Exploring the Potential of Quantum Sensing in Virtual Reality
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Chapter 1: My Journey into Quantum Physics
At around 28 years old, I was accepted into a university for a degree in computational physics after spending eight challenging years navigating the educational landscape. Working as a waiter, this acceptance felt like a significant achievement. I vividly recall a conversation I had shortly after receiving my acceptance letter with a kind couple at my table. Upon learning of my ambition to pursue a PhD in particle physics, the gentleman expressed skepticism, questioning the financial viability of such a path. This prompted me to inquire about the salary of a physics researcher, only to discover it was a mere $12 an hour. Another PhD candidate emphasized the importance of choosing the right mentor for my dissertation, as it could determine whether I secured funding or engaged in meaningful research. Recognizing the growing need for augmented and virtual reality in the field of physics, I decided to chart a different course. More insights can be found here:
Quantum Computing for Dummies
Don't worry, I'm still figuring it all out too.
Chapter 2: The Intersection of Quantum Sensing and Virtual Reality
Having spent nearly a decade in Augmented and Virtual Reality, I believe I have some insights to offer regarding the man's concerns about the value of scientific pursuits. Quantum Computing is increasingly seen as a beacon of hope for solving optimization and cryptography challenges faced by governments and businesses alike. This potential is rooted in the advancements made in particle physics measurements. Thus, it stands to reason that enhancing quantum sensing technologies could accelerate progress in a manner similar to Moore's Law, which has effectively captured the pace of technological development.
Defining Quantum Sensors
As Kathryn Zurek explains in a publication by Science.org, a quantum sensor is any device capable of detecting an individual quantum particle, such as a photon or energetic electron. "I define a quantum sensor as something capable of detecting single quanta in any form it may take," she states. According to Q-Ctrl, these sensors "detect smaller signals from greater distances," with a market that is expanding rapidly—approximately 13% annually. Quantum sensing is also a critical area of focus at the world's largest particle physics collaboration, CERN. Additional details can be found in their reports.
Delving deeper, SPIE highlights various quantum sensor technologies that could potentially detect dark matter and dark energy, which remain elusive to direct observation. A paper from Cornell on dark matter in high-energy physics asserts, "We confidently predict that a targeted initiative by DOE OHEP will serve as a catalyst to uncover other high-energy physics areas where quantum information and sensing could significantly transform the field over time."
What do the Top Consulting Firms Say?
- McKinsey: "The components segment of the quantum sensing market is currently the most developed; manufacturers are selling commercial products, but fully automated solutions are still in development."
- Deloitte: "Research is ongoing to create quantum sensors that are cheaper, lighter, more portable, and energy-efficient."
- BCG: "Over €1.8 billion has been invested in France over five years in quantum technologies including sensors and communication."
- EY: "Quantum sensing has the potential to contribute to sustainability efforts."
- Accenture: "Quantum sensors could empower scientists to remotely observe and measure previously undetectable activities below the Earth's surface, enhancing early-warning systems for natural disasters."
- Sapient: "Technological advancements in quantum computing and reduced costs for storage and processing will continue driving innovation."
- Gartner: "Chirage Dekate offers strategic insights to CIOs on topics related to quantum sensing."
- Forbes: "Q-CTRL has launched a new division aimed at developing advanced software-defined quantum sensors, such as software-enhanced gravity sensors for imaging underground resources."
- Citi GPS: "Harnessing quantum computing in medical research could accelerate drug discovery and enable personalized medicine."
Current Funding Landscape for Quantum Sensing
Funding for High Energy Physics has seen reductions but may be increasingly allocated at the international level. Recent budget developments in the US Congress suggest potential increases for specific categories within the Department of Energy research funding. I believe that augmented and virtual reality could play a pivotal role in facilitating collaboration and visualizing complex concepts such as dark matter and high-energy physics. Consequently, I have initiated an advanced physics lab within a virtual reality environment.
Step Inside Your Advanced Physics Lab
Let's discuss dark matter, black holes, and the Future Circular Collider in Virtual Reality.
Chapter 3: The Future of Quantum Sensing and Research Collaboration
Thus, this journey illustrates my motivations for initially enrolling in computational physics, as well as my reasons for inquiring about PhD programs at Virginia Tech and UNCC today. For further insights into how I am integrating these concepts, check out my next article!
Wiring a Particle Accelerator in Virtual Reality
Why the world does and doesn’t need wires in VR
There are no 3D models for dark matter… yet
How to find imagery for something we cannot observe
Other Interesting Resources
Explore Quanta's Coverage on Axions
Visit Quanta Magazine for more articles on axions.
www.quantamagazine.org
Quantum Sensing, Imaging, and Precision Metrology Conference
This conference aims to unite researchers with expertise across the entire spectrum of quantum sensing technologies.
spie.org