

Solving Climate Change Through Quantum Computing
AI-powered Quantum Co-Pilot that accelerates quantum R&D with zero setup and zero quantum expertise.

What is Feynman?
AI-Powered Quantum Co-Pilot
Generate, optimize, and deploy quantum algorithms using simple natural language — no quantum programming required.
No Setup or Infrastructure Needed
Everything runs in the cloud, including real quantum hardware execution — no installation, no configuration.
From Classical to Quantum Automatically
Feynman translates classical scientific problems into efficient quantum circuits, tailored for real-world impact.
Built to Accelerate Climate-Focused Research
Whether you’re modeling climate systems or optimizing EV batteries, Feynman helps cut algorithm deployment from weeks to minutes.
Why Feynman?
Quantum computing is powerful, but hard to use. Feynman makes it easy, fast, and accessible.
Natural Language Input
Real Quantum Execution
AI-Powered Circuit Design
10-Minute Algorithm Deployment
No Infrastructure Needed
Auto-Tuned Results
Classical-to-Quantum Mapping
Framework-Agnostic
Natural Language Input
Real Quantum Execution
AI-Powered Circuit Design
10-Minute Algorithm Deployment
Auto-Tuned Results
No Infrastructure Needed
Classical-to-Quantum Mapping
Framework-Agnostic

How Feynman Works?
Describe Your Problem
Input your classical requirement in natural language.
Feynman Maps & Builds Quantum Code
Automatically generates and optimizes quantum circuits.
Run on Quantum Hardware
Code is deployed and executed on actual quantum machines.
Results Are Decoded for You
Results are interpreted and presented in a clear, readable format.
Speed Up Quantum Research by 3–5x
from qiskit import QuantumCircuit, Aer, transpile, assemble, execute
from qiskit.circuit.library import GroverOperator, PhaseOracle
from qiskit.visualization import plot_histogram
import matplotlib.pyplot as plt
# Define the oracle for a simple problem
oracle = PhaseOracle("a & b")
# Create Grover's algorithm circuit
grover_op = GroverOperator(oracle)
grover_circuit = QuantumCircuit(grover_op.num_qubits)
grover_circuit.h(range(grover_op.num_qubits - 1))
grover_circuit.append(grover_op, range(grover_op.num_qubits))
grover_circuit.measure_all()
# Simulate the circuit
aer_sim = Aer.get_backend('aer_simulator')
qobj = assemble(transpile(grover_circuit, aer_sim))
result = aer_sim.run(qobj).result()
counts = result.get_counts()
You Focus on the Science. We’ll Handle the Quantum
Don’t let quantum programming slow down your climate research. Feynman handles the code, optimization, and execution. So you can focus on solving the world’s biggest crisis.
<10 mins to deploy a quantum algorithm
30–50% productivity gain
1–2 weeks saved per algorithm
3–5x faster iteration cycles
Pricing plans tailored for you
Have any question? Find answer here.
Some frequently asked questions about our Feynman Co-pilot.
Do I need to know quantum programming to use Feynman?
Not at all. Feynman is built so that researchers and scientists can describe their problems in plain English. Our AI Co-Pilot handles the quantum programming, circuit optimization, and hardware execution for you.
Can I edit or customize the generated quantum code?
Absolutely. While Feynman is fully automated, it also offers an editable code interface for advanced users who want to tweak, test, or export quantum circuits manually.
What problems can I solve using Feynman?
Feynman is especially effective in domains like climate modeling, fertilizer chemistry, EV battery design, and logistics optimization — any area where quantum computing can give researchers a meaningful edge.
How much time can I actually save using Feynman?
Feynman reduces quantum algorithm deployment time from 1–2 weeks to under 10 minutes. On average, researchers report a 30–50% productivity gain and 3–5x faster iteration cycles, meaning faster insights and quicker breakthroughs — without the coding overhead.