Aeon technology, a revolutionary biotech company in the world of Paradise, brought about a groundbreaking concept: the ability to transfer age between individuals through a process known as the chrono transfers. This film explores the fascinating implications of this technology, delving into the scientific basis behind it, the ethical challenges it poses, and the far-reaching consequences of meddling with time. When the protagonist Max finds himself at a crossroads of unimaginable complexity in the film, he confronts a heartbreaking choice: to venture down a destructive path, forsaking all that once defined him, in a desperate attempt to rescue his beloved wife, Elena, from the clutches of the very same technology that once sustained them.

Aeons technology revolves around the understanding that time is not a linear, unidirectional force but rather a malleable entity. Time, as we perceive it, is a dimension that can be manipulated through the manipulation of biological processes. Chrono transfers involve extracting a specific portion of an individuals age, which is then transferred to another person, effectively elongating their biological age. The process of chrono transfers is grounded in advanced cellular manipulation, specifically targeting telomeres, the protective caps found at the ends of chromosomes. Telomeres play a crucial role in aging as they shorten with each cellular division, eventually leading to cellular senescence and aging. By elongating or shortening telomeres, Aeons technology can effectively modify a persons biological age.

The concept of chrono transfers raises significant ethical concerns. While it promises hope for extending human lifespans and curing age-related diseases, it also poses profound moral dilemmas. The most pressing concern is the unequal distribution of this technology and its potential to exacerbate societal disparities. If access to chrono transfers becomes exclusive to the wealthy elite, it could lead to a further divide between the privileged and the marginalized. Moreover, the process of extracting age from one person to give it to another raises questions about bodily autonomy and consent. Should individuals be allowed to make decisions regarding their own aging process, or is it ethically justifiable to interfere with the natural course of life?

Chrono transfers not only challenge societal norms but also raise questions about personal identity and the nature of relationships. If someones age can be artificially altered, how would it affect their sense of self? Would they still identify with the experiences and memories of their original age? Similarly, relationships could face significant challenges. When individuals undergo chrono transfers, they may find themselves at different stages of life than their partners or loved ones.

In the fictional world of Paradise, Aeons time travel technology is portrayed as a breakthrough in quantum physics and advanced biotechnology. The approach centers around the manipulation of quantum particles, particularly those with time-like properties, to bend the fabric of time and enable chronological transfers. Aeons scientists can discover a unique quantum particle that exhibits properties of both particles and waves, blurring the boundaries between space and time. Through a series of complex experiments and advancements in quantum entanglement, they can harness the potential of these particles to traverse the dimension of time.

The process involves isolating and entangling these specialized particles, referred to as chronons, with a donors biological age information. These entangled chronons are then transferred to a recipient, effectively altering their aging process by interacting with the recipients own temporal properties. To achieve stable time travel, Aeon can develop highly sophisticated quantum containment chambers and powerful magnetic fields to create stable wormholes or temporal bridges, linking the donors past or future with the recipients present. Ensuring the safety and stability of this process remain a significant challenge, as quantum coherence and entanglement are highly sensitive to environmental disturbances. To address these concerns, Aeon can employ advanced quantum error-correction algorithms and constant monitoring to ensure the integrity of the time-travel process.

Maxs initial involvement as a time donor becomes the catalyst for a transformation that leads him to embrace his new role as an influential figure within Aeon. Initially drawn to the time donation program as a desperate measure to stabilize his financial condition, Max experiences the impact this technology can have. Through the exchange of a specific portion of his own age to support the well-being of his recipient. The allure of this program, coupled with his gratitude for the aid it provided him, leads Max to accept a position at Aeon Technology without fully comprehending the broader implications of the time donation process.

As Max delves deeper into his role as an Aeonian, he becomes highly regarded for his remarkable empathy and persuasive skills. With genuine conviction, he shares his own emotional journey and the life-changing benefits he received through the program. His ability to connect with others makes him a compelling advocate for the time donation initiative. Through his heartfelt words, Max inspires numerous people to sign up for the program. However, Maxs rise within Aeon Technology comes with its own moral quandaries.

Max, originally assigned to bring Elena in for the Aeon donation service, finds himself irresistibly drawn to her, and against all odds, they fall deeply in love. Despite the opposition from Elenas disapproving father, their bond remains unshakable as they dream of a blissful life together in a serene lakeside house surrounded by the laughter of their future children. Their love is an anchor in their lives, and they cherish each others presence. However, a devastating fire shatters their idyllic world, leaving them in disarray. To rebuild their lives, they turn to their insurance company for support, only to face a heartbreaking denial that claims the fire resulted from negligence with a mere candle. As financial pressures mount, the bank demands collateral to cover the mortgage debt, and Elena is faced with a difficult choice.

Maxs world is turned upside down as he unravels a web of deception and betrayal within Aeon Technology. Learning of Sophie Theissens manipulative schemes and the true intentions behind the program leaves Max devastated and desperate to protect Elena. Discovering the existence of Dr. Berg and his alternative procedure becomes a glimmer of hope for Max. The revelation that there might be another way to save Elena without subjecting her to the heartbreak of losing her age brings a renewed sense of determination to their struggle. As Max delves deeper into the Adam groups opposition to Aeons technology, he realizes that he was unknowingly manipulated by Sophie to further her vengeful agenda. The seemingly coincidental events that led to Maxs promotion and the fire that claimed his previous recipients life were all part of Sophies cunning plan to get back at him for failing to bring in the donor she desired, Elena.

As with any technological advancement, there is a dark side to chrono transfers. In the world of Paradise, Aeons technology is used for questionable purposes, including illegal age transfers and kidnappings. The greed and thirst for power within the company lead to manipulation and exploitation, ultimately harming innocent lives. Sophie Theissens quest for control and revenge against Max exemplifies the danger of wielding chrono transfers as a weapon for personal gain. This abuse of power serves as a cautionary tale, emphasizing the need for robust regulations and ethical oversight in the development and deployment of such technologies. In response to Aeons nefarious practices, the Adam group emerges as a force of resistance. Comprising individuals committed to exposing Aeons secrets, they seek to challenge the unethical use of chrono transfers and protect innocent lives from exploitation.

The implications of Aeons technology take a dark turn as Sophie Theissens insidious motivations come to light. Elenas courageous act of taking 40 years from Sophies daughter, Marie, to save her own life places her and Max in the crosshairs of Sophies relentless pursuit of a new donor. Despite Max and Elenas deep connection, the emotional strain pushes them apart, leaving them to walk separate paths. The film delves into the dark side of the Aeon technology and how it took a toll on Max and Elenas relationship. As Max witnesses Elena moving in with someone else and carrying his child, he feels a mix of emotions: heartbreak, loss, and a sense of understanding for her decision. In the end, the weight of the secrets they carry, the moral dilemmas they face, and the consequences of their choices become a burden too heavy for their love to bear.

Sophie, meanwhile, cunningly manipulates the narrative, using her daughter Lucys tragic death from progeria as a faade for her true motives. The revelation that Sophies intentions extend beyond personal grief and into the dangerous territory of trading lives sends shockwaves through the audience. Her thirst for power and control becomes all-consuming, and she will stop at nothing to achieve her goals. Sophies desperation to continue with age transfers may intensify, leading her to consider even more extreme measures. Theres a possibility that Elenas future baby may potentially become a target, and the stakes are higher than ever. The once personal vendetta against Max and Elena now threatens to become a matter of mass exploitation as Sophie seeks to wield the power of Aeons technology without restraint. But Max, now working with Adams group, is determined to protect innocent lives from Sophies malevolence. With the groups resources and collective dedication to exposing Aeons dark side, they work tirelessly to prevent Sophie from reaching Max, Elena, or any other potential victims. The race against time to thwart Sophies dangerous plans becomes a suspenseful battle of wits and determination.

Read the original post:

Aeon Technology In 'Paradise,' Explained: How Did Sophie's ... - Film Fugitives

This article has been reviewed according to ScienceX's editorial process and policies. Editors have highlighted the following attributes while ensuring the content's credibility:

fact-checked

peer-reviewed publication

trusted source

proofread

Quantum computing could revolutionize our world. For specific and crucial tasks, it promises to be exponentially faster than the zero-or-one binary technology that underlies today's machines, from supercomputers in laboratories to smartphones in our pockets. But developing quantum computers hinges on building a stable network of qubitsor quantum bitsto store information, access it and perform computations.

Yet the qubit platforms unveiled to date have a common problem: They tend to be delicate and vulnerable to outside disturbances. Even a stray photon can cause trouble. Developing fault-tolerant qubitswhich would be immune to external perturbationscould be the ultimate solution to this challenge.

A team led by scientists and engineers at the University of Washington has announced a significant advancement in this quest. In a pair of papers published June 14 in Nature and June 22 in Science, the researchers report that in experiments with flakes of semiconductor materialseach only a single layer of atoms thickthey detected signatures of "fractional quantum anomalous Hall" (FQAH) states.

The team's discoveries mark a first and promising step in constructing a type of fault-tolerant qubit because FQAH states can host anyonsstrange "quasiparticles" that have only a fraction of an electron's charge. Some types of anyons can be used to make what are called "topologically protected" qubits, which are stable against any small, local disturbances.

"This really establishes a new paradigm for studying quantum physics with fractional excitations in the future," said Xiaodong Xu, the lead researcher behind these discoveries, who is also the Boeing Distinguished Professor of Physics and a professor of materials science and engineering at the UW.

FQAH states are related to the fractional quantum Hall state, an exotic phase of matter that exists in two-dimensional systems. In these states, electrical conductivity is constrained to precise fractions of a constant known as the conductance quantum. But fractional quantum Hall systems typically require massive magnetic fields to keep them stable, making them impractical for applications in quantum computing. The FQAH state has no such requirementit is stable even "at zero magnetic field," according to the team.

Hosting such an exotic phase of matter required the researchers to build an artificial lattice with exotic properties. They stacked two atomically thin flakes of the semiconductor material molybdenum ditelluride (MoTe2) at small, mutual "twist" angles relative to one another. This configuration formed a synthetic "honeycomb lattice" for electrons.

When researchers cooled the stacked slices to a few degrees above absolute zero, an intrinsic magnetism arose in the system. The intrinsic magnetism takes the place of the strong magnetic field typically required for the fractional quantum Hall state. Using lasers as probes, the researchers detected signatures of the FQAH effect, a major step forward in unlocking the power of anyons for quantum computing.

The teamwhich also includes scientists at the University of Hong Kong, the National Institute for Materials Science in Japan, Boston College and the Massachusetts Institute of Technologyenvisions their system as a powerful platform to develop a deeper understanding of anyons, which have very different properties from everyday particles like electrons.

Anyons are quasiparticlesor particle-like "excitations"that can act as fractions of an electron. In future work with their experimental system, the researchers hope to discover an even more exotic version of this type of quasiparticle: "non-Abelian" anyons, which could be used as topological qubits. Wrappingor "braiding"the non-Abelian anyons around each other can generate an entangled quantum state. In this quantum state, information is essentially "spread out" over the entire system and resistant to local disturbancesforming the basis of topological qubits and a major advancement over the capabilities of current quantum computers.

"This type of topological qubit would be fundamentally different from those that can be created now," said UW physics doctoral student Eric Anderson, who is lead author of the Science paper and co-lead author of the Nature paper. "The strange behavior of non-Abelian anyons would make them much more robust as a quantum computing platform."

Three key properties, all of which existed simultaneously in the researchers' experimental setup, allowed FQAH states to emerge:

The team hopes that non-Abelian anyons await discovery via this new approach.

"The observed signatures of the fractional quantum anomalous Hall effect are inspiring," said UW physics doctoral student Jiaqi Cai, co-lead author on the Nature paper and co-author of the Science paper. "The fruitful quantum states in the system can be a laboratory-on-a-chip for discovering new physics in two dimensions, and also new devices for quantum applications."

"Our work provides clear evidence of the long-sought FQAH states," said Xu, who is also a member of the Molecular Engineering and Sciences Institute, the Institute for Nano-Engineered Systems and the Clean Energy Institute, all at UW. "We are currently working on electrical transport measurements, which could provide direct and unambiguous evidence of fractional excitations at zero magnetic field."

The team believes that with their approach, investigating and manipulating these unusual FQAH states can become commonplaceaccelerating the quantum computing journey.

More information: Jiaqi Cai et al, Signatures of Fractional Quantum Anomalous Hall States in Twisted MoTe2, Nature (2023). DOI: 10.1038/s41586-023-06289-w

Eric Anderson et al, Programming correlated magnetic states with gate-controlled moir geometry, Science (2023). DOI: 10.1126/science.adg4268

Journal information: Science , Nature

See original here:

Researchers make a quantum computing leap with a magnetic twist - Phys.org

IBM

Microsoft scientists claim to have made an advance that brings practical quantum computers a step closer to reality, but experts say the field is still in its infancy.

Teams around the world are racing to build quantum computers that could outperform classical computers. But high error rates have hindered efforts to build a reliable quantum computer. Now Microsoft researchers say they have made a breakthrough that could make quantum computers more dependable.

"While Microsoft has recently shared some interesting experimental results, they have not yet demonstrated an operational qubit, much less multiple qubits executing a quantum circuit," Paul Lipman, Chief Commercial Officer at the quantum computing company Infleqtion, told Lifewire via email. "However, we should applaud all efforts toward the eventual goal of a large-scale, error-corrected quantum computer. Such a device will transform the world for the better, and it is far too early in the race to say which approach will ultimately prove out. In fact, it may well be that different approaches prove appropriate for different use cases."

The Microsoft engineers reported that they had engineered a new way to represent a logical qubit with hardware stability. The device can induce a phase of matter characterized by Majorana zero modes, a fermion. Using this type of matter can aid in producing quantum supercomputers with low error rates.

Microsoft claims that they have created a way to represent qubits and superposition combined with the hardware stability that would be required to "legitimately start moving towards a commercial quantum computer," Michael Nizich, the director of the Entrepreneurship & Technology Innovation Center at the New York Institute of Technology, said in an email to Lifewire.

"To date, the complex hardware solutions used in research-based quantum computers have been prone to errors due to their complexity, and Microsoft's discoveries may allow the next phase of discussions regarding commercially available quantum processors and, more importantly, for Microsoft, Quantum Operating Systems (QOS), to begin."

At the heart of quantum computing is the physics of a viable qubit, the quantum version of the classic binary bit, Bill Lawrence, the CISO of the cybersecurity company Hopr told Lifewire via email. Qubits operate in the realm of quantum physics, while classical physics is the home of conventional computing.

Conventional computers work at room temperature, and the 'Bit' is the basic unit for storage and computation. It is either a '1' or a '0,' and strings of bits can represent numbers, characters, pictures, audio, etc., that can be stored and manipulated by the conventional computer's processors.

The world's collective quantum computing efforts have been described as a 'moon shot.'

Quantum computers work in the realm of quantum subatomic physics, where something can be a particle or a wave at the same time, Lawrence said. Objects at this tiny scale can be in two places simultaneously, and there are limits to how accurately the value of a physical quantity can be predicted before its measurement, given a complete set of initial conditions. Quantum computers use qubits that deal with all possible values of each qubit simultaneously but in a fashion that the quantum processor can interpret to solve complex problems quickly.

Using qubits in computers is incredibly difficult. Qubits are extremely sensitive to noise and hold their quantum state typically for very short periods, Lipman pointed out. He said the largest quantum computers currently available consist of only a few hundred noisy physical qubits.

Dozens of competing companies are pouring research money into qubit technologies, and there are likely over a dozen very different qubit technology approaches underway, Lawrence said.

"Microsoft's claim does appear to be interesting but also controversial, as it claims to be solving the very important error-rate issues by relying on a newly discovered 'elusive particle,'" he added. "This would imply that significant research and development will still be needed."

IBM Research/via Flickr [Licensed under CC BY 2.0]

Creating a commercially valuable quantum computer will require millions of near-perfect qubits, with exquisite control of their quantum state and noise, and sophisticated approaches to error mitigation and error correction, Lipman said.

"The world's collective quantum computing efforts have been described as a 'moon shot,'" he added. "However, the scientific and engineering challenges required to deliver on this quantum computing dream are arguably far harder than those required to put people on the moon."

Thanks for letting us know!

Get the Latest Tech News Delivered Every Day

Tell us why!

Read the original:

Microsoft: Why It's Hard to Build Quantum Computers - Lifewire

Engineering | News releases | Research | Science

June 27, 2023

This artistic depiction shows electron fractionalization in which strongly interacting charges can fractionalize into three parts in the fractional quantum anomalous Hall phase.Eric Anderson

Quantum computing could revolutionize our world. For specific and crucial tasks, it promises to be exponentially faster than the zero-or-one binary technology that underlies todays machines, from supercomputers in laboratories to smartphones in our pockets. But developing quantum computers hinges on building a stable network of qubits or quantum bits to store information, access it and perform computations.

Yet the qubit platforms unveiled to date have a common problem: They tend to be delicate and vulnerable to outside disturbances. Even a stray photon can cause trouble. Developing fault-tolerant qubits which would be immune to external perturbations could be the ultimate solution to this challenge.

A team led by scientists and engineers at the University of Washington has announced a significant advancement in this quest. In a pair of papers published June 14 in Nature and June 22 in Science, they report that, in experiments with flakes of semiconductor materials each only a single layer of atoms thick they detected signatures of fractional quantum anomalous Hall (FQAH) states. The teams discoveries mark a first and promising step in constructing a type of fault-tolerant qubit because FQAH states can host anyons strange quasiparticles that have only a fraction of an electrons charge. Some types of anyons can be used to make what are called topologically protected qubits, which are stable against any small, local disturbances.

This really establishes a new paradigm for studying quantum physics with fractional excitations in the future, said Xiaodong Xu, the lead researcher behind these discoveries, who is also the Boeing Distinguished Professor of Physics and a professor of materials science and engineering at the UW.

FQAH states are related to the fractional quantum Hall state, an exotic phase of matter that exists in two-dimensional systems. In these states, electrical conductivity is constrained to precise fractions of a constant known as the conductance quantum. But fractional quantum Hall systems typically require massive magnetic fields to keep them stable, making them impractical for applications in quantum computing. The FQAH state has no such requirement it is stable even at zero magnetic field, according to the team.

Hosting such an exotic phase of matter required the researchers to build an artificial lattice with exotic properties. They stacked two atomically thin flakes of the semiconductor material molybdenum ditelluride (MoTe2) at small, mutual twist angles relative to one another. This configuration formed a synthetic honeycomb lattice for electrons. When researchers cooled the stacked slices to a few degrees above absolute zero, an intrinsic magnetism arose in the system. The intrinsic magnetism takes the place of the strong magnetic field typically required for the fractional quantum Hall state. Using lasers as probes, the researchers detected signatures of the FQAH effect, a major step forward in unlocking the power of anyons for quantum computing.

The team which also includes scientists at the University of Hong Kong, the National Institute for Materials Science in Japan, Boston College and the Massachusetts Institute of Technology envisions their system as a powerful platform to develop a deeper understanding of anyons, which have very different properties from everyday particles like electrons. Anyons are quasiparticles or particle-like excitations that can act as fractions of an electron. In future work with their experimental system, the researchers hope to discover an even more exotic version of this type of quasiparticle: non-Abelian anyons, which could be used as topological qubits. Wrapping or braiding the non-Abelian anyons around each other In this quantum state, information is essentially spread out over the entire system and resistant to local disturbances forming the basis of topological qubits and a major advancement over the capabilities of current quantum computers.

This type of topological qubit would be fundamentally different from those that can be created now, said UW physics doctoral student Eric Anderson, who is lead author of the Science paper and co-lead author of the Nature paper. The strange behavior of non-Abelian anyons would make them much more robust as a quantum computing platform.

Three key properties, all of which existed simultaneously in the researchers experimental setup, allowed FQAH states to emerge:

The team hopes that, using their approach, non-Abelian anyons await for discovery.

The observed signatures of the fractional quantum anomalous Hall effect are inspiring, said UW physics doctoral student Jiaqi Cai, co-lead author on the Nature paper and co-author of the Science paper. The fruitful quantum states in the system can be a laboratory-on-a-chip for discovering new physics in two dimensions, and also new devices for quantum applications.

Our work provides clear evidence of the long-sought FQAH states, said Xu, who is also a member of the Molecular Engineering and Sciences Institute, the Institute for Nano-Engineered Systems and the Clean Energy Institute, all at UW. We are currently working on electrical transport measurements, which could provide direct and unambiguous evidence of fractional excitations at zero magnetic field.

The team believes that, with their approach, investigating and manipulating these unusual FQAH states can become commonplace accelerating the quantum computing journey.

Additional co-authors on the papers are William Holtzmann and Yinong Zhang in the UW Department of Physics; Di Xiao, Chong Wang, Xiaowei Zhang, Xiaoyu Liu and Ting Cao in the UW Department of Materials Science & Engineering; Feng-Ren Fan and Wang Yao at the University of Hong Kong and the Joint Institute of Theoretical and Computational Physics at Hong Kong; Takashi Taniguchi and Kenji Watanabe from the National Institute of Materials Science in Japan; Ying Ran of Boston College; and Liang Fu at MIT. The research was funded by the U.S. Department of Energy, the Air Force Office of Scientific Research, the National Science Foundation, the Research Grants Council of Hong Kong, the Croucher Foundation, the Tencent Foundation, the Japan Society for the Promotion of Science and the University of Washington.

For more information, contact Xu at xuxd@uw.edu, Anderson at eca55@uw.edu and Cai at caidish@uw.edu.

Read more:

Researchers make a quantum computing leap with a magnetic twist - University of Washington

Quantum computing is a revolutionary technology that allows for complex calculations to be performed at speeds that are well beyond what traditional computers can achieve. Thus, the technology is based onthe laws of quantum physics.

Among the fields that can benefit tremendously from quantum computing are drug discovery, financial analysis, and nuclear fusion. Given the technologys tremendous utility, the companies that are leaders in this space are likely to perform very well from a fundamentals and growth perspective. As a result, there are plenty of quantum computing stocks with high potential worth considering.

Importantly, the advent of other technologies, including artificial intelligence, is increasing the overall demand for computing power. This further enhances the longer-term potential of quantum computing overall.

With that said, here are three of the top quantum computing stocks to invest in, given their explosive upside potential.

Source: Shutterstock

As I notedin a previous column,IonQ(NYSE:IONQ) markets hardware for quantum computing. Given that demand for IonQs products is growing rapidly, the company increased its 2023 bookings growth guidance by 25% to a range of $45 million to $55 million. Additionally, I noted that at the midpoint of the bookings guidance, it is expecting a 100% growth compared to last years bookings of $24.5 million.

Moreover, the large Japanese tech investor,Softbank,obtained a large stake in IonQ in 2021, showing some faith in the firm and its offerings.

Theres an exponential increase in the need for computational power, and quantum computing uniquely helps enable that, one of the investors partners toldThe Wall Street Journal.

Impressively, IonQs CEO, Peter Chapman, before coming tothe company, was Director of Engineering forAmazons (NASDAQ:AMZN) Amazon Prime. And, according to Chapmans bio, he is credited with inventing the original sound card for computers, writing the software the Federal Aviation Administration uses to prevent mid-air collisions, and developing systems that protect the integirty of finncial markets.

So the CEO has a tremendous record of developing hugely useful computer products. As a result, I believe that IonQ will develop great offerings under his leadership.

Source: Shutterstock

As anotherInvestorPlacecolumnist, Josh Enomoto, recentlynoted, Rigetti Computing(NASDAQ:RGTI) develops quantum integrated circuits used for quantum computers. Italso develops quantum computers themselves.

Intriguingly, in addition to quantum computing, Rigetti intensively utilizes artificial intelligence.

Using these two technologies, Rigettihas developed a model that predicts economic recession periods using cutting-edge quantum machine learning techniques. Additionally, the company rightly asserts that quantum computing can enhance the performance of AI. Of course, making AI even more powerful would be a quite attractive feature for many businesses.

It should also be noted that Rigetti owns the intellectual property for the hybrid quantum-classical approach that has become the predominant quantum computing architecture. As quantum computing becomes more prevalent and mainstream, that asset should be extremely valuable.

Rigettis current market capitalization of $118.5 million far understates its long-term potential, in my view. This is a stock with explosive upside at current levels.

Source: Boykov / Shutterstock.com

According toSeeking AlphacolumnistHensite Capital,D-Wave Quantum(NASDAQ:QBTS) has the most experience assisting customers in resolving practical optimization problems that are challenging for computers. Moreover, D-Wave Quantum is the only company with operational and commercial experience managing a large-scale quantum computing business.

D-Wave says that it is the only firm offering a type of quantum computing called quantum annealing. During D-Waves first-quarterearnings call, held on May 19, CEO Alan Baratz said, Companies are increasingly turning to [quantum annealing] to find solutions to their most computationally complex optimization problems.

Among the issues being solved with the technology are employee scheduling, factory process automation, fraud detection, (and) advertising optimization, Baratz reported.

He added that, over the last year, the companys sales to commercial customers had climbed an impressive 30%. Additionally, D-Waves bookings soared an incredible 297% last quarter versus the same period a year earlier.

Given the apparent great usefulness of D-Waves technology and its rapid growth, its one of the best quantum computing stocks to buy, hands-down.

On the date of publication, Larry Ramerdid not have (either directly or indirectly) any positions in the securities mentioned in this article.The opinions expressed in this article are those of the writer, subject to the InvestorPlace.comPublishing Guidelines.

Larry Ramer has conducted research and written articles on U.S. stocks for 15 years. He has been employed by The Fly and Israels largest business newspaper, Globes. Larry began writing columns for InvestorPlace in 2015. Among his highly successful, contrarian picks have been PLUG, XOM and solar stocks. You can reach him on Stocktwits at @larryramer.

Read more here:

3 Quantum Computing Stocks to Buy With Explosive Upside Potential - InvestorPlace