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Andrew Hopkins of Exscientia: the man using AI to cure disease – The Guardian

It was early one morning in 1996 when Andrew Hopkins, then a PhD biophysics student at Oxford University, had a brainwave as he walked home from a late-night lab meeting.

He was trying to find molecules to fight HIV and to better understand drug resistance.

I remember this idea struck me that there must be a better way to do drug discovery other than the complex and expensive way everyone was following, he says. Why couldnt we design an automated approach to drug design that would use all the information in parallel so that even a humble PhD student could create a medicine? That idea really stuck with me. I remember almost the exact moment to this day. And that was the genesis of the idea that eventually became Exscientia.

It was to prove a lucrative brainwave. Hopkins set up the company in 2012 as a spinout from the University of Dundee, where he was by then working as a professor. It uses artificial intelligence (AI) systems, which are being trained to mimic human creativity, to develop new medicines. This involves the use of automated computer algorithms to sift through large datasets to design novel compounds that can treat diseases, and to help select the right patients for each treatment.

Age 50

Family Married with a 10-year-old daughter. He met his wife, Iva Hopkins Navratilova, at Pfizer. Her business, Kinetic Discovery, merged with his to create the experimental biology labs at Exscientia.

Education Dwr-y-Felin comprehensive and Neath College in south Wales; degree in chemistry at Manchester; doctorate in molecular biophysics at Oxford.

Pay 415,000

Last holiday Czech Republic to visit his wifes family at Easter.

Best advice he has been given My dad worked in a factory. He said to me: Get a good education and get a job you enjoy doing. Its worth an extra six grand a year. And I definitely got a job I enjoy doing.

Biggest career mistake Its too early to tell. He quotes Miles Davis: Its not the note you play thats the wrong note its the note you play afterwards that makes it right or wrong.

Words he overuses Fundamentally; the heart of the matter.

How he relaxes Reading and dog walking. I am a bibliophile. I immerse myself in books to relax.

This approach drastically cuts the time of drug development. Hopkins says that for Exscientias pipeline it has typically taken 12 to 15 months from starting a project to identifying a drug candidate, compared with four and a half years in the traditional pharmaceutical industry.

The average cost of developing a medicine is $2bn, according to Deloittes latest pharma report, and many drugs fail the failure rate is 90% for medicines that are in early clinical studies (where they are tested on humans).

Typically, pharma companies make 2,500 compounds to test them against a specific disease, while AI enables Oxford-based Exscientia to whittle down that number to about 250, Hopkins says. Its a much more methodical approach.

Last autumn, the Welsh scientist became one of Britains richest entrepreneurs, with a paper fortune of 400m after the company achieved a $2.9bn stock market debut on Nasdaq in New York, making it one of Britains biggest biotech firms. Hopkinss stake of nearly 16% is now worth 170m, as the share price has lost 60% of its value in a bloodbath for Wall Street stocks.

Exscientia was part of a transatlantic trend that is defying government attempts to build a biotech powerhouse in the UK. Abcam, a pioneering Cambridge antibody company, recently announced it was moving its stock market listing from the UK to the US. We are a British company; we choose to be in Oxford because we can attract global talent, Hopkins says. But to be seen as a global company, we listed on what is the global technology index, which is Nasdaq. What we have now is an incredibly international shareholder base from across the world.

The business came up with the first AI-designed drug to enter clinical trials a treatment for obsessive-compulsive disorder in partnership with Japans Sumitomo, although Sumitomo later decided not to proceed with it. The Japanese firm is currently studying another drug developed by Exscientia, for the treatment of Alzheimers disease psychosis, in early human trials.

Hopkins, now 50, fell in love with science thanks to an inspirational chemistry teacher. He has worked as a scientist since the age of 16, when he did a stint in industrial chemistry at the Port Talbot steelworks in south Wales, which he says taught him about the benefits of automation in boosting productivity.

He spent nearly a decade at the US drug giant Pfizer, where he was on a data warehouse project that led to some of the first machine-learning applications in the pharmaceutical industry, with the findings published in Nature in 2006.

During the subsequent five years at Dundee University, he further researched applying data mining and machine learning to drug discovery. He says being a professor is actually one of the best jobs in the world and gave him the freedom to research AI methods at length. He maintains his links with the university, where he is honorary chair of medicinal informatics at the School of Life Sciences.

Exscientia (which means from knowledge in Latin) soon moved to the Schrdinger Building at the Oxford science park, and now employs 450 people worldwide, from Vienna to Boston, Miami and Osaka, equally split between AI engineering, chemistry and biology.

It is building a new robotics laboratory at Milton Park near Oxford, focused on the automation of chemistry and biology to accelerate drug development and its declared goal is drugs designed by AI, made by robot. Other pharma companies have also introduced some automation into their processes, but generally lab technology is similar to how it was when he was a student in the 1990s, Hopkins says.

The firm is involved in 30 projects, some in partnership with big pharmaceutical companies including Frances Sanofi and the US firm Bristol Myers Squibb (BMS). It is also working with Oxford University on developing medicines that target neuroinflammation for the treatment of Alzheimers disease. Among the firms solo projects, a cancer drug for solid tumours is about to go into early clinical trials.

Exscientia is also working on a broader coronavirus pill to rival Paxlovid, the Covid-19 treatment made by Hopkinss former employer Pfizer. This work is funded by a $1.5m grant from the Bill and Melinda Gates Foundation, which took a stake in Exscientia. The companys other investors include BMS, Celgene (now a BMS subsidiary) and Germanys Evotec, as well as Japans Softbank, the US fund manager BlackRock and the life science investor Novo Holdings.

Hopkins says the team has identified a set of molecules that could work as a broader treatment for Covid-19, new mutations and other coronaviruses, and that there will be more news later this year. The firm is aiming for a low-cost pill that could be distributed globally and given quickly to people who fall ill to prevent serious illness and hospitalisation. Covid-19 infections are rising again in 110 countries and the World Health Organizations director general, Tedros Adhanom Ghebreyesus, has warned that the pandemic is far from over.

Firms across the pharmaceutical industry have started using AI in recent years. AstraZeneca is investing heavily in it for its entire research and development infrastructure, and GSK has built an AI team of 120 engineers, with plans to reach 160 next year, making it the largest such in-house team in the industry.

AI systems require a lot of computing power and enormous datasets. Their use should boost the number of new drugs being approved every year typically 40 to 50 in the US to many more. Hopkins confidently predicts: This is the way all drugs will be designed in the future. In the next decade, this technology will become ubiquitous.

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Andrew Hopkins of Exscientia: the man using AI to cure disease - The Guardian

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Digital Twinning in Buildings Goes Well Beyond the Digital Commercial Observer – Commercial Observer

At first glance, NASA and commercial real estate have little in common. Yet in strategizing for a more efficient future, outer space and built space arent all that different. To advance their respective galactic and environmental endeavors, both utilize the same technology: digital twins.

Digital twins are an increasingly common technology in commercial real estate, thanks in part to the boom in proptech and the growing emphasis on sustainability. Yet the concept of digital twins first gained traction in the 1960s, when NASA introduced an early version. Following the Apollo 13 mission yes, the one from that movie starring Tom Hanks NASA employed a digital twin to assess and evaluate engine intricacies.

Since then, digital twins have come down to Earth literally. Within the last five to six years, theyve been gradually integrated into the dialogue surrounding commercial real estate, and the technology is being used to represent real-time models of real life buildings.

A digital twin is creating a digital profile of the building in a way that you can use technology to anticipate and monitor and plan for your buildings life cycle, both in energy and in flow and in people, said Michael Phillips, principal and president at real estate investment and management firm Jamestown.

James Wynn director of intelligent places at architecture firm Gensler referred to the same concept as operational twins. When real estate companies talk about digital twins, theyre typically citing real-time models that represent already-built buildings. These digital models help companies understand how the built environment is currently actively performing and gauge how tenants are realistically engaging with the space in question.

As interactive models of buildings, operational twins can therefore help companies adopt the best practices for maximizing a buildings efficiency a boon to sustainability efforts. Twins can map, track, and quantify flow patterns, access points and energy consumption, which help buildings react accordingly and quickly to changing environmental needs.

During the summer, for example, landlords will likely confront new patterns of tenant engagement. People tend to go on vacation, so rather than cool and light an entire building, landlords can use ongoing feedback from a digital twin to help landlords decide which floors to open, light, and cool, according to Wynn.

Such tools remain in the early stages of integration, but their climate-related impact bodes well for the long-term.

I think digital twinning will become a base standard for buildings as they move forward, said Phillips. Digital twins will grow alongside the built environment at a pace that depends on data access and will eventually become ubiquitous, Phillips said.

Thats because digital twins are particularly useful in retrofits. Though the design and construction steps surely shape a buildings later efficiency, developers cant always start from scratch. Rather, the real estate industry must get creative to tinker with already in-use developments.

Ninety percent of the buildings that will exist in 2030 already exist, said Michael Jansen, CEO and founder of urban digital twin platform Cityzenith. The real problem in the country is not new buildings so it has to be retrofitting, which is the elephant in the room.

For companies unsure where to begin in retrofitting buildings, digital twins present a workable roadmap to rebuild and repurpose their assets.

They are systems of systems tools that allow multiple users to integrate multiple softwares and data systems, Jansen said. He pointed to some combination of 3-D models, public data and sensors that work together to simulate various outcomes. Based on analyses of data, digital twins can then draw actionable conclusions that direct landlords in managing and optimizing operations.

When it comes to making greener buildings, these conclusions are all-encompassing. According to Jansen, digital twins can help optimize the energy management of a building; evaluate the renewable options for that particular property; and calculate the carbon offsets required for a building to achieve net-zero status or other climate targets, as well as monitor emissions in real-time.

An example of this widespread promise includes Cityzeniths Las Vegas digital twin a virtual copy of part of that citys downtown which aims to help building owners achieve net-zero carbon emissions. Still in its early stages, the twin has begun to integrate data from Las Vegas downtown region in conjunction with Cityzeniths Clean Cities Clean Future initiative. According to the Cityzenith website, the project aims to transform mobility, air quality, noise pollution [and] water management, as well as emissions.

Although operational twins have a clear role to play, they are limited to addressing already built space. As such, new buildings require models of their own and a digital upgrade in sync with a portfolios emerging ESG goals.

As an architecture firm, Gensler is primarily interested in what Wynn deemed design twins, as opposed to those operational twins. Wynn noted that these twins arent typically defined as digital twins, as they dont monitor a building in real time. Instead, they are akin to energy models or used alongside operational read: digital twins.

For the purposes of sustainability, however, design twins have a similar usage and impact as strict digital ones.

The way Im using that definition is saying that any digital representation of a space, whether in design or built, is really a digital twin, said Wynn, broadening the definition of twin technology.

Semantics aside, design twins have similar goals, techniques and outputs to digital twins. They also approach sustainability from a unique vantage point; they can evaluate and react to a buildings potential environmental performance before its ever been built. This perspective allows developers, architects and engineers to understand building operations prior to spending money, beginning construction, and releasing carbon via inefficient materials.

In this vein, design twins have financial benefits, in addition to environmental ones. Many projects are slow-moving and take years to come to fruition. Design twins can therefore act as trial runs, helping developers understand how a building may function and adjust accordingly for assessed setbacks. The simulations can only predict so much, though.

[A digital twin is] real-time feedback from different sensors, said Violet Whitney, senior product manager at Delve by Sidewalk Labs, an artificial intelligence-powered, Google-owned neighborhood planning product. But what it doesnt capture is maybe more of the long-term consequences that couldve prevented something like that in the first place.

Delve is essentially a design twin that front-loads a project with pro-environmental considerations. Such technology works in tandem with operational twins; employing various models from all stages of development is likely to yield a well-rounded and thorough understanding of a buildings energy systems and emissions. When used in conjunction with real-time twins, products like Delve can ensure that architects, developers and landlords understand how a given building operates and may continue to operate throughout its lifespan.

We can help [developers] by generating many designs that vary, that show them a bunch of scenarios, said Whitney.

Delve relies on greenhouse gas modeling, as well as other quality of life variables, to help developers decide what to build onsite. Models assess the interplay between the natural environment and the tenants experience; understanding how light, shadow and solar will interact within a space is crucial, both from the standpoint of ultimate tenant happiness and environmental integrity.

The gradual consideration of these factors reflects a change in developer and owner goals alike. Whether employing a digital twin before or after a buildings inception, real estate companies across the industry are increasingly focused on outcomes, Whitney said.

It is this goal-driven mentality that will become one of ESGs greatest assets. By assessing what exactly a buildings outputs are and from where theyre coming, digital twins whether design or operational hold developers accountable to change.

To get these results, however, a company must first create a digital twin. Gensler begins with a Building Information Model, widely known as BIM and a standard technology used by architects. Once this model is ready, data is then layered into a buildings geometry for the sake of simulating and analyzing a potential designs performance.

For an energy use study, the BIM can assess how daylight affects design, said Wynn. It taps into where the sun is located relative to the building. Design twins synthesize various aspects of a projects surroundings, neighborhood, materials and potential uses to allow for educated and intentional construction.

[Digital twin is] a term that is being defined as we speak, said Wynn. So I think somebody could make the argument that a really, really defined BIM model is actually kind of a rudimentary digital twin.

Yet to create models that actually help the environment, Gensler, as well as the likes of Jamestown, Cityzenith and Delve, must collect ample and accurate data. Finding this information isnt so simple a challenge that has become the norm in attempts to implement pro-ESG policies.

Were at the stage where weve got all this data, but its actually harder than it sounds to put it into one coherent picture, said Wynn. Some manufacturers have really good data; some dont.

The lack of consistent data presents a challenge in deciding between multiple designs. Yet Whitney stated that data collection proves more difficult for operational twins than it does for design models. Because design twins rely on upfront simulation, data mining is more straightforward and less subjective.

Still, the overarching emphasis on data will skew the integration of digital twins toward larger corporate portfolios. Bigger companies with more significant holdings tend to have richer and greater quantities of statistics, so they are therefore at an advantage in creating and utilizing accurate and comprehensive digital twins.

Data-driven asset classes represent the high-end of the market, said Jansen. These include retail, offices and Class A residential buildings, as well as campuses. Yet he predicts that this limited, upper integration of digital twins is only a short-term pattern.

Eventually digital twin products, including ours, will have the T.J. Maxx version for the homeowner, Jansen said.

Although digital twins do require energy in order to process heaps of data, they ultimately save far more energy than they consume. The marginal amount of energy that would be consumed by the hardware in the course of making these calculations is nothing in comparison to the savings that are generated by the assets themselves as a result, Jansen said.

Given these reductions, tenants have been especially receptive. Sustainability is increasingly important for the savings and the public perception, never mind the ethics, so employers must attract and retain a workforce that increasingly cares about its carbon footprint. A sustainable building is therefore a win-win-win for tenants, developers and the environment.

This central motivation encompasses the heart of digital twin usage.

What really matters is, Whitney said, ultimately, do we end up building a place that ends up being better for the people that live there and the people that would experience the place?

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Digital Twinning in Buildings Goes Well Beyond the Digital Commercial Observer - Commercial Observer

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Machine learning hiring levels in the mining industry rose in June 2022 – Mining Technology

The proportion of mining industry operations and technologies companies hiring for machine learning-related positions rose significantly in June 2022 compared with the equivalent month last year, with 21.5% of the companies included in our analysis recruiting for at least one such position.

This latest figure was higher than the 10.7% of companies that were hiring for machine learning-related jobs a year ago and the same as the figure of 21.5% in May 2022.

When it came to the rate of all job openings that were linked to machine learning, related job postings dropped in June 2022 from May 2022, with 0.6% of newly posted job advertisements being linked to the topic.This latest figure was a decrease compared to the 0.7% of newly advertised jobs that were linked to machine learning in the equivalent month a year ago.

Machine learning is one of the topics that GlobalData, from which our data for this article is taken, has identified as being a key disruptive force facing companies in the coming years. Companies that excel and invest in these areas now are thought to be better prepared for the future business landscape and better equipped to survive unforeseen challenges.

Our analysis of the data shows that mining industry operations and technologies companies are currently hiring for machine learning jobs at a rate lower than the average for all companies within GlobalData's job analytics database. The average among all companies stood at 1.2% in June 2022.

GlobalData's job analytics database tracks the daily hiring patterns of thousands of companies across the world, drawing in jobs as they're posted and tagging them with additional layers of data on everything from the seniority of each position to whether a job is linked to wider industry trends.

You can keep track of the latest data from this database as it emerges by visiting our live dashboard here.

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HotSpot Therapeutics Appoints Paul Thibodeau, Ph.D., as Chief Business Officer – PR Newswire

BOSTON, July 25, 2022 /PRNewswire/ -- HotSpot Therapeutics, Inc., a biotechnology company pioneering the discovery and development of small molecule allosteric therapies for the treatment of cancer and autoimmune diseases, today announced the appointment of Paul Thibodeau, Ph.D., as Chief Business Officer. Dr. Thibodeau brings nearly 20 years of business development experience in the biopharmaceutical industry.

"We are very pleased to welcome Paul to HotSpot as Chief Business Officer," said Jonathan Montagu, Co-Founder and Chief Executive Officer of HotSpot Therapeutics. "Paul's significant industry experience and proven track record in biopharmaceutical business development will be critical as we advance our oncology and autoimmune programs and expand our pipeline through partnerships enabled by our Smart Allosteryplatform."

Dr. Thibodeau joins HotSpot from Novartis, where he held numerous business development positions, most recently leading M&A transactions across all of Novartis' therapeutic areas, where he was responsible for deal sourcing, evaluation, and execution of acquisitions and divestments. Prior to joining Novartis in 2016, he served as Senior Director of Global Business Development at Teva Cephalon, heading up all out-licensing and discovery deals for its specialty pipeline. Previously, he held numerous business development positions with increasing responsibilities at Sanofi Genzyme across its oncology, transplant and multiple sclerosis franchises. Dr. Thibodeau was a Postdoctoral Research Fellow at the Institut national scientifique et de la recherche mdicale (INSERM) in Paris, France. Dr. Thibodeau received his Ph.D. in Cell Biology and Radiobiology from the Universit de Sherbrooke in Quebec, Canada, and his B.S. in Biology and Biochemistry from the Universit de Moncton in New Brunswick, Canada. He also completed a MBA at the MIT Sloan School of Management.

"I am thrilled to join HotSpot's driven and innovative team at this important juncture for the Company," said Dr. Thibodeau. "I look forward to collaborating with the team as they seek to bring forward novel therapies for patients with significant unmet need."

About HotSpot Therapeutics, Inc.HotSpot Therapeutics, Inc. is targeting naturally occurring pockets on certain proteins that it refers to as "natural hotspots" that are decisive in controlling cellular protein function. Largely unexploited by industry, these pockets have significant potential for drug discovery and provide for the systematic design of highly potent and selective small molecules that exhibit novel pharmacology. The company's proprietary Smart Allostery platform utilizes computational approaches and AI-driven data mining of large and highly diverse data sets to identify natural hotspots, integrated with a tailored pharmacology toolkit and bespoke chemistry which the company believes will enable rapid delivery of superior hotspot-targeted small molecules. HotSpot has established a pipeline of differentiated allosteric small molecules for the treatment of cancer and autoimmune diseases. To learn more, visitwww.hotspotthera.com.

SOURCE HotSpot Therapeutics

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How an abortion case turns the screw on Big Tech EJINSIGHT – ejinsight.com – EJ Insight

The United States Supreme Courts recent decision to overturn Roe vs. Wade has firmly engulfed American society in heated debates. Beyond the strife on the volte-face of abortion right, this epochal case might now turn data-driven companies into the means to a political end and force businesses to affirm or retract their positions on privacy.

Location data can now be weaponized by abortion-ban advocates to convict women seeking pregnancy termination in abortion-banning states. Many mobile applications nowadays track a users geolocation data in the name of optimizing the users experience and the apps functionality. Individuals who conduct or undergo abortions might be subject to criminal witch-hunting, further exacerbating the entrenched moral stigma associated with abortion.

Location data is a small fraction of the entire digital weapon arsenal. Other obvious targets include menstrual tracking, ovulation, and pregnancy data. These examples may barely scratch the surface of all possible data harvesting activities. Download any applications from an app store, and it is possible to find an alarming level of data, tangential or otherwise, harvested for commodification. Surveillance capitalism, a system centered around companies capturing and monetizing personal data, may now be a foregone conclusion.

To avoid being caught in legal crosshairs, Google announced that they would automatically delete users location history to places such as abortion clinics. Sure, Google earned cautious applause in a move that is palatable to abortion advocates. But it also begs the question: why did it take so long for companies like Google to recognize the effect of over-zealous data mining practice? Or was the move a fig leaf intended to cover the cracks in its system? From a pragmatic perspective, it is also unclear how, and how dependably, Google can identify sensitive locations to guarantee automatic data deletion.

Businesses have long understood that hoovering up a treasure trove of users data creates a fast track to power and competitive edge. The decision of Roe shows, for the first time, that even aggressive data collectors might see the value in a less-is-more approach. Frequent run-ins with legal enforcement have long sounded alarms to market players, signaling that their data monopolies are far from secured. Didis recent RMB $8 billion fine levied by the Cyberspace Administration for violation of Chinas data laws, is likely to imbue companies possessing large volumes of data with a sense of fear. As the public begins to come to grips with the peril of surrendering too much data, can they now trust companies to have the bottle to take a stand to stamp out further abuse?

While most companies do not decidedly take sides in controversial legal battles, their present modus operandi means that they may be unable to avoid getting involved. How would firms react when receiving legitimate requests from law enforcement? Under what obligations, legal or ethical, are companies like Google responsible or liable to relinquish information? Companies drawn into this conflict might assume different and often tendentious positions on a case-by-case basis. A small pivot in managerial direction could change the fate of millions of people. It must be asked how, and in what ways, can companies truly insulate themselves from legal crossfire?

Roe provides a live example of how decisions about bodily autonomy can cut across elusive digital boundaries with grave consequences. One can argue that our government watchdog should strictly enforce the principle of data minimization the practice of limiting the collection of personal information. This might also prove to be illusory at best. Determining exactly what data a company needs to carry out a task properly has always been challenging. Whipsawed by cutthroat competitions and bulging consumer demands, companies typically adopt a toxic collect-first, think-later culture at the expense of individual privacy. There is also the irreconcilable duality between data privacy and data collection. The more shackles we place on data mining activity, the fewer insights we can gather, hindering innovation and creativity.

Privacy, in its permutations, crisscrosses multiple legal territories. It involves giving individuals the right to control decisions about themselves. As can be gleaned from Roe, a judgment about abortion can introduce an unavoidable element of unpredictability into privacy principles. The abortion debate quickens the need for companies to decide what to do with sensitive data within that regulated boundary, whether for good or for evil. But the debate also shows how elastic our wider digital ecosystem is to the ebbs and flows of real-life frictions. As we broaden our viewfinders, we must be prepared to accept that societal realities could sometimes bend our understanding of the borderless digital experiences. And only through coordinated efforts and carefully-designed policies could we expect to shake off the yoke of a grimly uncertain future.

-- Contact us at [emailprotected]

The writer is a lawyer based in Hong Kong.

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Is Viscount Mining (CVE:VML) In A Good Position To Deliver On Growth Plans? – Yahoo Finance

Even when a business is losing money, it's possible for shareholders to make money if they buy a good business at the right price. For example, biotech and mining exploration companies often lose money for years before finding success with a new treatment or mineral discovery. Having said that, unprofitable companies are risky because they could potentially burn through all their cash and become distressed.

So, the natural question for Viscount Mining (CVE:VML) shareholders is whether they should be concerned by its rate of cash burn. In this report, we will consider the company's annual negative free cash flow, henceforth referring to it as the 'cash burn'. The first step is to compare its cash burn with its cash reserves, to give us its 'cash runway'.

View our latest analysis for Viscount Mining

You can calculate a company's cash runway by dividing the amount of cash it has by the rate at which it is spending that cash. When Viscount Mining last reported its balance sheet in February 2022, it had zero debt and cash worth CA$1.6m. In the last year, its cash burn was CA$2.6m. So it had a cash runway of approximately 8 months from February 2022. That's quite a short cash runway, indicating the company must either reduce its annual cash burn or replenish its cash. Depicted below, you can see how its cash holdings have changed over time.

debt-equity-history-analysis

Viscount Mining didn't record any revenue over the last year, indicating that it's an early stage company still developing its business. So while we can't look to sales to understand growth, we can look at how the cash burn is changing to understand how expenditure is trending over time. Over the last year its cash burn actually increased by 9.1%, which suggests that management are increasing investment in future growth, but not too quickly. However, the company's true cash runway will therefore be shorter than suggested above, if spending continues to increase. Viscount Mining makes us a little nervous due to its lack of substantial operating revenue. We prefer most of the stocks on this list of stocks that analysts expect to grow.

While its cash burn is only increasing slightly, Viscount Mining shareholders should still consider the potential need for further cash, down the track. Issuing new shares, or taking on debt, are the most common ways for a listed company to raise more money for its business. Many companies end up issuing new shares to fund future growth. By looking at a company's cash burn relative to its market capitalisation, we gain insight on how much shareholders would be diluted if the company needed to raise enough cash to cover another year's cash burn.

Viscount Mining has a market capitalisation of CA$26m and burnt through CA$2.6m last year, which is 10.0% of the company's market value. That's a low proportion, so we figure the company would be able to raise more cash to fund growth, with a little dilution, or even to simply borrow some money.

Even though its cash runway makes us a little nervous, we are compelled to mention that we thought Viscount Mining's cash burn relative to its market cap was relatively promising. Summing up, we think the Viscount Mining's cash burn is a risk, based on the factors we mentioned in this article. Taking a deeper dive, we've spotted 4 warning signs for Viscount Mining you should be aware of, and 3 of them make us uncomfortable.

Of course, you might find a fantastic investment by looking elsewhere. So take a peek at this free list of companies insiders are buying, and this list of stocks growth stocks (according to analyst forecasts)

Have feedback on this article? Concerned about the content? Get in touch with us directly. Alternatively, email editorial-team (at) simplywallst.com.

This article by Simply Wall St is general in nature. We provide commentary based on historical data and analyst forecasts only using an unbiased methodology and our articles are not intended to be financial advice. It does not constitute a recommendation to buy or sell any stock, and does not take account of your objectives, or your financial situation. We aim to bring you long-term focused analysis driven by fundamental data. Note that our analysis may not factor in the latest price-sensitive company announcements or qualitative material. Simply Wall St has no position in any stocks mentioned.

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Lasers are weird and amazing – Big Think

The supermarket checkout scanner, the printer in your office, the pointer used in yesterdays meeting lasers are pretty much a part of everyday life now. You think about them very little, even as they do amazing things like instantly read barcodes or correct your nearsightedness via LASIK surgery.

But what is a laser, really? What makes them so special and so useful? Indeed, what makes a laser different from a simple lightbulb? The answers rest in the remarkable weirdness of quantum physics. Lasers are a quintessential quantum phenomenon.

The key question we have to deal with here is the interaction of light and matter. In classical physics, light is made of waves of electromagnetic energy traveling through space. These waves can be emitted or absorbed by accelerating electrically charged particles of matter. This is what happens in a radio tower: Electrical charges are accelerated up and down the tower to create the electromagnetic waves that travel through space to your car and let you listen to your station of choice.

At the turn of the century, scientists wanted to apply this classical idea to create models of atoms. They imagined an atom as a little solar system, with the positively charged protons at the center and the negatively charged electrons orbiting around them. If an electron emitted or absorbed some light, i.e. electromagnetic energy, it would speed up or slow down. But this model didnt hold. For one thing, there is always an acceleration happening when one thing orbits another this is called centripetal acceleration. So the electron in this classical model of the atom must always be emitting radiation as it orbits and thereby losing energy. That makes the orbit unstable. The electron would quickly fall onto the proton.

Niels Bohr got around this problem with a new model of the atom. In the Bohr model, an electron can only occupy a set of discrete orbits around the proton. These orbits were visualized like circular train tracks that the electrons rode as they circled about the proton. The farther out an orbit was from the proton, the more excited it was, and the more energy it held.

In the Bohr model, the emission and absorption of light was all about electrons jumping between these orbits. To emit light, an electron jumped from a higher orbit down to a lower orbit, emitting a packet of light energy called a photon. An electron could also jump from a lower orbit to a higher one if it absorbed one of these light packets. The wavelength of the light emitted or absorbed was directly related to the energy difference between the orbits.

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There was much quantum weirdness in all of this. If the electron was bound to these orbits, that meant it was never between them. It jumped from one location to the other without ever occupying the intervening space. Also, light was both a particle a photon that had a packet of energy and a wave spread out through space. How do you imagine that? While the Bohr model was only a first step, modern versions of the theory still feature discrete energy levels and photon wave-particle duality.

How does this relate to lasers? LASER stands for Light Amplification Through Stimulated Emission of Radiation. The ideas of amplification and stimulated emission in a laser are based on those specific energy levels of electrons in atoms.

To make a laser, you take some material and exploit its quantum energy levels.

The first step is to invert the population of the levels. Usually, most electrons will reside in the atoms lowest energy levels that is where they like to rest. But lasers rely on boosting most of the electrons to a higher, excited level also called an excited state. This is done using a pump that pushes the electrons up to a specific excited state. Then, as some of these electrons begin spontaneously falling down again, they emit a specific wavelength of light. These photons travel through the material and tickle other electrons in the excited state, stimulating them to jump down, and causing more photons of the same wavelength to be emitted. By placing mirrors at either end of the material, this process builds up until there is a nice, steady beam of photons that are all the same wavelength. Some fraction of synchronized photons then escapes through a hole in one of the mirrors. That is the beam you see coming from your laser pointer.

This is exactly what does not happen in a light bulb, where atoms in the heated filament have electrons jumping up and down chaotically between different levels. The photons they emit have a wide range of wavelengths, which causes their light to look white. It is only by exploiting the weird quantum levels of electrons in an atom, the weird quantum jumps between those levels, and finally, the weird wave-particle duality of light itself, that those amazing and very useful lasers come into being.

There is, of course, a lot more to this story. But the basic idea you want to remember next time youre at the grocery store check-out is simple. A world beyond your perception the nanoworld of atoms is incredibly different from the one you live in. Somehow, we humans have peered into that tiny realm and come back with a deep enough understanding to reshape the macroworld we inhabit.

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Coding the future | Business | insidetucsonbusiness.com – Inside Tucson Business

At Quantum Quest, an all-girls quantum computing camp, 20 teenage female students recently stood on the precipice of a brand new technology: quantum coding.

(Scientists) use quantum computers, program manager Gabbie Meis said. (Quantum computers) actually use quantum mechanics to solve some of the worlds largest problems, like things with lots of data or simulations that our classical computers just dont have enough power to do. Instead of our classical computers, quantum computers are actually an entirely different type of machine that is still being developed today.

This kind of computer requires quantum coding and when programmed could be used to help solve problems like mitigating the impacts of climate change; transportation mapping, such as figuring out how to remap the entire country of Australia with more efficient roadways; or even biomedical research, such as protein folding for vaccine development or drug discovery research.

Back in 2019 Google ran a problem on their quantum computer that they estimated would take the most powerful supercomputer about 10,000 years to solve, Meis said. They said they got their (quantum) computers to solve it in less than two days.

During the camp, students learned the programming language, Qiskit, an open source (free) software development kit. Meis called it a Python-backed library, Python being a programming language. Qiskit allows the students classical computers the kind most of use at home to communicate with quantum computers. Ironically, although the students all had their laptops open, the learning was done on dry erase boards.

Quantum is interdisciplinary so theyre learning the basics in linear algebra, Meis said. Theyre learning computer science and how to code in Python, and theyre learning quantum physics, all wrapped in this single week.

The Coding School, located in Southern California, has a quantum coding initiative called Qubit by Qubit, the most basic unit of information in quantum computing. The initiative seeks to make quantum computing education accessible to students in K-12, because as it stands right now, according to Meis, students dont usually see quantum computing until they are graduate students.

To bring quantum coding to the masses, the school developed the Quantum Quest camp and partners with other organizations to offer it locally. For Tucson, they partnered with the University of Arizonas Office of Societal Impact and the Girl Scouts of Southern Arizona (GSSA).

When this all came about it was the perfect marriage between the Coding School, the U of A and the Girl Scouts in trying to bring accessibility to this more advanced part of STEM, said Colleen McDonald, director of staff supported programs for the GSSA. As Girl Scouts we see ourselves as the connector. We want to make sure that all girls have access to it.

The Coding School has been offering this camp for some time this is its 10th camp but its the first time its been offered in Tucson. Camp topics included everything from foundational concepts that make up the quantum world such as entanglement and qubits, and end with teaching girls how to code real quantum computers.

Its all new science. These students are at the very foundation of quantum coding, according to Meis, and that is part of why it is so important to offer this to young women. One, they are introduced to quantum computing, but two, so they are not alone and do not feel alone in their interest in this field, Meis said.

This is a hard science, right? Meis said. We really want our students to feel that theres a place in this for girls. Were really trying to empower them now while theyre still in high school.

Ive worked with girls for two decades doing STEM with them and one of the biggest things I hear is they think that theyre alone in liking STEM, that they dont realize there are other girls who are also willing to push themselves, Michelle Higgins added. Shes the associate director of the Office of Societal Impact.

The lead instructor for this camp is herself an example to these students. Emily Van Milligen is a doctoral student at the UArizona department of physics. Her field of study is quantum entanglement and routing protocols. She noticed that not one student fell behind; they all listened.

They love it, Van Milligen said. They like the lectures Im giving, which is exciting because that means they enjoy the content. Im not doing anything that special.

One student, 18-year-old Sagan Friskey and future Pima Community College student, spoke enthusiastically about the camp.

I think its super interesting to learn about, especially since were at the very beginning of it becoming a part of something that you can learn about and work with, she said.

Gabriela Malo-Molina, 14, and a student at Catalina Foothills High School, said shes never seen this before but could be interested in looking deeper into it.

I think this is a very special opportunity, and that this field will definitely be more commonly used in the future, she said. And quantum computing in the future will be very helpful for discoveries, especially in the medical field.

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Another Voice: The physics of unity – Ukiah Daily Journal

I often talk about unity reality. While this is fundamental in the spiritual and metaphysical traditions, I first came to this through physics. High school introduced me to rudimentary atomic theory: atoms were considered as solid spheres, the smallest indivisible portion of a particular element, and molecules were atoms connected in combinations.

A little over a century ago, it was discovered that atoms are mostly empty, because beams of electrons passed through them as if nothing was there. Deeper investigation described atoms having electrons surrounding a very small, relatively massive, nucleus consisting of protons and neutrons.

Hydrogen is the simplest atom, consisting of one electron and one proton, with an effective diameter of 2.510-8 inches, meaning 250 million lined up would measure an inch. That is very small, but the proton in the middle is about 100,000 times smaller, and the electron is 1,000 times smaller than the proton. To give a sense of scale, if the proton was the size of a golf ball, the electron would be the thickness of a piece of newspaper, circling the golf ball at a radius of about 1.4 miles! That 2.8 mile diameter sphere contains only a golf ball and a speck of paper, yet that is what we experience as solid matter.

Quantum mechanics describes electrons in energy shells around the nucleus, neutrons consisting of a proton and an electron, and all the larger particles consisting of combinations of even smaller particles. More significantly, all matter is dense energy, with wave like properties as well as particulate effects. Needless to say, the deeper one looks, the less solid things seem, and the clearer it becomes that all descriptions are approximations.

But physical reality is even stranger than that. About 70 years ago, physicist David Bohm suggested that apparently empty space is actually an almost unimaginably vast ocean of energy: zero-point energy. I first encountered this in Bohms 1980 book, Wholeness and the Implicate Order. While the mathematics are beyond my scope, I have had opportunity to check the implications with several physicists who study this field.

What appears as manifested matter is just a very slight increase in energy, much like a wave on the ocean is a slightly greater amount of water in that particular location, not a separate thing. The perception of different things is a consequence of our limited perspective, not a quality of reality. On the ocean, we perceive only the relative differences in water height, without any awareness of the depths below. Similarly, we experience material form, totally unaware of the underlying energy ocean. As all water waves arise out of the common ocean, all matter arises out of the common energy ocean. Seriously criticized when first proposed, this theory has stood the test of time, continuing to gain credibility as it explains experimental data better than competing theories.

Our sensory systems are designed to detect relative differences, not absolute reality. For example, consider hearing, which depends on an atmospheric density, but only notices the changes in that density, not the absolute value. In addition, we only detect a range of differences, and are unaware of very slow or vary rapid changes, which are noticeable to other species. It is not surprising that we should be unaware of a unity energy field, while noticing only a range of differences.

We are immersed in a complex surface of subtle energy shapes. Just look around at all the colors you see. Every color is a different energy level, ranging from the lowest energy at the red end of the spectrum to the higher energy of blue and ultra violet. The beauty of the world is the variety and subtlety of this energy field. This visible spectrum is a very small part of the measurable energy, and humans see less than other species.

Look around again, considering the idea that all that you see is similar to the wave structure on the surface of the ocean. Every thing has a uniqueness in space and time, yet is a shape of the energy ocean that includes us all. Can you imagine experiencing the connection? Can you feel a taste of the unity reality?

This is our task at this point in human history. The illusion of separation is killing us. We are too numerous and too powerful to be so ignorant much longer.

Crispin B. Hollinshead lives in Ukiah. This and previous articles can be found at cbhollinshead.blogspot.com.

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String Theory meets music theory at Artown on the Quad – Nevada Today

As temperatures soared into the 90s on the evening of July 12, four musicians with ties to the University came together to emulate how physicists imagined the forces of the universe to come together. The String Theory Quartet, performing as a part of Artown, Renos monthlong celebration of the arts, consists of two alumni who are also siblings, a former alumna-turned-professor and a current instructor.

The quartets cellist is Johnny Lenz. Johnnys father is John Lenz, a renowned former music professor who played cello and horn and played in the Universitys Argenta Trio. As the show started, Johnny fiddled with the tuning of his cello. The quartet had tuned their instruments and rehearsed indoors. He figured the heat might impact the instruments, but the same heat had the quartet retreating to the air conditioned indoors before the concert.

Every single material on Earth has a rate of thermal expansion and contraction, including our strings. As they get longer, the tension decreases in the strings, and they go flat. In the case of my cello, it goes way flat, Lenz said. During his time at the University, he studied the resonance of fine wires. I was pretty good at music, but I was also really good at science and physics.

The former physics student inspired one of the violinists to name the quartet String Theory a reference to the theory of how the forces in the universe impact everything in it. Johnny Lenz was a Westfall Scholar when he graduated in Fall 2006, meaning he had the top GPA of all the physics students that semester. Hes been a musician for 33 years.

The idea behind string theory, and its been a long time since Ive gone to school here, Johnny said, gesturing around, but its unification. Youre trying to unify the different quantum mechanics, classical mechanics, relativity, youre trying to unify all that so that it makes sense. And thats one of the reasons we thought itd be good for a quartet, is were trying to unify and blend the different forces of the musical family and the string instrument family. Ironically, Johnny has always been a string theory skeptic, though his studies focused on experimental physics rather than theoretical.

There arent many jobs in experimental physics in Reno, but Johnny didnt want to leave the area, so he got a job with the Douglas County Sheriffs Office in law enforcement. The sergeant was shot while on duty in December 2020. In honor of Johnnys recovery and return to the stage, the Reno Philharmonic Orchestra offered free virtual access to first responders for a virtual concert in February of 2021 and brought 30 of Johnnys friends, colleagues and family members to the Pioneer Center for an in-person concert.

Johnnys sister, Ruth Lenz, is the concertmaster of the Reno Philharmonic and the Reno Chamber Orchestra and is also a member of the Classical Tahoe Orchestra. Ruth plays the violin and has a doctorate in music performance. She attended the University to get her degree in music. Jessica Escobar, another violinist, taught anthropology and French at the University and is an alum. Escobar came up with the name for the quartet. Dustin Budish, the groups viola player, teaches viola at the University. The group played a diverse mix of music, from the Rolling Stones Paint It, Black to We Dont Talk About Bruno from the Disney movie Encanto to Promentory, the Scottish-inspired main theme from the movie The Last of the Mohicans.

It was really fun, and it was good to be here, Johnny said. Despite the thermal expansion impacting the strings of his cello, the performance received a standing ovation at the end. The event, sponsored by the University and the Edna B. and Bruno Benna Foundation, was the second in a series of free public Artown events called Artown on the Quad.

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