Quantum software platform · 2026

The quantum
software layer
for Europe.

Qhoenix translates quantum advantage into enterprise-ready applications — hardware-agnostic, built for critical infrastructure, powered by Qofic R&D.

Explore platform Investor deck
EU
Quantum Flagship
3×
Core verticals
Q3
Seed round 2026
ESA
Certification (pending)
Qhoenix
Quantum Security Optimization Engine Future Infrastructure European Quantum Flagship Hardware Agnostic ESA Certification EIC Accelerator 2026 Quantum Security Optimization Engine Future Infrastructure European Quantum Flagship Hardware Agnostic ESA Certification EIC Accelerator 2026
Platform

What Qhoenix delivers

Three core verticals. One unified quantum software layer.

01
🔐
Quantum Security

Post-quantum cryptography and QKD-ready security for critical infrastructure. Future-proof communications before the quantum threat materializes.

02
⚡
Optimization Engine

Quantum-enhanced optimization for logistics, finance, and industry. Solve combinatorial problems that remain intractable on classical hardware.

03
🌐
Quantum Infrastructure

Middleware and APIs connecting classical enterprise systems to quantum backends — IBM, photonic, and beyond — through a single interface.

04
🧩
Hardware Agnostic

Qhoenix abstracts the hardware layer. Deploy on superconducting, trapped-ion, or photonic backends without rewriting application logic.

05
🛡️
Error Mitigation

Software-level noise mitigation and error correction pipelines maximizing fidelity on NISQ-era hardware while preparing for fault-tolerant systems.

06
📡
Space-Ready

Designed for space-adjacent applications — quantum communication satellites, ground station integration, and ESA-aligned quantum sensing.

Architecture

Full-stack quantum.
From qubit to enterprise.

Layer 01 · Hardware
Physical Layer
IBM Quantum backends
Photonic systems
Trapped-ion hardware
Qofic R&D devices
Layer 02 · Core
Qhoenix Platform
Quantum middleware
Error mitigation
Circuit optimization
Unified API layer
Layer 03 · Enterprise
Applications
Security & cryptography
Optimization services
Infrastructure APIs
Client deployments
Investors & Partners

Built on solid ground.

🇪🇺
European Quantum Flagship
Member of Europe's €1 billion sovereign quantum program — EU-level validation, network access, and funding pathways.
🛰️
ESA Certification (in progress)
Pursuing ESA BIC Hungary incubation and ESA Quantum Technology initiative alignment for space-adjacent applications.
⚗️
Full-Stack R&D Capability
Rare combination of physical quantum hardware expertise and production software — from qubit to enterprise deployment.
🏙️
Budapest · Central Europe
Operating at the intersection of EU quantum policy and the emerging Central European deep-tech ecosystem.
SEED ROUND · OPEN
€2M+
Target raise
Qhoenix platform dev45%
Hardware R&D (Qofic)30%
Team & operations15%
Market & partnerships10%
Active grant applications
EIC Accelerator — July 2026 (up to €2.5M)
ESA BIC Hungary — Autumn 2026
INNOspace Masters — 2026
Horizon Europe — Quantum calls
Research & Development

Quantum algorithms.
Built for the real world.

Qhoenix develops proprietary quantum modules for space industry applications. Below is the first publicly documented component of the Qhoenix Quantum Core — a Grover's Search-based anomaly detection module for satellite data streams.

Module · v0.1.0
Satellite Data Anomaly Detection
qhoenix.core.satellite_optimizer
Overview

This module implements a Grover's Search algorithm on a 3-qubit quantum circuit to identify anomalous states within satellite telemetry data — a task that scales exponentially in complexity for classical systems.

By encoding sensor readings into quantum states and applying an oracle that marks target anomalies, Qhoenix achieves a quadratic speedup over classical search — directly applicable to real-time anomaly detection in photonic satellite communication arrays.

How it works
01
Superposition
Hadamard gates place all 3 qubits into equal superposition — encoding all 8 possible satellite data states simultaneously.
02
Oracle
A Controlled-Z gate marks the anomalous target states — mimicking photonic identification of off-nominal satellite readings.
03
Diffusion Operator
The Grover diffusion amplifies the probability of measuring target anomaly states — using a Toffoli gate for multi-qubit phase inversion.
04
Measurement
Collapse yields |101⟩ and |111⟩ with ~50% probability each — the two flagged anomaly states from the 8-state search space.
~50%
|101⟩ hits
~50%
|111⟩ hits
1024
shots · Aer sim
qhoenix_core.py
Python · Qiskit 1.x 
# qhoenix Quantum Core
# Module: Satellite Data Anomaly Detection
# Component: Grover's Search · v0.1.0

from qiskit import QuantumCircuit
from qiskit_aer import AerSimulator
import matplotlib.pyplot as plt

def run_qhoenix_core():
        # 3-qubit circuit, 3 classical bits
        qc = QuantumCircuit(3, 3)

        # Step 1: Superposition
        # All 8 satellite states examined simultaneously
        for qubit in range(3):
            qc.h(qubit)

        # Step 2: Oracle
        # Marks anomalous photonic target states
        qc.cz(0, 2)

        # Step 3: Diffusion operator
        # Quantum amplitude amplification
        for qubit in range(3):
            qc.h(qubit)
            qc.x(qubit)
        qc.h(2)
        qc.ccx(0, 1, 2)  # Toffoli gate
        qc.h(2)
        for qubit in range(3):
            qc.x(qubit)
            qc.h(qubit)

        # Measurement
        qc.measure([0,1,2], [0,1,2])
        return qc

# Initialize and run
quantum_circuit = run_qhoenix_core()
print("qhoenix Core Initialized.")
Output · AerSimulator · 1024 shots
$ python qhoenix_core.py
qhoenix Core Initialized.
|101⟩ 518 shots ████████████████████████ 50.6%
|111⟩ 506 shots ███████████████████████ 49.4%
Grover's Search Qiskit 1.x 3-qubit circuit Amplitude Amplification Satellite Telemetry NISQ-ready
Contact

Ready to build
the quantum future?

Whether you are an investor, enterprise partner, or research institution — the quantum shift is happening now. Let's build it together.

Get in touch
info@qofic.com