Two Engineers Working on Kilimanjaro’s Quantum Computers
Credit: Qilimanjaro
Quantum computers, once viewed as futuristic devices, are now becoming more accessible. With DIY kits, individuals with sufficient resources and engineering expertise can assemble their own quantum systems.
The Barcelona-based quantum computing firm, Kilimanjaro, is revolutionizing access to this technology through their EduQit initiative. Inspired by the concept of “flat-pack furniture,” Kilimanjaro supplies all necessary components, allowing users to assemble their own quantum computing kits.
Each EduQit kit features a chip crafted from tiny superconducting circuits, which is essential for quantum computation. It includes a specialized refrigerator to install the chip, alongside electronics that utilize radio and microwave signals to govern the chip and interpret its calculations—all bundled with racks, power cables, and supplementary devices to construct the entire quantum computer.
While assembling the kit may seem challenging, comprehensive instructions are provided. As Marta Estarellas from Kilimanjaro states, their team offers training and support throughout the construction process. Training may take up to three months, with the complete system ready for operation in approximately ten months.
The EduQit quantum computer boasts five qubits and occupies less than one-tenth the space of cutting-edge models, yet is available for the relatively modest price of about 1 million euros. In contrast, most existing quantum computers are produced by major tech corporations or well-funded startups and research facilities. To illustrate, Google aims to reduce component expenses by a factor of ten, as current systems can cost less than $1 billion.
See more about quantum computing costs in a recent study.
Kilimanjaro Quantum Chip
Credit: Qilimanjaro
While compact commercial machines are available, they usually don’t include complete kits. For instance, Rigetti, a California company, offers small superconducting quantum computers for research starting at around $900,000, which only encompass the main chip and a few components—akin to obtaining just a motherboard without peripherals.
Kilimanjaro aspires to furnish comprehensive kits to numerous research institutions, where access to quantum computing technology remains limited due to funding constraints. Their goal is to equip the next generation of researchers with hands-on experience in building and operating quantum systems.
Currently, students engage with quantum computers via cloud platforms or simulated models. However, EduQit aims to provide practical skills in quantum computing, potentially becoming the educational equivalent of the Raspberry Pi—small, easily customizable computers that evolved from learning tools into essential resources for hobbyists and scientists alike.
Quantum computing holds promise for performing complex calculations unattainable even by today’s top supercomputers. From breaking secure internet codes to simulating molecular behavior for drug discovery, the potential is vast. Yet, the fragility and susceptibility to errors of quantum chips pose significant challenges in realizing this technology’s full potential.
A quantum computer like EduQit would have competed with the most advanced lab systems a decade ago. Its availability as a DIY kit showcases the rapid advancements in quantum computing technology in recent years.
As Katia Moskovich notes, companies like Quantum Machines highlight the multitude of unanswered questions regarding the future of quantum computing, emphasizing that broader experimentation will enhance understanding and innovation in this field.
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Source: www.newscientist.com
