Tag Archives: quantum technologies

Canada, quantum technology, and a public relations campaign?

Stephanie Simmons’ October 31, 2022 essay on quantum technology and Canada for The Conversation (h/t Nov.1.22 news item on phys.org) was a bit startling—not due to the content—but for the chosen communications vehicle. It’s the kind of piece i expect to find in the Globe and Mail or the National Post not The Conversation, which aspires to present in depth, accessible academic research and informed news stories (or so I thought). (See The Conversation (website) Wikipedia entry for more.)

Simmons (who is an academic) seems to have ‘written’ a run-of-the-mill public relations piece (with a good and accessible description of quantum encryption and its future importance) about Canada and quantum technology aimed at influencing government policy makers while using some magic words (Note: Links have been removed),

Canada is a world leader in developing quantum technologies and is well-positioned to secure its place in the emerging quantum industry.

Quantum technologies are new and emerging technologies based on the unique properties of quantum mechanics — the science that deals with the physical properties of nature on an atomic and subatomic level.

In the future, we’ll see quantum technology transforming computing, communications, cryptography and much more. They will be incredibly powerful, offering capabilities that reach beyond today’s technologies.

The potential impact of these technologies on the Canadian economy [emphasis mine] will be transformative: the National Research Council of Canada has identified quantum technology as a $142 billion opportunity that could employ 229,000 Canadians by 2040 [emphasis mine].

Canada could gain far-reaching economic and social benefits from the rapidly developing quantum industry, but it must act now to secure them — before someone else [emphasis mine] delivers the first large-scale quantum computer, which will likely be sooner than expected.

This is standard stuff, any professional business writer, after a little research, could have pulled the article together. But, it’s Stephanie Simmons whose academic titles (Associate Professor, SFU and Tier 2 Canada Research Chair in Silicon Quantum Technologies, Simon Fraser University) and position as founder and Chief Quantum Officer of Photonic, Inc. give her comments added weight. (For an academic, this is an unusual writing style [perhaps Simmons had some help?] and it better belongs in the newspapers I’ve previously cited.)

Simmons, having stoked a little anxiety with “it [Canada] must act now to secure them [economic and social benefits] — before someone else delivers the first large-scale quantum computer, which will likely be sooner than expected,” gets to her main points, from the October 31, 2022 essay,

To maintain its leadership, Canada needs to move beyond research and development and accelerate a quantum ecosystem that includes a strong talent pipeline, businesses supported by supply chains and governments and industry involvement. There are a few things Canada can do to drive this leadership:

Continue to fund quantum research: … The Canadian government has invested more than $1 billion since 2005 in quantum research and will likely announce a national quantum strategy soon [emphasis mine]. Canada must continue funding quantum research or risk losing its talent base and current competitive advantage. [Note: Canada has announced a national quantum strategy in both the 2021 and 2022 federal budgets See more under the ‘Don’t we already have a national quantum strategy? subhead]

Build our talent pipeline with more open immigration: …

Be our own best customers: Canadian companies are leading the way, but they need support [emphasis mine; by support, does she mean money?]. Quantum Industry Canada boasts of more than 30 member companies. Vancouver is home to the pioneering D-Wave and Photonic Inc., …

As noted in a previous post (July 26, 2022 titled “Quantum Mechanics & Gravity conference [August 15 – 19, 2022] launches Vancouver (Canada)-based Quantum Gravity Institute and more”), all of this enthusiasm tends to come down to money, as in, ‘We will make money which will somehow benefit you but, first, we need more money from you’. As for the exhortation to loosen up immigration, that sounds like an attempt to exacerbate ‘brain drain’, i.e., lure people from other countries to settle in Canada. As a country whose brains were drained in the 1960s, 70s, etc., it should be noted those drives were deeply resented here and I expect that we will become objects of resentment should we resort to the same tactics although I thought we already had.

Same anxieties, same solution

Simmons concludes with a cautionary tale, from the October 31, 2022 essay, Note: Links have been removed,

Canada has an opportunity to break out of its pattern of inventing transformative technology, but not reaping the rewards. This is what happened with the invention of the transistor.

The first transistor patent was actually filed in Canada by Canadian-Hungarian physicist Julius Edgar Lilienfeld, 20 years before the Bell Labs demonstration. Canada was also one of the places where Alexander Graham Bell worked to develop and patent the telephone.

Despite this, the transistor was commercialized in the U.S. and led to the country’s US$63 billion semiconductor industry. Bell commercialized the telephone through The Bell Telephone Company, which eventually became AT&T.

Canada is poised to make even greater contributions to quantum technology. Much existing technology has been invented here in Canada — including quantum cryptography, which was co-invented by University of Montreal professor Gilles Brassard. Instead of repeating its past mistakes, Canada should act now to secure the success of the quantum technology industry.

I bought into this narrative too. It’s compelling and generally accepted (in short, it’s a part of Canadian culture) but somebody who’s smarter about business and economics than I am pointed out that Canada has a good standard of living and has had that standard for many years despite decades of worry over our ‘inability’ to commercialize our discoveries. Following on that thought, what’s so bad about our situation? Are we behind because we don’t have a huge semiconductor industry? I don’t know but perhaps we need to question this narrative a little more closely. Where some people see loss, others might see agility, inventiveness, and the ability to keep capitalizing on early stage technology, over and over again.

What I haven’t yet seen discussed as a problem is a Canadian culture that encourages technology entrepreneurs to create startups with the intention of selling them to a big US (or other country) corporation. I’m most familiar with the situation in the province of British Columbia where a 2003 British Columbia Techmap (developed by the accounting firm PriceWaterhouseCoopers [PWC]) provides a genealogy which stretched from the 1890s to 2003. The number of technology companies acquired by foreign corporations is astonishing. Our technology has been bought—over and over, since the 1890s.

(I believe there were three editions of the British Columbia Techmap: 1997, 2003 and 2012. PWC seems to have discontinued publication and the 2012 online edition is no longer available. For the curious, there’s a June 15, 2012 announcement, which provides a little information about and interesting facts from the 2012 digital edition.)

This ‘startup and sell’ story holds true at the national level as well. We have some large technology companies but none of them compare to these: Huawei (China), Ali Baba (China), Intel (US), Apple (US), Siemens (Germany), Sanofi (France; technically a pharmaceutical but heavily invested in technology), etc.

So, is this “… inventing transformative technology, but not reaping the rewards …” really a problem when Canadians live well? If so, we need to change our entrepreneurial and business culture.

Don’t we already have a national quantum strategy?

It’s a little puzzling to see Simmons appear to be arguing for a national quantum strategy given this (from my July 26, 2022 posting),

A National Quantum Strategy was first announced in the 2021 Canadian federal budget and reannounced in the 2022 federal budget (see my April 19, 2022 posting for a few more budget details).. Or, you may find this National Quantum Strategy Consultations: What We Heard Report more informative. There’s also a webpage for general information about the National Quantum Strategy.

As evidence of action, the Natural Science and Engineering Research Council of Canada (NSERC) announced new grant programmes made possible by the National Quantum Strategy in a March 15, 2022 news release,

Quantum science and innovation are giving rise to promising advances in communications, computing, materials, sensing, health care, navigation and other key areas. The Government of Canada is committed to helping shape the future of quantum technology by supporting Canada’s quantum sector and establishing leadership in this emerging and transformative domain.

Today [March 15, 2022], the Honourable François-Philippe Champagne, Minister of Innovation, Science and Industry, is announcing an investment of $137.9 million through the Natural Sciences and Engineering Research Council of Canada’s (NSERC) Collaborative Research and Training Experience (CREATE) grants and Alliance grants. These grants are an important next step in advancing the National Quantum Strategy and will reinforce Canada’s research strengths in quantum science while also helping to develop a talent pipeline to support the growth of a strong quantum community.

it gets even more puzzling when you know that Simmons is part of a Canadian Council of Academies (CCA) expert panel (announced in May 2022) to produce a report on Quantum Technologies,

Budget 2021 included a National Quantum Strategy [emphasis mine] to amplify Canada’s strength in quantum research, grow quantum-ready technologies, and solidify Canada’s global leadership in this area. A comprehensive exploration of the capabilities and potential vulnerabilities of these technologies will help to inform their future deployment across the society and the economy.

This assessment will examine the impacts, opportunities, and challenges quantum technologies present for industry, governments, and people in Canada. [emphases mine]

The Sponsor:

National Research Council Canada and Innovation, Science and Economic Development Canada [emphasis mine]

It’s possible someone else wrote the essay, someone who doesn’t know about the strategy or Simmons’ involvement in a CCA report on how to address the issues highlighted in her October 31, 2022 essay. It’s also possible that Simmons is trying to emphasize the need for a commercialization strategy for quantum technologies.

Given that the Council of Canadian Academies (CCA) was asked to produce what looks like a comprehensive national strategy including commercialization, I prefer the second possibility.

*ETA December 29, 2022 1020 hours PT: On a purely speculative note, I just noticed involvement from a US PR agency in this project, from my “Bank of Canada and Multiverse Computing model complex networks & cryptocurrencies with quantum computing” July 25, 2022 posting,

As for the company that produced the news release, HKA Marketing Communications, based in Southern California, they claim this “Specialists in Quantum Tech PR: #1 agency in this space” on their homepage.

Simmons is on the CCA’s Quantum Technologies’ expert panel along with Eric Santor, Advisor to the Governor, Bank of Canada. HKA’s involvement would certainly explain why the writer didn’t know there’s already a National Quantum Strategy and not know about Simmons’ membership in the expert panel. As I noted, this is pure speculation; I have no proof.*

At any rate, there may be another problem, our national quantum dilemma may be due to difficulties within the Canadian quantum community.

A fractious Canadian quantum community

I commented on the competitiveness within the quantum technologies community in my May 4, 2021 posting about the federal 2021 budget, “While the folks in the quantum world are more obviously competitive … ,” i.e., they are strikingly public in comparison to the genomic and artificial intelligence communities. Scroll down to the ‘National Quantum Strategy’ subhead in the May 4, 2021 posting for an example.

It can also be seen in my July 26, 2022 posting about the Vancouver (Canada) launch of the Quantum Gravity Institute where I noted the lack of Canadian physicists (not one from the CCA expert panel, the Perimeter Institute, or TRIUMF; Canada’s particle accelerator centre, or the Institute for Quantum Computing at the University of Waterloo) in the speaker list and the prominent role wealthy men who’ve taken up quantum science as a hobby played in its founding. BTW, it seems two Canadian physicists (in addition to Philip Stamp; all from the University of British Columbia) were added to the speaker list and D-Wave Systems was added to the institute’s/conference’s webpage sponsorship list (scroll down about 70% of the way) after I posted.

Hopefully the quantum science/research community will pull together, in public, at least.

Who is the audience?

Getting back to Simmons’ piece on The Conversation, her essay, especially one that appears to be part of a public relations campaign, can appeal to more than one audience. The trick, as all (script, news, business, public relations, science, etc.) writers will tell you, is to write for one audience. As counter-intuitive as that trick may seem, it works.

Canadian policy makers should already know that the federal government has announced a national quantum strategy in two different budgets. Additionally, affected scientists should already know about the national strategy, such as it is. Clearly, children are not the intended audience. Perhaps it’s intended for a business audience but the specific business case is quite weak and, as I’ve noted here and elsewhere, the ‘failure’ to take advantage of early developments is a well worn science business trope which ignores a Canadian business model focused on developing emerging technology then, selling it.

This leaves a ‘general’ audience as the only one left and that audience doesn’t tend to read The Conversation website. Here’s the description of the publisher from its Wikipedia entry, Note: Links have been removed,

The Conversation is a network of not-for-profit media outlets publishing news stories and research reports online, with accompanying expert opinion and analysis.[1][2] Articles are written by academics and researchers [emphasis mine]under a free Creative Commons license, allowing reuse without modification.[3][2] Its model has been described as explanatory journalism.[4][5][6] [emphasis mine] Except in “exceptional circumstances”, it only publishes articles by “academics employed by, or otherwise formally connected to, accredited institutions, including universities and accredited research bodies”.[7]: 8 

Simmons’ piece is not so much explanatory as it is a plea for a policy on a website that newspapers use for free, pre-edited, and proofed content.

I imagine the hope was that a Canadian national newspaper such as the Globe & Mail and/or the National Post would republish it. That hope was realized when the National Post and, unexpectedly, a local paper, the Winnipeg Free Press, both republished it on November 1, 2022.

To sum up, it’s not clear to me what the goal for this piece was. Government policy makers don’t need it, the business case is not sufficiently supported, children are not going to care, and affected scientists are already aware of the situation. (Scientists who will be not affected by a national quantum policy will have their own agendas.) As for a member of the general audience, am I supposed to do something … other than care, that is?

The meaning of a banana

It is an odd piece which may or may not be part of a larger public relations campaign.

As a standalone piece, it reiterates the age old message regarding Canadian technology (“we don’t do a good job of commercializing our technology) to no great avail. As part of a strategy, it seems to be a misfire since we already have a national quantum strategy and Simmons is working on an expert panel that should be delivering the kind of policy she’s requesting.

In the end, all that can be said for certain is that Stephanie Simmons’ October 31, 2022 essay on quantum technology and Canada was published in The Conversation then republished elsewhere.

As Freud may or may not have said, “Sometimes a banana is just a banana.”

Radiation-free quantum technology with graphene

A July 8, 2021 news item on Nanowerk announces research from Finland and Switzerland that could have an impact on real world quantum technologies (Note: A link has been removed),

Rare-earth compounds have fascinated researchers for decades due to the unique quantum properties they display, which have so far remained totally out of reach of everyday compounds. One of the most remarkable and exotic properties of those materials is the emergence of exotic superconducting states, and particularly the superconducting states required to build future topological quantum computers.

While these specific rare-earth compounds, known as heavy fermion superconductors, have been known for decades, making usable quantum technologies out of them has remained a critically open challenge. This is because these materials contain critically radioactive compounds, such as uranium and plutonium, rendering them of limited use in real-world quantum technologies.

New research has now revealed an alternative pathway to engineer the fundamental phenomena of these rare-earth compounds solely with graphene, which has none of the safety problems of traditional rare-earth compounds.

The exciting result in the new paper shows how a quantum state known as a “heavy fermion” can be produced by combining three twisted graphene layers. A heavy fermion is a particle – in this case an electron – that behaves like it has a lot more mass than it actually does. The reason it behaves this way stems from unique quantum many-body effects that were mostly only observed in rare-earth compounds until now.

This heavy fermion behavior is known to be the driving force of the phenomena required to use these materials for topological quantum computing. This new result demonstrates a new, non-radioactive way of achieving this effect using only carbon, opening up a pathway for sustainably exploiting heavy fermion physics in quantum technologies.

A July 8, 2021 Aalto University press release (also on EurekAlert), which originated the news item, provides more details,

In the paper authored by Aline Ramires, (Paul Scherrer Institute, Switzerland) and Jose Lado (Aalto University), the researchers show how it is possible to create heavy fermions with cheap, non-radioactive materials. To do this, they used graphene, which is a one-atom thick layer of carbon. Despite being chemically identical to the material that is used in regular pencils, the sub-nanometre thickness of graphene means that it has unexpectedly unique electrical properties. By layering the thin sheets of carbon on top of one another in a specific pattern, where each sheet is rotated in relation to the other, the researchers can create the quantum properties effect that results in the electrons in the graphene behaving like heavy fermions.

“Until now, practical applications of heavy fermion superconductors for topological quantum computing has not been pursued much, partially because it required compounds containing uranium and plutonium, far from ideal for applications due to their radioactive nature”, says Professor Lado, “In this work we show that one can aim to realize the exactly very same physics just with graphene. While in this work we only show the emergence of heavy fermion behavior, addressing the emergence of topological superconductivity is a natural next step, which could potentially have a groundbreaking impact for topological quantum computing.”

Topological superconductivity is a topic of critical interest for quantum technologies, also tackled by alternative strategies in other papers from Aalto University Department of Applied Physics, including a previous paper by Professor Lado. “These results potentially provide a carbon-based platform for exploitation of heavy fermion phenomena in quantum technologies, without requiring rare-earth elements”, concludes Professor Lado.

Here’s a link to and a citation for the paper,

Emulating Heavy Fermions in Twisted Trilayer Graphene by Aline Ramires and Jose L. Lado. Phys. Rev. Lett. 127, 026401 DOI: https://doi.org/10.1103/PhysRevLett.127.026401 Published 7 July 2021 © 2021 American Physical Society

This paper is behind a paywall.

Quantum entanglement in near-macroscopic objects

Researchers at Finland’s Aalto University seem excited in an April 25, 2018 news item on phys.org,

Perhaps the strangest prediction of quantum theory is entanglement, a phenomenon whereby two distant objects become intertwined in a manner that defies both classical physics and a common-sense understanding of reality. In 1935, Albert Einstein expressed his concern over this concept, referring to it as “spooky action at a distance.”

Today, entanglement is considered a cornerstone of quantum mechanics, and it is the key resource for a host of potentially transformative quantum technologies. Entanglement is, however, extremely fragile, and it has previously been observed only in microscopic systems such as light or atoms, and recently in superconducting electric circuits.

In work recently published in Nature, a team led by Prof. Mika Sillanpää at Aalto University in Finland has shown that entanglement of massive objects can be generated and detected.

The researchers managed to bring the motions of two individual vibrating drumheads—fabricated from metallic aluminium on a silicon chip—into an entangled quantum state. The macroscopic objects in the experiment are truly massive compared to the atomic scale—the circular drumheads have a diametre similar to the width of a thin human hair.

An April 20,2018 Aalto University press release (also on EurekAlert), which originated the news item, provides more detail,

‘The vibrating bodies are made to interact via a superconducting microwave circuit. The electromagnetic fields in the circuit carry away any thermal disturbances, leaving behind only the quantum mechanical vibrations’, says Professor Sillanpää, describing the experimental setup.

Eliminating all forms of external noise is crucial for the experiments, which is why they have to be conducted at extremely low temperatures near absolute zero, at –273 °C. Remarkably, the experimental approach allows the unusual state of entanglement to persist for long periods of time, in this case up to half an hour. In comparison, measurements on elementary particles have witnessed entanglement to last only tiny fractions of a second.

‘These measurements are challenging but extremely fascinating. In the future, we will attempt to teleport the mechanical vibrations. In quantum teleportation, properties of physical bodies can be transmitted across arbitrary distances using the channel of “spooky action at a distance”. We are still pretty far from Star Trek, though,’ says Dr. Caspar Ockeloen-Korppi, the lead author on the work, who also performed the measurements.

The results demonstrate that it is now possible to have control over the most delicate properties of objects whose size approaches the scale of our daily lives. The achievement opens doors for new kinds of quantum technologies, where the entangled drumheads could be used as routers or sensors. The finding also enables new studies of fundamental physics in, for example, the poorly understood interplay of gravity and quantum mechanics.

The team also included scientists from the University of New South Wales in Australia, the University of Chicago in the USA, and the University of Jyväskylä in Finland, whose theoretical innovations paved the way for the laboratory experiment.

An illustration has been made available,

An illustration of the 15-micrometre-wide drumheads prepared on silicon chips used in the experiment. The drumheads vibrate at a high ultrasound frequency, and the peculiar quantum state predicted by Einstein was created from the vibrations. Image: Aalto University / Petja Hyttinen & Olli Hanhirova, ARKH Architects.

Here’s a link to and a citation for the paper,

Stabilized entanglement of massive mechanical oscillators by C. F. Ockeloen-Korppi, E. Damskägg, J.-M. Pirkkalainen, M. Asjad, A. A. Clerk, F. Massel, M. J. Woolley & M. A. Sillanpää. Nature volume 556, pages478–482 (2018) doi:10.1038/s41586-018-0038-x Published online: 25 April 2018

This paper is behind a paywall.

Explaining research into matching plasmonic nanoantenna resonances with atoms, molecules, and quantum dots

There’s a very nice explanation of the difficulties associeated with using plasmonic nanoantennas as sensors in a March 21, 2016 news item on phys.org,

Plasmonic nanoantennas are among the hot topics in science at the moment because of their ability to interact strongly with light, which for example makes them useful for different kinds of sensing. But matching their resonances with atoms, molecules or so called quantum dots has been difficult so far because of the very different length scales involved. Thanks to a grant from the Engkvist foundation, Timur Shegai, assistant professor at Chalmers University of Technology, hopes to find a way to do this and by that open doors for applications such as safe long distance communication channels.

A molecule being illuminated by two gold nanoantennas. By: Alexander Ericson Courtesy: Chalmers University of Technology

A molecule being illuminated by two gold nanoantennas. By: Alexander Ericson Courtesy: Chalmers University of Technology

The image, looking like a stylized butterfly or bow tie, above accompanies Karin Weijdegård’s March ??, 2016 Chalmers University of Technology press release, which originated the news item, expands on the research theme,

The diffraction limit makes it very hard for light to interact with the very smallest particles or so called quantum systems such as atoms, molecules or quantum dots. The size of such a particle is simply so much smaller than the wavelength of light that there cannot be a strong interaction between the two. But by using plasmonic nanoantennas, which can be described as metallic nanostructures that are able to focus light very strongly and in wavelengths smaller than those of the visible light, one can build a bridge between the light and the atom, molecule or quantum dot and that is what Timur Shegai is working on.

“Plasmonic nanostructures are themselves smaller than wavelengths of light, but because they have a lot of free electrons they can store the electromagnetic energy in a volume which is actually a lot smaller than the diffraction limit, which helps to bridge the gap between really small objects such as molecules and the larger wavelengths of light,” he says.

Matching the harmonic with the un-harmonic

This might sound easy enough, but the problem with combining the two is that they behave in very different ways. The behaviour of plasmonic nanostructures is very linear, like a harmonic oscillator it will regularly move from side to side no matter how much energy or in other words how many excitations are stored in it. On the other hand, so called quantum systems like atoms, molecules or quantum dots are very much the opposite – their optical properties are highly un-harmonic. Here it makes a big difference if you excite the system with one or two or hundreds of photons.

“Now imagine that you couple together this un-harmonic resonator and a harmonic resonator, and add the possibility to interact with light much stronger than the un-harmonic system alone would have allowed. That opens up very interesting possibilities for quantum technologies and for non-linear optics for example. But as opposed to previous attempts that have been done at very low temperatures and in a vacuum, we will do it at room temperature.”

Communication channels impossible to hack

One possible application where this technology could be useful in the future is to create channels for long distance communications that are impossible to hack. With the current technology this kind of safe communication is only possible if the persons communicating is within a distance of about one hundred kilometres from each other, because that is the maximum distance that an individual photon can run in fibres before it scatters and the signal is lost.

“The kind of ultra small and ultra fast technology we want to develop could be useful in a so called quantum repeater, a device that could be installed across the line from for example New York to London, that would repeat the photon every time it is about to be scattered,” says Timur Shegai.

At the moment though, it is the fundamental aspects of merging plasmons with quantum systems that interest Timur Shegai. To be able to experimentally prove that the there can be interactions between the two systems, he first of all needs to fabricate model systems at the nano level. This is a big challenge, but with the grant of 1,6 million SEK over a period of two years that he just received from the Engkvist foundation, the chances of success have improved.

“Since I am a researcher at the beginning of my career every person is a huge improvement and now I can hire a post doc to work with my group. This means that the project can be divided into sub parts and together we will be able to explore more possibilities about this new technology.”

Thank you Karin Weijdegård for the explanation.

Need funds to develop your quantum-based technology for the market?

Qwave or Quantum Wave Fund has just announced its arrival on the venture capital scene, according to a Dec. 10, 2012 news item on Nanowerk,

Quantum Wave Fund (Qwave) with headquarters in Boston today announced it has raised $30 million in capital with potential to reach $100 million dollars to fund breakthrough companies that utilize quantum materials and technologies. Quantum Wave Fund is the first fund specialized for companies developing technologies suitable for quantum technologies. Quantum physics is a hot area and quantum particles was the winning topic for the 2012 Nobel Prize for Physics.

The company has a very Russian flavour with the most of the investment team having at least one degree from a Russian post-secondary institution, from the Quantum Wave Fund Investment Team webpage,

Serguei Kouzmine, Managing Partner

Master’s Degree in physics from Novosibirsk State University and Ph.D. in physics from Institute of Nuclear Physics in Russia. Degree in Business Administration from the University of Chicago Business School …

Dmitri Kisliakov, Principal

Dmitri was running CFO role for 12 years. Last years he is working in investment area. He has M.S. degree with honor (Textile Academy, Moscow) and MBA (California State University, East Bay).

Vadim Moroz, Senior Analyst

Vadim has great experience as VP and Senior Trader at UBS, JPMorgan, Citadel Investment Group for last 10 years in Chicago and NY offices. MS (PhysTech), PhD (Northwestern University), CFA

Oleg Svintsitski, Venture Partner

More than 15 years of expertise ininternational [sic] entrepreneurial development and global investment experience; a co-founder and manager of several start-up companies in medical devices and biotechnology, internet services, and wholesale distribution in the United States and in Russia. M.S. (Operations Research) from the Moscow Aviation Institute and M.B.A. at the University of Michigan.

Good luck to them.