QUANTUM ABC Talk to us ↗
Seeking 2027 design partners

ABC / AGENT-BASED COMPUTING

Agents turn quantum
into tangible.

Quantum ABC stands for Agent-Based Computing. Autonomous agents work intelligently and collectively to transform a quantum Hamiltonian into an equivalent classical spring-mass system.

LIVE SIMULATION
7-QUBIT Z₂ STRING BREAKING
MASSES256
SPRINGS608
MAX. DEVIATION4 × 10−13
MODEREAL-TIME

One collective system

DISCOVER
TRANSLATE
REPRODUCE
VALIDATE
01 / AGENT-BASED COMPUTING

WHAT ABC MEANS

Not one agent.
A hierarchy of specialists.

Our computing framework organizes autonomous agents around a shared physical objective. Research agents identify experiments. Physics agents interpret the Hamiltonian. Design agents configure the oscillator network. Verification agents test the result.

Together, they provide a modular pathway from quantum models to physical classical simulators.

01RESEARCH AGENT

Discover

Finds quantum algorithms, experiments, papers, and hardware specifications.

02PHYSICS AGENT

Translate

Turns the target Hamiltonian into the real-valued equations of motion.

03DESIGN AGENT

Configure

Maps equations to masses, couplings, stiffness, and physical constraints.

04VALIDATION AGENT

Prove

Reproduces known experiments and checks every trajectory against exact evolution.

02 / THE PHYSICAL MAPPING

A quantum equation.
A classical machine.

Analog classical simulation (ACS) transforms quantum evolution into real-valued ordinary differential equations that physical oscillators solve naturally.

01

Displacement is amplitude

Each mass position directly represents a component of the quantum wavefunction.

02

Coupling is entanglement

Spring connections encode interactions between quantum states and subsystems.

03

Stiffness is Hamiltonian

The stiffness matrix implements the target physics, ready for continuous readout.

QUANTUM MODELiℏ ∂|ψ⟩∂t = H|ψ⟩
CLASSICAL SYSTEMMẍ + Kx = 0
03 / VALIDATED PERFORMANCE

Agents design it.
Physics proves it.

Different agents can reproduce and validate known quantum computing experiments on analog classical devices. Our 256-mass, 608-spring prototype reproduces 7-qubit lattice-gauge string breaking with extraordinary precision.

Become a design partner ↗
$56

prototype bill of materials

4×10−13

maximum deviation

~$6K

comparable cloud campaign

24/7

room-temperature access

04 / COLLECTIVE WORKFLOW

One quantum model.
A coordinated path to hardware.

Every stage has a specialist agent, a clear handoff, and a physics-based check. The system stays modular as new algorithms, mappings, and physical platforms are added.

01INGESTpapers · circuits · hardware specs
↓
02COMPILEHamiltonian → stiffness matrix
↓
03VERIFYODE integration · tolerance checks
↓
04BUILDfabrication-ready blueprint
05 / ONE PLATFORM, MANY FORMS

Built for the people
building quantum.

01
BENCHTOP INSTRUMENT

ACS-1

An exact reference system for processor certification, algorithm validation, and lab research.

→
02
EDUCATION

ACS Classroom

Affordable teaching hardware that makes the wavefunction visible, live, and hands-on.

→
03
SOFTWARE + API

ACS Compiler

Submit a quantum circuit and receive a verified, buildable oscillator-network design.

→
06 / FOUNDER-LED SCIENCE
“We are not replacing quantum hardware. We are building the exact, accessible reference platform it needs.”

Ka-Wa Yip, Ph.D.

Founder & CEO · 15 years in quantum physics

  • Ph.D. in Physics, USC
  • Research in PRA, PRApplied, IEEE IROS & Patterns
  • APS Global Summit 2026 Session Chair

LET'S BUILD THE REFERENCE LAYER

Bring quantum dynamics
to your bench.

Start a conversation ↗Explore open research ↗