A NEW ROUTE TO QUANTUM COMPUTING

Cloud.Desktop.Beyond.

One DecaQ architecture. Three ways to move forward.

DECAQ CLOUD
Quantum computing. On demand.
A managed, paid cloud service for supported quantum workloads.
DecaQ describes a digital quantum-computation architecture based on deterministic geometric execution on classical hardware.
DECAQ / RESULT WORKSPACE
Your code. Your workload. Your result.
Actual interface image supplied by DecaQ. This is a captured result, not a live computation.
Quantum families
6
Logical qubits*
400
*Capacity applies to supported DecaQ profiles. Workload, operator and precision limits depend on the selected family.
Explore DecaQ Cloud
Q400 DESKTOP
Quantum computing. On your desk.
The DecaQ desktop system. Dedicated computation, closer to your data.
DecaQ describes a digital quantum-computation architecture based on deterministic geometric execution on classical hardware.
Q400 DESKTOP SYSTEM
Logical qubits*
400
On-premise
Local
*Capacity applies to supported DecaQ profiles. Workload, operator and precision limits depend on the selected family.
Explore Q400
CUSTOMERS & PARTNERS
A new capability. A shared opportunity.
For enterprises, research organizations, integrators and distributors.
- Enterprise
- Integration
- Distribution
Customer solutions
Build.
New markets
Grow.
Work with DecaQ

6 ALGORITHM FAMILIES
UP TO 400 LOGICAL QUBITS*
OPENQASM WORKFLOWS
CLOUD + LOCAL

*Capacity applies to supported DecaQ profiles. Workload, operator and precision limits depend on the selected family.

01DECAQ CLOUD

Six quantum families.One connected workspace.

From a defined workload to an inspectable result. Access DecaQ through a managed, paid service with profiles up to 400 logical qubits.

The platform is described as supporting service profiles up to 400 logical qubits; this is not a blanket guarantee for arbitrary circuits or every operator.

Request cloud access

Hidden structure
Bernstein–Vazirani
Recover an encoded binary relation through structured oracle computation.
Explore BV
Oracle classification
Deutsch–Jozsa
Distinguish constant and balanced functions within a defined oracle problem.
Explore DJ
Adaptive precision
Iterative Phase Estimation
Reconstruct phase through controlled evolution and sequential phase extraction.
Explore IPE
Spectral computation
Quantum Phase Estimation
Extract eigenphase information from structured controlled evolution.
Explore QPE
Energy & Hamiltonians
Variational Quantum Eigensolver
Explore Hamiltonian and energy-minimization workloads using variational methods.
Explore VQE
Graph optimization
Quantum Approximate Optimization Algorithm
Work with structured combinatorial problems, including Max-Cut.
Explore QAOA

Interactive · try Alex

DECAQ CLOUD / ALEX

Your next idea.Create your QASM circuit.

Turn your idea into a quantum circuit. Create QASM with Alex and discover DecaQ’s capabilities.

Pick an algorithm family and a size.
Add your own instructions, or leave it blank.
Try it: Alex builds the QASM in DecaQ Cloud.

01 / PROGRAMOpenQASM
02 / SUBMITYour workload
03 / EXECUTEDecaQ runtime
04 / INSPECTSource & evidence
05 / USEYour result

INSIDE THE WORKSPACE

The answer.And the contextbehind it.

Inspect the returned register, explore the objective scan and follow the source associated with the result.

Visual
Evidence
Source
Raw JSON

Detailed QAOA Max-Cut result visualizer with returned bits, carrier inspector, source tabs and objective scan — Supplied interface capture. The display is not a live execution.

Enlarged DecaQ Max-Cut result visualizer — Supplied interface capture. The display is not a live execution.

02Q400 DESKTOP SYSTEM

Q400400 LOGICAL QUBITS*

*Capacity applies to supported DecaQ profiles. Workload, operator and precision limits depend on the selected family.

DEDICATED. LOCAL. DECAQ.

Your desk.Your data.Your DecaQ.

Bring the DecaQ computational platform into your own environment. Q400 is a compact desktop system for supported logical quantum workloads.

400 logical qubits*
A dedicated DecaQ environment.
*Capacity applies to supported DecaQ profiles. Workload, operator and precision limits depend on the selected family.
On-premise execution
Keep workloads close to your data.
Connected workflow
Plan your cloud-to-local deployment.
Technical onboarding
Discuss profiles, integration and support.

Discuss your Q400

Configuration, supported profiles and delivery arrangements are confirmed with the DecaQ team.

Develop in the cloud. Deploy on Q400.

Start with a defined workload. Test the supported profile. Plan the local deployment with DecaQ.

Plan a deployment

03CUSTOMERS & PARTNERS

From a first workloadto a wider opportunity.

Bring a computational requirement, an integration plan or a market opportunity. Let’s define the next step together.

Enterprise & research
Evaluate a real workload. Define the success criteria and explore cloud or local deployment.
Discuss a workload
System integrators
Connect DecaQ to a wider environment, with a clear scope for interfaces, enablement and support.
Explore integration
Distributors
Introduce DecaQ Cloud and Q400 to your market. Start a conversation about customers and territory.
Become a distributor

LET’S BUILD THE NEXT STEP

Start witha conversation.

Tell us what you want to compute, deploy or bring to market.

CONTACT / ONLINE INQUIRY

01Define the opportunity
02Align the technical scope
03Plan a way forward

THE DECAQ NOTEBOOK

Results. Research.What comes next.

Explore the work behind the platform — from focused algorithm experiments to larger engineering and research programs.

6 updates

DECAQ / 01
CONCEPTUAL SCHEMATIC
Research result
ECHO120
120-logical-qubit echo evolution
Forward evolution, a perturbation and reverse evolution — a focused investigation of deep logical computation.
Claim boundary
This is a specific echo workload. It is not presented here as an identical reproduction of Google Willow’s workload or as a universal quantum-advantage benchmark.
Evidence status in this website
A versioned execution report is not attached to this website build. Runtime, speedup and independent-verification claims are intentionally not published in this card.
120logical qubits
DECAQ / 02
CONCEPTUAL SCHEMATIC
Research result
Simon
Finding a hidden period
Oracle-based hidden-period computation and the relations needed to recover an encoded structure.
Claim boundary
The website does not infer exponential speedup or a physical-QPU result from the algorithm’s name. Those claims require a specified oracle, workload and equivalent-work comparison.
Evidence status in this website
The precise instance, oracle interface and evidence bundle need to accompany a public result report. No unverified period length or speedup metric is included here.
Hiddenstructure
DECAQ / 03
Conceptual schematic · illustration
Engineering milestone
QAOA2000
A larger structured workload
Taking structured Max-Cut research beyond the current 400-logical-qubit service platform.
Claim boundary
Research width is not a promise that arbitrary 2,000-qubit circuits are supported by the current cloud service. A returned cut is not automatically an optimality certificate.
Evidence status in this website
Attach the graph, workload version, returned witness, independent rescoring and runtime conditions before publishing detailed performance numbers. This build does not publish a timing claim.
2,000logical-width research
DECAQ / 04
Conceptual schematic · not the real geometry
Research program
FeMoco
A route toward quantum chemistry
Hamiltonian structure, phase estimation and the engineering of a chemically motivated computation.
Claim boundary
A defined computational route or active-space model is not the same as a validated solution of the full molecule. This page makes no claim that FeMoco has been solved.
Evidence status in this website
The selected active space, Hamiltonian, execution route, validation method and remaining limitations belong in the accompanying research report.
QPEchemistry research
DECAQ / 05
CONCEPTUAL SCHEMATIC
Roadmap target
SmartQASM
Think beyond expanded circuits
A program-representation and execution research direction for very large logical workloads.
Claim boundary
One billion gates is a roadmap target here, not a measured execution result. Planned, represented, committed and actually executed operations must be counted separately.
Evidence status in this website
No billion-gate execution evidence is asserted in this build. Future milestone reports should state the counting convention and measured work explicitly.
1 billiongates · target
DECAQ / 06
CONCEPTUAL SCHEMATIC
Research program
Quantum Gear
From circuits to useful functions
Connecting application intent, operators, precision and selected outputs to a computational route.
Claim boundary
The application layer and the fundamental-physics research are related directions, not a claim that every proposed function or physical model is a finished product.
Evidence status in this website
Each implemented function or mathematical experiment needs its own execution contract and evidence. This page describes the research direction without claiming an established Theory of Everything.
Functionto execution

Scope matters. Research, engineering milestones and development targets are labelled separately. Each note explains what is — and is not — being claimed.

THE DEVELOPMENT HORIZON

A much largercomputational future.

More logical capacity. Larger programs. A higher-level way to express what computation should do.

CURRENT PLATFORM

400 logical qubits*

*Capacity applies to supported DecaQ profiles. Workload, operator and precision limits depend on the selected family.

DecaQ Cloud + Q400

Development target
ORCA
400,000LOGICAL QUBITS · TARGET
Investigating an architecture that extends the DecaQ program toward hundreds of thousands of logical computational carriers.
Discuss the research
Development target
SmartQASM
1 billionGATES · PROGRAM-SCALE TARGET
Exploring representation and execution routes for very large logical programs, with explicit accounting of the work performed.
Explore SmartQASM
Research direction
Quantum Gear
Beyond circuits.FUNCTION-LEVEL COMPUTATION
Connecting functions, operators, precision and selected observables to a defined computational pathway.
Enter the research

Development targets are not current service capacities, delivery commitments or measured execution results. Qubit capacity and program gate count are separate dimensions.

QUANTUM GEAR × QPE × FUNDAMENTAL PHYSICS

What if computationbecame a laboratoryfor new ideas?

Quantum Gear connects application intent to computational functions. A parallel research direction explores structured operators, spectral models and discrete geometry through phase-estimation methods.

01
You name a function, the operator it acts on, and the precision you need.
02
Connects that intent to a computation: a representation, and a precision or resource contract.
03
The computation is laid out as a defined route through circuits, and run.
04
What comes back is the outputs you chose to measure.

Conceptual schematic · An illustration of the idea, not an execution trace.

From useful functions to fundamental questions: a program of mathematical models, computational experiments and testable hypotheses.

Spectral operators
Phase structure
Discrete geometry
TOE research

Discover Quantum Gear

Read the research scope

Mathematical research

QPE × Quantum Gear × fundamental physics

A computational language for exploring structured operators and spectral questions.

Research direction

This research explores relationships among operator spectra, discrete structure, phase estimation and candidate mathematical constructions in fundamental physics. Quantum Gear is also an application-facing layer for connecting functions to execution routes.

What this page does not claim

The website does not claim a proved or experimentally established Theory of Everything, a new verified physical resource or universal quantum advantage. A mathematical construction, computational experiment and physical measurement are different types of evidence.

What belongs with a result

A publishable research result should identify the model, assumptions, computation, controls, observable prediction and any external experimental validation. Those materials are not supplied by this static website.

Contact / prepare an inquiry

Mathematical and computational research — not a claim of an experimentally established Theory of Everything.

FOR DEVELOPERS

Start with the workload.

Choose the algorithm family, define the computational contract and establish how you will verify the output.

Request developer access

Choose a family
BV · DJ · IPE · QPE · VQE · QAOA
Confirm the profile
Input, operators, width and precision.
Inspect the result
Returned output, source and verification scope.

THIS IS WHERE YOUR NEXT WORKLOAD BEGINS.

Use it in the cloud.Put it on your desk.Build what comes next.

Request cloud access Explore Q400 Partner with DecaQ

Quantum computing. On demand.

Quantum computing. On your desk.

A new capability. A shared opportunity.

Bernstein–Vazirani

Deutsch–Jozsa

Iterative Phase Estimation

Quantum Phase Estimation

Variational Quantum Eigensolver

Quantum Approximate Optimization Algorithm

Your next idea.Your next idea.Create your QASM circuit.Create your QASM circuit.

The answer.The answer.And the contextAnd the contextbehind it.behind it.

Your desk.Your desk.Your data.Your data.Your DecaQ.Your DecaQ.

400 logical qubits*

On-premise execution

Connected workflow

Technical onboarding

Develop in the cloud. Deploy on Q400.

From a first workloadFrom a first workloadto a wider opportunity.to a wider opportunity.

Enterprise & research

System integrators

Distributors

Start withStart witha conversation.a conversation.

ECHO120

Simon

QAOA2000

FeMoco

SmartQASM

Quantum Gear

ORCA

SmartQASM

Quantum Gear

What if computationWhat if computationbecame a laboratorybecame a laboratoryfor new ideas?for new ideas?

Request

Quantum Gear

Execution route

Selected observables

Start with the workload.Start with the workload.

Choose a family

Confirm the profile

Inspect the result

Use it in the cloud.Use it in the cloud.Put it on your desk.Put it on your desk.Build what comes next.Build what comes next.

Your next idea.Create your QASM circuit.

The answer.And the contextbehind it.

Your desk.Your data.Your DecaQ.

From a first workloadto a wider opportunity.

Start witha conversation.

What if computationbecame a laboratoryfor new ideas?

Start with the workload.

Use it in the cloud.Put it on your desk.Build what comes next.