Adopted by
Leaders in
Quantum and AI

Adopted by
Leaders in
Quantum and AI

Adopted by
Leaders in
Quantum
and AI

Quantum Solutions for Industry Challenges

Quantum Solutions for Industry Challenges

Quantum Solutions for Industry Challenges

Quantum computing is no longer just theoretical – systems are being delivered today to data centers and supporting industrial use cases.

SEEQC’s digital quantum System-on-a-Chip is supporting a range of industries with real-world solutions. Each story illustrates how our technology, combining classical and quantum processing on a single chip, is tackling challenges in these domains.

Where Quantum meets the Real World

Where Quantum meets the Real World

Where Quantum meets the Real World

Each of these industry stories demonstrates a common theme: by focusing on specific high-impact problems, SEEQC’s quantum computing solutions can deliver real value now. Whether it’s reducing operational costs, or accelerating R&D, our digital quantum platform is bridging the gap between laboratory research and practical enterprise applications. Together with our partners, we’re turning quantum potential into quantum advantage across these verticals – and empowering businesses to be ready for the quantum future.

Each of these industry stories demonstrates a common theme: by focusing on specific high-impact problems, SEEQC’s quantum computing solutions can deliver real value now. Whether it’s reducing operational costs, or accelerating R&D, our digital quantum platform is bridging the gap between laboratory research and practical enterprise applications. Together with our partners, we’re turning quantum potential into quantum advantage across these verticals – and empowering businesses to be ready for the quantum future.

Case Study
IBM

Case Study
IBM

Case Study
IBM

Scaling with IBM

Scaling with IBM

Scaling with IBM

Quantum Benchmarking Phase B Award

Quantum Benchmarking Phase B Award

Quantum Benchmarking Phase B Award

Collaborating under DARPA’s Quantum Benchmarking Initiative (QBI) to explore integrating SEEQC’s SFQ chip-based control technology with IBM’s quantum computing systems

Collaborating under DARPA’s Quantum Benchmarking Initiative (QBI) to explore integrating SEEQC’s SFQ chip-based control technology with IBM’s quantum computing systems

Collaborating under DARPA’s Quantum Benchmarking Initiative (QBI) to explore integrating SEEQC’s SFQ chip-based control technology with IBM’s quantum computing systems

On-Chip Readout & Control

On-Chip Readout & Control

On-Chip Readout & Control

Chip-scale multiplexed readout + control electronics integrated with qubit chips, advancing IBM’s roadmap to fault-tolerant quantum computing by 2029

Chip-scale multiplexed readout + control electronics integrated with qubit chips, advancing IBM’s roadmap to fault-tolerant quantum computing by 2029

Chip-scale multiplexed readout + control electronics integrated with qubit chips, advancing IBM’s roadmap to fault-tolerant quantum computing by 2029

10X Cost Advantage

10X Cost Advantage

10X Cost Advantage

Fully digital, on-chip integration delivers a 10x BOM savings compared to conventional quantum computers

Fully digital, on-chip integration delivers a 10x BOM savings compared to conventional quantum computers

Fully digital, on-chip integration delivers a 10x BOM savings compared to conventional quantum computers

Billion-Fold Energy Reduction

Billion-Fold Energy Reduction

Billion-Fold Energy Reduction

SEEQC chips reduce power dissipation by a factor of 1 billion compared to state of the art room temperature qubit readout and control systems

SEEQC chips reduce power dissipation by a factor of 1 billion compared to state of the art room temperature qubit readout and control systems

SEEQC chips reduce power dissipation by a factor of 1 billion compared to state of the art room temperature qubit readout and control systems

Case Study
NVIDIA

Case Study
NVIDIA

Case Study
NVIDIA

Pioneering Quantum AI

Pioneering Quantum AI

Pioneering Quantum AI

All Digital Link

All Digital Link

All Digital Link

SEEQC cryogenic digital processor supports the world's first end-to-end fully digital QPU-GPU interface, eliminating critical scaling bottlenecks from todays bulky and inefficient analogue interface

SEEQC cryogenic digital processor supports the world's first end-to-end fully digital QPU-GPU interface, eliminating critical scaling bottlenecks from todays bulky and inefficient analogue interface

SEEQC cryogenic digital processor supports the world's first end-to-end fully digital QPU-GPU interface, eliminating critical scaling bottlenecks from todays bulky and inefficient analogue interface

Quantum + AI = Heterogenous Compute

Quantum + AI = Heterogenous Compute

Quantum + AI = Heterogenous Compute

Digital integration between SEEQC’s QPU and NVIDIA’s GPU, converging two complementary forms of computation to amplify what each does best

Digital integration between SEEQC’s QPU and NVIDIA’s GPU, converging two complementary forms of computation to amplify what each does best

Digital integration between SEEQC’s QPU and NVIDIA’s GPU, converging two complementary forms of computation to amplify what each does best

Real-Time QEC

Real-Time QEC

Real-Time QEC

Ultra-low latency interface (<1μs) enable real-time, scalable quantum error correction (QEC) for fault-tolerant quantum computer

Ultra-low latency interface (<1μs) enable real-time, scalable quantum error correction (QEC) for fault-tolerant quantum computer

Ultra-low latency interface (<1μs) enable real-time, scalable quantum error correction (QEC) for fault-tolerant quantum computer

Efficient Throughput

Efficient Throughput

Efficient Throughput

Data rate from our chips is 1,000x lower than conventional technology, significantly reducing the bandwidth and processing requirements for large-scale fault-tolerant quantum computing

Data rate from our chips is 1,000x lower than conventional technology, significantly reducing the bandwidth and processing requirements for large-scale fault-tolerant quantum computing

Data rate from our chips is 1,000x lower than conventional technology, significantly reducing the bandwidth and processing requirements for large-scale fault-tolerant quantum computing

Industry Impact Stories

Industry Impact Stories

Industry Impact Stories

Every sector faces unique challenges. SEEQC works alongside industry leaders to co-develop application-specific quantum solutions from hybrid AI models to secure defense systems. These stories show how our platform translates technical breakthroughs into real-world outcomes.
Every sector faces unique challenges. SEEQC works alongside industry leaders to co-develop application-specific quantum solutions from hybrid AI models to secure defense systems. These stories show how our platform translates technical breakthroughs into real-world outcomes.
Every sector faces unique challenges. SEEQC works alongside industry leaders to co-develop application-specific quantum solutions from hybrid AI models to secure defense systems. These stories show how our platform translates technical breakthroughs into real-world outcomes.

Backed by Global Leaders

Backed by Global Leaders

Backed by Global Leaders

Since 2019, SEEQC has raised over $100M to accelerate the path to scalable quantum computing. We are supported by world-class investors including EQT Ventures, M Ventures, LG Technology Ventures, BlueYard Capital, Merck KGaA, and others committed to building the quantum future.

Since 2019, SEEQC has raised over $100M to accelerate the path to scalable quantum computing. We are supported by world-class investors including EQT Ventures, M Ventures, LG Technology Ventures, BlueYard Capital, Merck KGaA, and others committed to building the quantum future.

Since 2019, SEEQC has raised over $100M to accelerate the path to scalable quantum computing. We are supported by world-class investors including EQT Ventures, M Ventures, LG Technology Ventures, BlueYard Capital, Merck KGaA, and others committed to building the quantum future.

“We believe now is a crucial moment in the commercialization of quantum technologies and we see SEEQC’s platform as a truly scalable solution for the next generation of high-value technological challenges.”

“We believe now is a crucial moment in the commercialization of quantum technologies and we see SEEQC’s platform as a truly scalable solution for the next generation of high-value technological challenges.”

“We believe now is a crucial moment in the commercialization of quantum technologies and we see SEEQC’s platform as a truly scalable solution for the next generation of high-value technological challenges.”

—Dong-Su Kim, CEO

—Dong-Su Kim, CEO

—Dong-Su Kim, CEO

“The most important technological race of our generation”

“The most important technological race of our generation”

“The most important technological race of our generation”

What is Quantum?

What is a Qubit?

Understanding Quantum

Why Quantum Matters

Scaling a Quantum Computer

Inside the Fridge

Classical Bit vs. Qubit

From Switches to Superposition

Classical computers rely on binary bits that are either 0 or 1. Quantum computers use qubits, which can exist in superpositions of both states simultaneously, unlocking exponentially more computing power.

Classical

1

0

Qubit

Understanding Quantum

Watch the video

Understanding
Quantum

Practical use cases

How to scale
a quantum computer

Watch the video

How to scale a quantum computer

SEEQC is built upon the fundamental premise that to deliver a commercially scalable and cost-effective quantum computing solution, classical readout, control, error correction, and data processing functions must be integrated within a quantum processor.

Just as the greatest advances in modern classical computing occurred with digital chip-scale integration of key functions, leading to drastic reduction in system complexity, I/O count, and cost, the same will be required in quantum computing. We are developing a platform to deliver that integration.

 

In terms of scalability, the company is eliminating many of the challenges of building quantum computers with thousands or even millions of qubits. Other industry approaches to quantum computing involve unwieldy systems requiring numerous, costly coaxial cables and complex CMOS readout/control for each qubit. These systems can’t scale effectively to meet the needs of businesses.

 

SEEQC’s system design provides a significant reduction in noise and interference to maintain high fidelity quantum operations at scale. Because it combines cryogenically integrated quantum and classical processors, the full-stack system complexity, required input/output (I/O) count, and room-temperature equipment are dramatically reduced leading to a very cost-effective and scalable quantum computing system.

 

In addition to reducing system complexity, latency and cost, SEEQC’s unique expertise in SFQ for circuit design and manufacture enables the company to engineer systems that operate at about four orders of magnitude lower energy compared to equivalent CMOS-based systems. This is another critical element to building a scalable quantum-classical architecture.

Inside the fridge

Watch the video

Welcome to the Coldest Place on Earth

What is Quantum?

What is a Qubit?

Understanding Quantum

Why Quantum Matters

Scaling a Quantum Computer

Inside the Fridge

Classical Bit vs. Qubit

From Switches to Superposition

Classical computers rely on binary bits that are either 0 or 1. Quantum computers use qubits, which can exist in superpositions of both states simultaneously, unlocking exponentially more computing power.

Classical

1

0

Qubit

Understanding Quantum

Watch the video

Understanding
Quantum

Practical use cases

How to scale
a quantum computer

Watch the video

How to scale a quantum computer

SEEQC is built upon the fundamental premise that to deliver a commercially scalable and cost-effective quantum computing solution, classical readout, control, error correction, and data processing functions must be integrated within a quantum processor.

Just as the greatest advances in modern classical computing occurred with digital chip-scale integration of key functions, leading to drastic reduction in system complexity, I/O count, and cost, the same will be required in quantum computing. We are developing a platform to deliver that integration.

 

In terms of scalability, the company is eliminating many of the challenges of building quantum computers with thousands or even millions of qubits. Other industry approaches to quantum computing involve unwieldy systems requiring numerous, costly coaxial cables and complex CMOS readout/control for each qubit. These systems can’t scale effectively to meet the needs of businesses.

 

SEEQC’s system design provides a significant reduction in noise and interference to maintain high fidelity quantum operations at scale. Because it combines cryogenically integrated quantum and classical processors, the full-stack system complexity, required input/output (I/O) count, and room-temperature equipment are dramatically reduced leading to a very cost-effective and scalable quantum computing system.

 

In addition to reducing system complexity, latency and cost, SEEQC’s unique expertise in SFQ for circuit design and manufacture enables the company to engineer systems that operate at about four orders of magnitude lower energy compared to equivalent CMOS-based systems. This is another critical element to building a scalable quantum-classical architecture.

Inside the fridge

Watch the video

Welcome to the Coldest Place on Earth

What is Quantum?

What is a Qubit?

Understanding Quantum

Why Quantum Matters

Scaling a Quantum Computer

Inside the Fridge

Classical Bit vs. Qubit

From Switches to Superposition

Classical computers rely on binary bits that are either 0 or 1. Quantum computers use qubits, which can exist in superpositions of both states simultaneously, unlocking exponentially more computing power.

Classical

1

0

Qubit

Understanding Quantum

Watch the video

Understanding
Quantum

Practical use cases

How to scale
a quantum computer

Watch the video

How to scale a quantum computer

SEEQC is built upon the fundamental premise that to deliver a commercially scalable and cost-effective quantum computing solution, classical readout, control, error correction, and data processing functions must be integrated within a quantum processor.

Just as the greatest advances in modern classical computing occurred with digital chip-scale integration of key functions, leading to drastic reduction in system complexity, I/O count, and cost, the same will be required in quantum computing. We are developing a platform to deliver that integration.

 

In terms of scalability, the company is eliminating many of the challenges of building quantum computers with thousands or even millions of qubits. Other industry approaches to quantum computing involve unwieldy systems requiring numerous, costly coaxial cables and complex CMOS readout/control for each qubit. These systems can’t scale effectively to meet the needs of businesses.

 

SEEQC’s system design provides a significant reduction in noise and interference to maintain high fidelity quantum operations at scale. Because it combines cryogenically integrated quantum and classical processors, the full-stack system complexity, required input/output (I/O) count, and room-temperature equipment are dramatically reduced leading to a very cost-effective and scalable quantum computing system.

 

In addition to reducing system complexity, latency and cost, SEEQC’s unique expertise in SFQ for circuit design and manufacture enables the company to engineer systems that operate at about four orders of magnitude lower energy compared to equivalent CMOS-based systems. This is another critical element to building a scalable quantum-classical architecture.

Inside the fridge

Watch the video

Welcome to the Coldest Place on Earth

The Power of Entanglement

When qubits are entangled, the state of one is instantly linked to the other—even across large distances. This phenomenon enables faster problem-solving and more secure communications.

The Power of Entanglement

When qubits are entangled, the state of one is instantly linked to the other—even across large distances. This phenomenon enables faster problem-solving and more secure communications.

The Power of Entanglement

When qubits are entangled, the state of one is instantly linked to the other—even across large distances. This phenomenon enables faster problem-solving and more secure communications.

Understanding the
Building Blocks

Understanding the
Building Blocks

Understanding the
Building Blocks

Quantum 101 Basics

Learn the fundamental difference between classical bits and quantum bits, the building blocks of quantum computing.

Superposition
Explained

Dive deeper into how superposition allows qubits to hold multiple states at once, powering parallel computation.

Entanglement:
Nature’s Shortcut

Discover how entangled qubits behave as a single system, creating powerful correlations used in quantum algorithms.

Quantum
Applications

See where quantum computing is already making an impact, from drug discovery to financial modeling and beyond.

Quantum 101 Basics

Learn the fundamental difference between classical bits and quantum bits, the building blocks of quantum computing.

Superposition
Explained

Dive deeper into how superposition allows qubits to hold multiple states at once, powering parallel computation.

Entanglement:
Nature’s Shortcut

Discover how entangled qubits behave as a single system, creating powerful correlations used in quantum algorithms.

Quantum
Applications

See where quantum computing is already making an impact, from drug discovery to financial modeling and beyond.

Quantum 101 Basics

Learn the fundamental difference between classical bits and quantum bits, the building blocks of quantum computing.

Superposition
Explained

Dive deeper into how superposition allows qubits to hold multiple states at once, powering parallel computation.

Entanglement:
Nature’s Shortcut

Discover how entangled qubits behave as a single system, creating powerful correlations used in quantum algorithms.

Quantum
Applications

See where quantum computing is already making an impact, from drug discovery to financial modeling and beyond.

In Their Words

In Their Words

In Their Words

Hear from the organizations shaping the future of quantum with SEEQC. Four perspectives, one shared goal: making quantum practical.

Hear from the organizations shaping the future of quantum with SEEQC. Four perspectives, one shared goal: making quantum practical.

Hear from the organizations shaping the future of quantum with SEEQC. Four perspectives, one shared goal: making quantum practical.

Quantum Day at NVIDIA GTC

SEEQC CEO John Levy discuss quantum computing with NVIDIA CEO Jensen Huang and other leaders in quantum computing.

Quantum Day at NVIDIA GTC

SEEQC CEO John Levy discuss quantum computing with NVIDIA CEO Jensen Huang and other leaders in quantum computing.

Benefits of Quantum Computing

Quantum computers can be used to solve major problems that classical computing devices simply can’t. The creation of new pharmaceutical drugs and visualizing climate models are just some of the potentially world changing outcomes of actualized quantum computing.

Benefits of Quantum Computing

Quantum computers can be used to solve major problems that classical computing devices simply can’t. The creation of new pharmaceutical drugs and visualizing climate models are just some of the potentially world changing outcomes of actualized quantum computing.

Booz Allen Founders Spotlight

John Levy joins Booz Allen’s Joanna Guy to discuss where the industry is going and the partnership between Booz Allen and SEEQC in this personal interview.

Booz Allen Founders Spotlight

John Levy joins Booz Allen’s Joanna Guy to discuss where the industry is going and the partnership between Booz Allen and SEEQC in this personal interview.