Quantum Resistant Cryptographic Solutions Corporation

QSC The Quantum Secure Cryptographic library

Future-Proof Cryptographic Library Built for Performance

QSC is a comprehensive, post-quantum cryptographic framework built in Ansi C with strict adherence to MISRA secure coding standards. Designed for clarity, modularity, and high-performance across embedded and enterprise platforms, QSC integrates state-of-the-art cryptographic primitives with an extensive set of networking, threading, memory, and utility tools. It supports classical algorithms like AES, ChaCha, SHA2, and ECDSA for backward compatibility, but emphasizes future-proof security through advanced primitives including SHA3, KMAC, cSHAKE, and post-quantum asymmetric algorithms such as Kyber, Dilithium, SPHINCS+, McEliece, and NTRU.
The library includes powerful symmetric ciphers like CSX-512 and RCS—both authenticated AEAD stream ciphers with 512-bit security and Keccak-based MACs—as well as a full suite of secure hash functions and MACs, including QMAC for quantum-resilient message authentication. QSC’s high-entropy random generators, DRBGs, and key derivation functions (like HKDF and SECRAND) support strong and adaptive key management.
Beyond cryptography, QSC offers a complete IPv4/IPv6 networking stack, asynchronous threading, event scheduling, and SIMD-accelerated memory and processor utilities. It dynamically adapts to modern CPU features like AVX, AVX2, and AVX-512 for optimized performance.
With its modular structure, strict coding discipline, and robust cryptographic foundation, QSC is ideal for everything from low-resource IoT devices to high-throughput secure servers. It is a future-ready foundation for building cryptographic applications that require resilience against both classical and quantum threats.

• Exec
• Tech
• Code

SKDP Symmetric Key Distribution Protocol

Quantum-Ready Symmetric Key Exchange

SKDP is a lightweight, quantum-secure protocol that redefines key exchange using symmetric cryptography instead of traditional public-key methods.
At its core is the RCS cipher—an advanced Rijndael-based stream cipher with strengthened Keccak-derived key expansion and built-in message authentication using KMAC.
SKDP creates a duplexed communication model where both parties independently generate ephemeral session keys, providing forward secrecy and isolating compromise. Its hierarchical key derivation structure enables secure deployment across millions of devices, from IoT to cloud systems. Each packet includes UTC timestamps for built-in anti-replay protection.
Unlike asymmetric systems threatened by quantum computing, SKDP is inherently quantum-resistant and scalable, offering high throughput with minimal overhead. Industries like finance, government, and embedded systems can use SKDP to securely scale encrypted communications while eliminating reliance on vulnerable pre-shared or long-term keys. SKDP is future-proof, resilient, and efficient—built for secure communication in the quantum era.

MPDC Multi Party Domain Cryptosystem

Distributed Quantum-Resistant Security Infrastructure

MPDC is a post-quantum, distributed key exchange and authentication framework designed for complex, multi-entity networks. MPDC introduces a novel entropy-sharing model where multiple independent agents contribute random input during key exchange, ensuring that session keys remain secure even if individual nodes are compromised. This decentralization—combined with robust post-quantum cryptographic primitives like Kyber, McEliece, Dilithium, and SPHINCS+—offers resilient protection against both classical and quantum attacks.
At the heart of MPDC is a hierarchical trust model. A Root Domain Security Server (RDS) issues certificates to devices like Clients, Application Servers (MAS), Domain List Agents (DLA), and field Agents. Devices generate their own asymmetric key pairs and authenticate through this trusted certificate hierarchy, enabling scalable, secure communication across thousands or even millions of nodes.
Each session’s symmetric key is derived from fragmented entropy shared between devices, with cSHAKE-based derivation ensuring forward secrecy and key uniqueness. Anti-replay measures—such as timestamped message headers and integrated MACs—guard against tampering and message reuse.
MPDC is tailored for high-assurance environments such as financial services, defense systems, healthcare networks, industrial control systems, and cloud infrastructure. It delivers efficient initialization, low-latency encrypted communication, and seamless scaling—all while maintaining regulatory compliance and operational trust.
As quantum computing advances, MPDC offers a proactive defense: a secure, future-ready architecture that enables distributed entities to communicate and operate with confidence in an unpredictable digital landscape.

SATP Symmetric Authenticated Tunneling Protocol

Scalable Encryption for Massive IoT

Symmetric Authenticated Tunneling Protocol (SATP) is a next-generation security layer that delivers quantum-safe encryption and mutual authentication without public-key overhead. Built entirely on SHA-3–family primitives and a wide-block Rijndael stream cipher, SATP replaces bulky X.509 certificates with a compact 16-byte identity string. A client transmits that identity and a fresh nonce; the server responds with a single authenticated hash. Two packets—well under one kilobyte—establish a fully encrypted, forward-secret tunnel in less than a millisecond, even on 32-bit micro-controllers.Every session consumes a one-time 256-bit key, so past traffic remains private even if a device or branch server is later compromised. Servers hold only a branch key and epoch counter, eliminating certificate renewal, CRLs, and OCSP endpoints while cutting handshake CPU by more than 90 percent compared with TLS. The reference implementation occupies < 30 kB of flash and < 4 kB of RAM, making SATP ideal for contactless payments, IoT sensors, critical-infrastructure PLCs, satellite telemetry, and zero-trust micro-services. With SATP, organisations gain deterministic, post-quantum security minus the latency, battery drain, and operational drag of legacy PKI.

• Exec
• Tech
• Code

DKTP Dual Key Tunneling Protocol

Communications Security Designed for the Future

Dual Key Tunneling Protocol (DKTP) is a next-generation cryptographic tunnel that delivers up to 512-bit post-quantum security through a dual-entropy model combining asymmetric key exchange and persistent symmetric pre-shared keys. Designed for sovereign, embedded, and high-assurance systems, DKTP enables mutual authentication without requiring PKI or certificates, making it ideal for secure communication in zero-trust or offline environments.Each session establishes two independently derived tunnel keys; one for transmit, one for receive, ensuring directional separation, forward secrecy, and post-compromise security. The protocol uses SHAKE for key derivation, SHA3 for hashing, KMAC for authentication, and RCS as its high-strength AEAD cipher. Handshake stages include UTC-based replay protection, full configuration binding, and cryptographic validation at every step.With support for Kyber, McEliece Dilithium, and SPHINCS+ primitives, DKTP is resistant to quantum attacks and legacy cryptographic weaknesses. It is engineered for environments where trust cannot be delegated, and where long-term security must be guaranteed -even under compromise. DKTP can replace TLS, IPsec, or VPN tunnels with a fully authenticated, certificate-free, quantum-resistant alternative.

• Exec
• Tech
• Code