Chain Native Integration
We provide native, first-party support for all major blockchain protocols, including Bitcoin (BTC), Ethereum (ETH), Solana (SOL), Polkadot (DOT), Cosmos (ATOM), and their respective ecosystems. This native integration means the complex transaction logic for each chain (like UTXO management for Bitcoin or EIP-1559 support for Ethereum) is handled directly by the Secure Element's dedicated apps. This method is fundamentally more secure than relying on third-party wallet wrappers, as the proprietary code runs within the trusted execution environment (TEE) of the hardware, minimizing external dependencies.
Beyond basic transfer functionality, our platform offers specialized interaction models for token standards such as ERC-20, ERC-721 (NFTs), and ERC-1155. Full support for custom path derivation allows users to manage multiple wallets and sub-accounts under a single master seed, employing robust security practices while maintaining organizational flexibility. The sheer breadth of our supported asset library is continually expanding, driven by community requests and rigorous internal validation processes, ensuring comprehensive coverage of the decentralized economy without sacrificing the core security promises of hardware isolation.
Quantum Connect Protocol (QCP)
To safely connect your hardware-secured assets to the dynamic world of Web3, we utilize the Quantum Connect Protocol (QCP). QCP is an encrypted, end-to-end communication layer that enables decentralized applications (dApps) to request transactions from your device, similar to existing standards but with an enhanced security model. Critically, QCP mandates an explicit, physical confirmation on the hardware screen for **every single transactional step**, including complex actions like approving token allowances or executing governance votes. This prevents silent, malicious transactions often exploited in phishing attacks.
The utility of QCP extends to automatic threat filtering. The desktop/mobile software maintains an automatically updated list of known malicious contract addresses and high-risk domains. Before the transaction request even reaches the hardware, the software provides clear warnings, requiring explicit user override for potentially dangerous interactions. QCP supports full session management, allowing users to review all active dApp connections and revoke access instantly from a centralized dashboard. This systematic approach to third-party interaction ensures that the security perimeter remains centered on the hardware key, regardless of the complexity or risk level of the dApp being engaged with.
In-App DeFi & Earning Vaults
The platform integrates direct, non-custodial access to staking, lending, and swapping services. Users can delegate Proof-of-Stake (PoS) assets to validators directly from the application interface, with the critical delegation transaction signed on the Secure Element. This means you participate in network consensus and earn yield without ever exposing your private keys to a third-party service or a hot wallet environment. The entire process—from selecting a validator to signing the delegation—is handled internally, maintaining a high security margin.
Similarly, secure swapping functionality allows for atomic token trades via integrated decentralized exchanges (DEXs). The trade details are generated by the DEX API, presented to the user, and signed using the hardware device. The process ensures that even during complex multi-step DeFi transactions, the private keys remain within the certified hardware perimeter. Our Earning Vaults are carefully curated contracts designed for passive income generation, where the platform only provides the secure signing interface, leaving full, non-custodial control over the staked or lent assets solely with the user. This feature set transforms the Quantum Trust device from a static storage solution into a dynamic, active participant in the decentralized economy, all while adhering to the most rigorous security standards.
Section III: Web3 Sovereignty, Identity, and Advanced Utility
Immutable Digital Collectibles & Art
The security needs of Non-Fungible Tokens (NFTs) are unique, combining high financial value with often sentimental or identity-defining significance. The platform offers dedicated support for viewing, managing, and securely signing transactions related to all major NFT standards (ERC-721, ERC-1155, and equivalent standards on Solana and other chains). Crucially, when interacting with NFT marketplaces, the device requires explicit confirmation of the collection address, token ID, and the auction amount on its trusted display screen before signing, preventing 'blind signing' attacks where the user unknowingly authorizes a malicious transfer. This visual verification step is paramount to protecting valuable digital assets.
Our interface is designed to securely display the key metadata and visual representations of your NFTs, sourced via validated IPFS/Arweave links, providing a secure browsing environment. The platform also facilitates batch signing operations for efficient management of large collections, ensuring that multiple sales or transfers can be conducted with the required hardware confirmation for each, offering both convenience and absolute security. The focus remains on guaranteeing that the ownership transfer and marketplace interaction protocols are executed with the same level of cryptographic isolation afforded to fungible assets. This specialized approach ensures that the high value and specific contractual nature of digital art is handled responsibly and securely within the hardware wallet ecosystem.
Decentralized Identity (DID) and Governance Participation
The future of Web3 hinges on decentralized identity, where users control their personal data and authentication mechanisms. Our platform is architected to serve as the root of your digital identity (DID). By leveraging the Secure Element, users can generate unique cryptographic proofs that can be used for authentication across various decentralized services without exposing their primary asset keys. This creates a secure, verifiable layer of identity management, allowing users to prove ownership, qualifications, or participation rights using zero-knowledge proofs (ZKPs) or verifiable credentials (VCs), all rooted in a hardware-isolated key pair. The platform supports standards like **ERC-4337 (Account Abstraction)**, paving the way for advanced, non-EOA (Externally Owned Account) functionality, such as social recovery and customized spending limits, all governed by the master private key secured on the device.
Furthermore, the platform actively empowers decentralized governance. Holding governance tokens requires active participation in voting to maintain network health and influence project direction. Our interface provides a clear, categorized view of all available governance proposals across integrated DAOs (Decentralized Autonomous Organizations). When a user decides to vote, the platform generates the necessary transaction payload, which is then presented to the hardware device. The device's small screen displays the crucial parameters of the vote—the proposal ID and the selected action (Yes/No/Abstain)—for physical verification before the private key signs the vote transaction. This eliminates the risk of malicious interfaces misrepresenting the governance outcome, ensuring that the user’s vote is truly their own. The utilization of specialized, dedicated chip space for these advanced cryptographic identity and governance features ensures that even as the Web3 landscape evolves, the platform remains the most secure starting point for all decentralized activities. The integration of cutting-edge ZKP technology allows for selective disclosure of information, dramatically enhancing privacy while ensuring verifiability for KYC/AML requirements in DeFi, without needing a trusted intermediary.
This commitment to both security and utility means our users are not merely holding assets; they are actively participating in the creation and governance of the next generation of the internet. The entire system is built on the principle that the most secure asset is the one that is both isolated from risk and fully functional within its native ecosystem. This includes seamless integration with Layer 2 scaling solutions, allowing users to securely manage assets and interact with dApps on networks like Arbitrum, Optimism, and Polygon with the same hardware assurance, reducing transaction costs and improving speed without compromising the foundational security model.
Section IV: Future Proofing, Resilience, and Post-Quantum Commitment
The Resilience of Recovery and Multi-Seed Backup
The single greatest risk in self-custody is the loss or destruction of the recovery mechanism. Our platform introduces advanced redundancy beyond the standard 24-word BIP-39 seed phrase. We offer an optional **Shamir's Secret Sharing (SSS) compliant recovery scheme**, enabling the user to split their single master seed into multiple unique shares (e.g., 3-of-5, 2-of-3). This mathematical process ensures that the seed can only be reconstructed by combining the designated number of shares, meaning the loss or theft of a single share is completely non-critical. This significantly enhances resilience against physical disaster or localized theft, which remains a key vector of attack against traditional single-point-of-failure seed phrases.
The recovery process itself is performed entirely offline, using the Secure Element. The shares are fed directly into the device, which performs the SSS reconstruction internally, ensuring the sensitive full seed phrase never appears on an internet-connected device, even during the recovery event. Furthermore, our commitment to longevity includes forward compatibility for future cryptographic primitives. The device architecture is designed with sufficient memory and processing power to support firmware updates that introduce new curves, new hashing algorithms, or even entirely new recovery protocols, ensuring that today's security remains adequate for tomorrow's challenges. We believe that true self-custody requires a robust, distributed, and mathematically proven backup and recovery plan that can withstand decades of potential threats and user error.
Preparing for the Quantum Threat Landscape
While large-scale quantum computing remains a theoretical threat, the need for post-quantum cryptographic (PQC) readiness is immediate. Our research and development division is actively implementing and testing PQC algorithms, specifically those selected by NIST, such as **lattice-based cryptography** (e.g., Dilithium and Falcon) and **hash-based signatures** (e.g., XMSS and LMS). The current generation of the Quantum Trust hardware incorporates specialized cryptographic accelerators that are designed to be retrofitted via firmware updates to handle the computationally intensive nature of PQC signatures, which are typically much larger and slower than current elliptic curve cryptography (ECC) signatures.
Our PQC strategy involves a transitional phase of **hybrid signatures**, where a transaction is signed using both the classical ECC algorithm (like secp256k1) and a quantum-resistant PQC algorithm. This dual-signature approach ensures that the assets are protected against both classical computing attacks today and potential quantum attacks in the future, providing an uninterrupted security continuum. Users will eventually have the option to migrate their entire key space to PQC derivation paths, ensuring their wallets are completely quantum-safe. This proactive commitment to migrating cryptographic standards well before the quantum threat materializes is the ultimate proof of our long-term security vision. We view PQC readiness not as a feature, but as a mandatory ethical obligation to protect the generational wealth secured by our platform. This advanced planning guarantees the device remains relevant and impenetrable for the entire lifespan of the decentralized finance movement.
Furthermore, the physical security of the device is designed to resist future technologies, including advanced probing and invasive attacks. The proprietary chip architecture is manufactured using techniques that obfuscate internal logic and key material, making reverse engineering extremely difficult even with advanced future tools. The platform maintains an ongoing bug bounty program with payouts specifically tiered for PQC-related vulnerabilities, reinforcing our confidence in the future resilience of our product against all known and anticipated threats. The comprehensive scope of this preparedness underlines our positioning as the unyielding security standard for digital assets.
Section V: Our Commitment to the Decentralized Future
Since inception, our singular mission has been to provide the tools for true financial sovereignty. This mission is backed by transparent business practices and an iron-clad commitment to the community. We maintain **zero access** to user data or keys. Our revenue model is based solely on hardware sales and value-added software services, never on monetizing your personal or transaction data. Every security breach that has impacted other platforms only reinforces our dedication to the hardware isolation principle. We have consistently passed third-party penetration testing and cryptographic audits commissioned by leading global security firms. Our success is measured not by market share, but by the fact that billions of dollars in user assets remain completely untouched by external threats.
We actively sponsor research into new attack vectors, ensuring our defense systems are constantly evolving. Our support infrastructure is composed of highly trained cryptographic experts, available 24/7, to assist with recovery procedures and security best practices. We believe education is the first line of defense, and our extensive documentation on self-custody principles is freely available to all, regardless of whether they are a customer. The platform is continuously updated to support the latest cryptographic standards and newly launched assets, adhering to strict version control and rigorous beta testing before any release. This comprehensive commitment to product integrity, transparency, and user empowerment solidifies Quantum Trust as the only viable long-term solution for secure digital asset management in a rapidly evolving financial world. Our commitment is perpetual, mirroring the immutable nature of the blockchains we protect.