Oratomic raises $300M to build 20,000-qubit quantum computer, and crypto should pay attention

Oratomic raises $300M to build 20,000-qubit quantum computer, and crypto should pay attention

The Caltech spinout aims to have a fault-tolerant quantum machine running by 2030, which could rewrite the security assumptions underpinning every blockchain.

A quantum computing startup you’ve never heard of just raised more money in a single round than most crypto protocols see in a lifetime. Oratomic, founded by Caltech researcher Dolev Bluvstein, emerged from stealth with a $300 million Series A and a plan to build a utility-scale quantum computer packing 10,000 to 20,000 qubits by 2030.

The round was co-led by ARCH Venture Partners, Spark Capital, and Khosla Ventures. Bezos Expeditions, Index Ventures, and General Catalyst also participated, pushing the post-money valuation to roughly $1.5 billion.

What Oratomic is actually building

The Pasadena-based company is developing fault-tolerant quantum computing systems that use reconfigurable neutral-atom qubits. Instead of the fragile, error-prone quantum bits that define today’s machines, Oratomic is working with atoms suspended by laser beams (called optical tweezers) and arranged using topological error correction methods.

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The team behind this effort draws from Caltech, Harvard, Berkeley, Amazon, and Google. Bluvstein’s academic work, particularly a paper published in March 2026, forms the intellectual backbone of the company. That research suggested something that sent ripples through the cryptography world: Shor’s algorithm, the quantum algorithm capable of breaking widely used encryption, could potentially run on far fewer qubits than previously assumed.

Previous estimates suggested you’d need millions of qubits to crack RSA encryption. The new research indicates that roughly 10,000 qubits might be enough. And Oratomic is targeting up to 20,000.

Why crypto can’t afford to ignore this

The National Institute of Standards and Technology (NIST) has already been working on post-quantum cryptographic standards. But adoption across the broader crypto ecosystem remains minimal. Most protocols are still running on elliptic curve cryptography, which is precisely the type of math that Shor’s algorithm targets.

Oratomic doesn’t have any connection to crypto. There are no tokens, no blockchain integrations, no Web3 buzzwords on their website. This is a pure-play quantum hardware company.

The investor signal and competitive landscape

Oratomic had previously raised seed funding from Nebular in December 2025, meaning the company went from seed to a $300 million Series A in roughly six months.

The neutral-atom approach offers potential advantages in scalability compared to superconducting qubits (the technology IBM and Google use) and trapped-ion systems (IonQ’s approach). Atoms are naturally identical, which reduces one source of manufacturing variability, and optical tweezers allow for dynamic reconfiguration of qubit arrangements during computation.

Disclosure: This article was edited by Editorial Team. For more information on how we create and review content, see our Editorial Policy.

Oratomic raises $300M to build 20,000-qubit quantum computer, and crypto should pay attention

Oratomic raises $300M to build 20,000-qubit quantum computer, and crypto should pay attention

The Caltech spinout aims to have a fault-tolerant quantum machine running by 2030, which could rewrite the security assumptions underpinning every blockchain.

A quantum computing startup you’ve never heard of just raised more money in a single round than most crypto protocols see in a lifetime. Oratomic, founded by Caltech researcher Dolev Bluvstein, emerged from stealth with a $300 million Series A and a plan to build a utility-scale quantum computer packing 10,000 to 20,000 qubits by 2030.

The round was co-led by ARCH Venture Partners, Spark Capital, and Khosla Ventures. Bezos Expeditions, Index Ventures, and General Catalyst also participated, pushing the post-money valuation to roughly $1.5 billion.

What Oratomic is actually building

The Pasadena-based company is developing fault-tolerant quantum computing systems that use reconfigurable neutral-atom qubits. Instead of the fragile, error-prone quantum bits that define today’s machines, Oratomic is working with atoms suspended by laser beams (called optical tweezers) and arranged using topological error correction methods.

Advertisement

The team behind this effort draws from Caltech, Harvard, Berkeley, Amazon, and Google. Bluvstein’s academic work, particularly a paper published in March 2026, forms the intellectual backbone of the company. That research suggested something that sent ripples through the cryptography world: Shor’s algorithm, the quantum algorithm capable of breaking widely used encryption, could potentially run on far fewer qubits than previously assumed.

Previous estimates suggested you’d need millions of qubits to crack RSA encryption. The new research indicates that roughly 10,000 qubits might be enough. And Oratomic is targeting up to 20,000.

Why crypto can’t afford to ignore this

The National Institute of Standards and Technology (NIST) has already been working on post-quantum cryptographic standards. But adoption across the broader crypto ecosystem remains minimal. Most protocols are still running on elliptic curve cryptography, which is precisely the type of math that Shor’s algorithm targets.

Oratomic doesn’t have any connection to crypto. There are no tokens, no blockchain integrations, no Web3 buzzwords on their website. This is a pure-play quantum hardware company.

The investor signal and competitive landscape

Oratomic had previously raised seed funding from Nebular in December 2025, meaning the company went from seed to a $300 million Series A in roughly six months.

The neutral-atom approach offers potential advantages in scalability compared to superconducting qubits (the technology IBM and Google use) and trapped-ion systems (IonQ’s approach). Atoms are naturally identical, which reduces one source of manufacturing variability, and optical tweezers allow for dynamic reconfiguration of qubit arrangements during computation.

Disclosure: This article was edited by Editorial Team. For more information on how we create and review content, see our Editorial Policy.