Riverlane Ltd

Quantum computers are a new type of computational tool with the potential to completely transform critical industries such as healthcare, manufacturing, and finance. Their building blocks, called qubits, can process information in a highly effective way, allowing execution of computations that are much more complex and fast than classical computers. Howev...

QUICHE (QUantum Integrated CHEmistry) is an international partnership between UK-based Quantum Motion and Riverlane and Germany-based FACCTs. The project aims to integrate quantum computing into the industry-leading ORCA chemistry package, creating a prototype pipeline mapping from a chemical system to a quantum circuit. Advanced decomposition, simulation...

The UK Government has set its ambitious target to national industry and academia of achieving 1 million quantum operations (the MegaQuop) by 2028 and 1 trillion quantum operations (TeraQuop) by 2035 through its Quantum Mission. The key challenge today to reach this computational advantage is how we build Quantum Computers (QCs) capable of large numbers of...

Fault-tolerant quantum computing promises to usher in a new era of high-performance computing, offering unprecedented power to solve several significant real-world problems. However, to effectively integrate quantum error orrection (QEC)---the cornerstone of fault tolerance---critical challenges must be addressed. These include processing bottlenecks in c...

**"Quantum Testbed Advancements through 2D Trapping Architectures" (Q-TATA)** solves a barrier to scaling quantum computers: the qubit routing challenge. Existing Quantum Computers (QCs) become slower and more prone to errors as they scale due to limited ability to efficiently move information around the processors. Solving this challenge is a key enabler...

Quantum computers have the potential to revolutionise critical industries, including healthcare, manufacturing, and finance. These computers utilise 'qubits' as their fundamental building blocks. Qubits enable much faster and more complex processing of information compared to the computers we use today. However, they are very susceptible to environmental ...

Quantum computers can change the world. However, to reach their full potential, they must be able to perform billions of operations reliably. We can achieve the necessary reliability thanks to a technique known as quantum error correction (QEC). QEC involves arranging several qubits into error resistant computational units. The additional qubits in these ...

This project focuses on improving the computational power of quantum computers. These new types of computers, based on building blocks called qubits, will be able to simulate new materials and medicines, optimize logistics and finance, and solve other problems that are too complex for classical computers to handle. However, current quantum computers are n...

Today's pharmaceutical, chemical and materials companies rely on simulation to develop new materials and medicines. But the computers we currently use are not powerful enough to simulate large molecules or 'solid state' materials, which are used to build electronic components and devices. This is where quantum computers can help. Quantum computers are a n...

Quantum computers are new types of powerful computers that are based on building blocks called qubits, that carry information in a more effective way than the bits on a conventional computer. Quantum computers have the potential to achieve computational times that are orders of magnitude faster than conventional computers. While qubits work differently fr...

Quantum computers are a new type of powerful computer, based on building blocks called quantum bits, or qubits. These qubits carry information in a more effective way than bits on a conventional computer. As such, quantum computers will be able to run complicated calculations and help solve some of the world's biggest challenges, including drug discovery ...

Quantum computers are a new type of powerful computer, based on building blocks called quantum bits, or qubits, that carry information in a more effective way than bits on a conventional computer. However, both bits and qubits can be affected by errors that change the information they contain. For quantum computers to perform complex calculations accurate...