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Sundays are for sipping coffee, light reads, laid-back listens, and community endeavors.

🔬 Bosons are officially centenarians — but the real celebration should be for Satyendra Nath Bose whose contributions to physics and quantum theory are essential to all we do today. Plus, shining a light on Professor Manijeh Razeghi’s work on the full spectrum of light to advance quantum semiconductor tech, and quantum meets film.

🗓️ THIS WEEK

Sunday, July 28 | QTM-X Quantum Education Series 7 of 10

📰 WEEKEND BYTES

Fun news & community contributions.

⚡️ Quantum’s Business explores the implications of power consumption in quantum computing: Last week's Quantum's Business explored the relationship between AI's energy consumption and quantum computing as a potential solution. AI GPUs consume four times more energy than traditional servers. The International Energy Agency predicts data centers could consume over 1,000 terawatt-hours of electricity by 2026. This has sparked interest in alternative computing methods, such as quantum computing, which is known for its energy-intensive cooling needs but potentially lower computation energy costs. While quantum computers are brought into the pipeline for specialized tasks, conventional computing is most energy-efficient for general use, implying that the future of computing is most likely hybrid to gain the advantage of both. From Brian Lenahan’s substack.

✨ Illuminating the world through quantum semiconductor research: Professor Manijeh Razeghi is a distinguished researcher at Northwestern University who explores the full spectrum of light in pursuit of advancing quantum semiconductor technology. Known for her passion for education and unwavering commitment to her students, she inspires young scientists to integrate their research with their hobbies and realize their full potential. Professor Razeghi’s contributions have led to the development of semiconductor laser diodes and quantum devices that have applications in health, safety, and communication technologies. Through her work and mentorship, she continues to shape the future of semiconductor technology, advocating for innovation and excellence in the scientific community.

🎉 Celebrating a century of Bosons: This year marks the 100^th anniversary of Satyendra Nath Bose’s seminal paper, which laid the foundation for quantum statistics and the study of bosons. Bosons mediate fundamental forces in the standard model of particle physics and are integral to physical phenomena from the quantization of sound waves to the hybridization of electron oscillations and electromagnetic waves. In recent years, they have also been notable in fields such as laser technology and the realization of Bose-Einstein condensates in dilute atomic gases. Their computational potential is particularly promising in quantum computing. Bosonic systems, such as quantum photon states, can transmit quantum information over long distances. Unlike fermions, bosons can facilitate universal quantum computing through non-interacting single photons and linear optical elements. As we celebrate Bose’s contributions, it is essential to recognize the diverse insights and global collaborations that continue to drive scientific progress to ensure that breakthroughs like Bose’s remain possible in today’s interconnected world.

📽️ Project Q is underway: As quantum technologies unfold in labs and industries across the globe, Project Q investigates the risks and implications where global power and peace are concerned. The film is currently under production and is described as a geopolitical thriller, philosophical travelogue, and scientific investigation that explores how quantum advancements could affect climate change mitigation, material creation, and optimization of human and economic activities. But all is not well in love and war: the file also warns of the potential for encrypted message breaches as well as impacts on warfare and artificial intelligence.

🔬 Hartmut Neven of Google Quantum AI explains the quantum physics behind quantum computers and they may be used in medicine, sustainable energy, AI, and neuroscience 👇️ 

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🦸‍♀️ ON THE SHOULDERS OF GIANTS

Satyendra Nath Bose was an Indian physicist who made significant contributions to quantum mechanics in the early 20th century. He is best known for his work on quantum statistics, which led to the development of Bose-Einstein statistics and the concept of bosons. His groundbreaking paper on Planck's law and light quanta, which he sent to Albert Einstein, laid the foundation for Bose-Einstein condensate theory. Bose's work has had a profound impact on the field of quantum mechanics, influencing the study of particle physics and quantum computing.

RECOMMENDED PUBLICATIONS:

Planck's Law and the Hypothesis of Light Quanta

This paper introduced the idea of treating photons as indistinguishable particles, forming the basis of Bose-Einstein statistics and significantly impacting quantum mechanics.

On the Unified Field Theory

Bose explores a potential unified field theory, contributing to the broader understanding of quantum fields.

Thermal Equilibrium in the Radiation Field in the Presence of Matter

This publication discusses the interaction of matter with radiation at thermal equilibrium, a topic relevant to quantum thermodynamics and in turn, quantum computing environments.

ONWARD.