Quantum technologies for humanity

Quantum leap: Transforming technology, society, and the future

Quantum technologies hold immense potential to redefine technology and society. Significant research and development efforts continue to support commercialization and scalability for deployment across applications that can impact lives:

Improving healthcare, by accelerating drug discovery, optimizing treatment plans, and improving diagnostic accuracy
Building ultra-secure networks to protect sensitive data, helping to prevent fraud and identity theft
Enhancing modeling of complex problems like climate change

Quantum technologies are rapidly moving from research to a viable and accelerating market. Estimated at $1 billion in 2024, the market for quantum hardware and software is expected to create a $1 trillion economic impact by 2035 ⁱ.

Application overview: Photonics in quantum technologies

Emerging quantum technology fields all rely on photonics innovations in:

Quantum computation and simulation: neutral atoms, trapped ions, nitrogen vacancy, photonic qubits
Quantum communication and networking: quantum random number generation, quantum key distribution (QKD), quantum repeaters, memories, and buffers
Quantum metrology and sensing: measurement of magnetic and electrical fields, precise timing instruments, and inertial instruments like accelerometers and gyroscopes
Fundamental research: quantum optics, quantum imaging, quantum biology, and entanglement/single photon sources

Through collaboration and sustained investment, the quantum ecosystem has achieved many quantum milestones sooner than expected. Today, readily available photonic components and solutions can help engineers realize quantum systems across computing, communication and sensing while the next generation of photonic solutions can enable scaling of quantum computers or field deployable SWaP-C quantum sensors.

Hamamatsu Photonics is at the forefront of quantum technology, delivering a wide range of photonic devices and solutions, ranging from lasers (with our new acquisition of NKT Photonics) to detectors, to cameras, and to modulators. Through dedicated R&D efforts, we strive to drive innovation and enable the next generation of quantum advancements.

Our mission is to make quantum functionality more accessible by providing essential tools and solutions to accelerate the development of emerging technologies.

Don't miss: Photonics West presentation

Quantum computing, communication, and simulation V | Conference 13391

Trapped ion and neutral atom quantum computers illuminating the path for innovation: past, present, and future of qubit state detection

This presentation will be held on January 28, 2025 @ 11:50 AM - 12:10 PM PST | Moscone South, Room 158 (Upper Mezz)

Our speaker Klea Dhimitri will also present the same at the Hamamatsu booth 1127 on January 29th.

Learn more

Featured products for the quantum frontier

ORCA-Quest 2 qCMOS camera C15550-22UP

The ORCA-Quest 2, the latest advancement in our qCMOS camera line, enables quantitative detection of weak fluorescent light from trapped ions and neutral atoms for qubit state readout. This enhanced model boasts significant improvements, including accelerated readout speeds in an ultra-low-noise scan mode, alongside a heightened sensitivity within the ultraviolet spectrum, an advantage for trapped ion quantum computers.

Photon counting heads H10682 series

The photon counting head H10682 series is a module that enables photon counting measurement of ion fluorescence with high sensitivity and low noise.

LCOS-SLM (optical phase modulator)

The LCOS-SLM is a reflective spatial light modulator that freely controls the phase of light with a liquid crystal. Controlling the phase (wavefront) with LCOS-SLM enables researchers to generate a highly efficient optical microtrap array to confine neutral atoms.

SPAD module C11202-100

SPAD module C11202-100 has high PDE in the visible region with low dark counts to detect fluorescence from trapped ions.

SPAD module C13001-01

The fiber-coupled SPAD module C13001-01 has high PDE in the visible region with low dark counts to detect fluorescence from trapped ions.

Koheras BASIK – single-frequency fiber lasers

The Koheras BASIK single-frequency fiber lasers are precision tools designed for quantum applications, delivering ultra-narrow linewidth, exceptional frequency stability, and low phase noise. These lasers are ideal for demanding quantum technologies such as atomic clocks, quantum sensing, and trapped-ion experiments, providing unmatched performance for precise and stable operation in quantum research and development.

Koheras BOOSTIK HP – high-power single-frequency lasers

The Koheras BOOSTIK HP high-power single-frequency lasers are engineered for quantum applications requiring both exceptional precision and high optical power. With ultra-narrow linewidth and superior frequency stability, these lasers are ideal for quantum computing, quantum sensing, and atomic physics experiments, enabling robust and reliable performance in cutting-edge quantum research.

Beyond the blog: more on quantum technologies