Tag Archives: nanotechnology business investment

Over 2000 nanotechnology businesses?

Nanowerk has announced a new, free feature: their Nanotechnology Company Directory. From the July 1, 2010 news item,

At the latest count, over 2100 companies from 48 countries are involved in nanotechnology research, manufacturing or applications – a number that keeps growing at a considerable pace.

With more than 1100 companies, the U.S. is home to roughly half of all nanotechnology firms. 670 companies are in Europe, 230 in Asia and 210 elsewhere in the world. Within Europe, Germany is represented with 211 companies, followed by the U.K. with 146 companies.

Over 270 companies are involved in the manufacture of raw materials such as nanoparticles, nanofibers and -wires, carbon nanotubes, or quantum dots. More than 340 companies are active in life sciences and pharmaceutical fields. The vast majority with well over half of all companies are involved in manufacturing instruments, devices, or advanced materials and components.

The news item goes on to provide a definition for what constitutes a nanotechnology company which is timely in light of Dexter Johnson’s June 30, 2010 posting (What Is a Nanotechnology Company Anyway?) at Nanoclast,

I stopped for a moment after reading [in an investment notice he’d received] this term “nanotechnology company” to consider what might actually constitute such a thing. Is Toyota a nanotechnology company as some nanotechnology stock indices have claimed? Is IBM a nanotechnology company because they are doing research into using graphene and carbon nanotubes in electronics? How about all the instrumentation and microscopy companies that give us the tools to see and to work on the nanometer and angstrom scale, are they nanotechnology companies? What about the flood of nanomaterials companies that started making carbon nanotubes in their basements that were going to revolutionize industry?

Despite figures ranging from one to three trillion dollars being dangled in front of people’s faces for the last 10 years, it doesn’t seem to have attracted the level of investment that would really make a difference in advancing the commercial aspirations of nanotechnologies if the recent PCAST meeting is any indication.

So the definition has an impact since entrepreneurs need to attract investment and, as  more than one of the participants in the recent PCAST meeting noted, moving the discoveries from the laboratory to the market place is a labourious process where there is a significant dearth of investment interest for a phase described as the ‘valley of death’ or, as one participant termed it, the ‘lab gap’. (My post about that particular PCAST meeting ‘The Golden Triangle workshop’  is here.)

The same day Nanowerk announced its new nanotechnology company directory, Christine Peterson at the Foresight Institute posted an item about a venture capital group known for investing in nanotech and microsystems,

Small investors who want to invest in nanotech startups have for years turned to publicly-held venture group Harris & Harris Group, which has focused on private companies in nanotech and microsystems.

With the economy down, and initial public offerings (IPOs) more rare, this strategy is changing.

Peterson is commenting on a Wall Street Journal blog posting by Brian Gormley,

In a June 28 letter to shareholders, Chief Executive [of Harris & Harris Group] Douglas Jamison said many of its private holdings are maturely nicely. Even so, volatility and risk aversion in the public markets are making it difficult for these companies [nanotech and microsystems] to go public.

Although the firm plans to continue investing in private companies, “We currently do not plan to make an initial equity investment in a private company until we get increased visibility into the timing of liquidity for our privately held portfolio,” Jamison wrote in the letter.

The firm, which has 31 private investments in its portfolio, expects to gain such visibility later this year. Jamison was not available for comment Monday.

“With the lengthening time between investment and return on investment in private venture capital-backed companies, we need to find a way to generate returns with greater frequency,” Jamison said in the letter.

“As a public company, we should not count on investors to wait five years between liquidity events. We will seek to position our investments so that we can demonstrate positive returns on investments on an annual basis.”

The valley of death or lab gap seems to be getting wider while venture capitalists who do know the industry pull back. Meanwhile, a standard investor is likely to experience confusion about what the term nanotechnology company means and just how much that ‘market’ is liable to worth.

Interview with Dr. David T. Cramb; venture capital and nano and microsystems; NanoBusiness Alliance roundtable; science and artists

March 3, 2010, I posted about Dr. David Cramb, director of the Nanoscience Program and professor in the department of Chemistry at the University of Calgary, and his colleagues. They had just published a paper (Measuring properties of nanoparticles in embryonic blood vessels: Towards a physicochemical basis for nanotoxicity)  in Chemical Physics Letters about a new methodology they are developing to measure the impact of nanoparticles  on human health and the environment. Dr. Cramb very kindly answered some email questions about the study (abstract is here, article is behind a paywall).

  • Is this work on nanoparticles and blood vessels part of a larger project? i.e. Is this an OECD project; is there going to be an international report; is this part of a cross-Canada investigation into nanoparticles and their impact on health?

This is a collaborative project, but the reports that we generate will be available to Environment Canada and Health Canada. We have collaborators from both agencies.

  • In reading the abstract (for the article, which is behind a paywall and probably too technical for me), it seemed to me that this is a preliminary study which sets the stage for a nanoparticle study. In fact, you were studying quantum dots (CdSe/ZnS) and establishing that a particular kind of spectroscopy could be used to track the accumulation of nanoparticles in chicken embryos. Is this correct? And if so, why not study the nanoparticles directly?

A quantum dot is a type of nanoparticle.  So, in principle, we can apply our techniques to any other nanoparticle of interest.

  • What does CdSe/ZnS stand for?

cadmium selenide (in the centre of the nanoparticle) / zinc sulfide (coating on the outside)

  • What kind or kinds of nanoparticles are going to be used for the study moving forward from this one?

Similar but different sizes and surface chemistries. We want to understand what properties affect uptake into tissues and distribution in organs. That way we can predict risk.

  • From reading the abstract (and thanks to the person who wrote the explanation), I have a pretty good idea why chicken embryos are being used. [I’ll insert the description from the abstract here with attributions.] In another context, I have come across the notion that chickens in the US at least, I don’t know about Canada, have been so thoroughly compromised genetically that using their embryos for research is problematic. (brief note: I attended a lecture by Susan Squier, a noted academic, who had a respondent [a US scientist] claiming he moved to the UK because he didn’t feel confident experimenting with US chicken embryos.) What are your thoughts on this?

We aren’t doing genetic studies, so knowing the lineage of the embryos isn’t critical for us.

  • Is there anything else you’d like to add?

Nanoparticles are being used in many areas from cosmetics to pharmaceutical to energy. As yet, there is no evidence that the nanoscale formulation adds any risk to these applications. We in nanoscience believe that we must maintain due diligence to asess future risk and to make nanotechnology as green as possible.

Thank you Dr. Cramb for taking the time to explain your work.

On a completely other front, Harris & Harris Group a venture capital group that invests in nanotechnology and microsystems is holding a fourth quarter conference call on Friday, March 12, 2010.  From the Harris & Harris Group website,

With over 30 nanotechnology companies in our portfolio, Harris & Harris Group, Inc., is one of the most active nanotechnology investors in the world. We have funded companies developing nanoscale-enabled solutions in solid state lighting, emerging memory devices, printable electronics, photovoltaics, battery technologies, thermal and power management, next-generation semiconductor devices and equipment, quantum computing, as well as in various life-science applications of nano-structured materials.

We consider a company to fit our investment thesis if the company employs, intends to employ or enables technology that we consider to be at the microscale, nanoscale or smaller and if the employment of that technology is material to its business plan. We are interested in funding entrepreneurs with energy, vision and the desire to build great companies.

From the news release on CNN announcing the conference call,

The management of Harris & Harris Group, Inc. (Nasdaq:TINY) will hold a conference call to discuss the Company’s financial results for its fiscal fourth quarter and full year 2009, to update shareholders and analysts on our business and to answer questions, on Friday, March 19, 2010, at 10:00 a.m. Eastern Time.

For details about accessing the webcast, please follow the link to the news release.

Still on business-related nanotechnology news, the NanoBusiness Alliance will be holding its annual Washington, DC roundtable, March 15-17, 2010. From the news item on Nanowerk,

The NanoBusiness Alliance, the world’s leading nanotechnology trade association, today announced that it will convene numerous nanotechnology industry executives in Washington, D.C. from March 15 – 17 for its 9th annual “Washington DC Roundtable”. As in past years, NanoBusiness Alliance members will participate in three days of high-level meetings with Members of Congress, Administration officials, and key staff.

If you are interested in the NanoBusiness Alliance, their homepage is here.

For today’s almost final entry, I’m going back to science and its relationship to art, a topic alluded to just prior to my introduction of the Cheryl Geisler (dean of the Faculty of Communication, Art and Technology at Simon Fraser University, Canada) interview. At the time I noted that art, science and technology are interconnected to justify my inclusion of art topics in this blog and, specifically, my inclusion of the Geisler interview. I just read an entry by David Bruggeman (Pasco Phronesis blog) which describes the impact that art can have. From the post,

… McCall’s art is certainly an influence on why I’m involved with science and technology today. You may not know it, but it’s likely you’ve seen his work in connection with reports on space, or in works of science fiction for the page or the screen …

McCall is Robert McCall, an important space artist who recently died. His website is here and Bruggeman provides other links to McCall’s works.

This bit has nothing to do with anything other than I’ve always thought thought Emma Peel was Steed’s (The Avengers) best partner and found this tribute (clips of Diana Rigg as Peel set to The Kinks) on Raincoaster here. (Scroll down the page.)

UK strategy for investing in nanotech; new insight into titanium dioxide toxicology; creative nonfiction writing for scientists

It sounds promising. UK strategy for nanotechnology business investment is the title of a news item on Nanowerk which outlines the UK Technology Board’s investment strategy. From the news item,

The UK’s Technology Strategy Board has developed a nanotechnology strategy document (pdf download) that sets out the processes the Technology Strategy Board will use to determine how it will invest in the nanotechnology space in a way that helps UK businesses to succeed on a global scale. It is based on the fundamental premise that the technologies likely to see the most success will be those that result in developing materials and devices with new functionality that address markets driven by society’s greatest challenges.

The item goes on to outline the specific areas (environment/energy; aging population, media) where investments will be made but gives no details about the amount of funding available or the source for funds. Curious, I checked out the UK Technology’s Board’s site.  No details to be found on the About Us pages although there is a link to a  Dept. of Business Innovation and Skills (presumably a government department). My guess is that these are government funds and the board has decided to be discreet about the connection. I’m not ready to draw any conclusions; I’m just noticing.

I’ve been following  (somewhat lazily) discussions around titanium dioxide particles (widely used in sunscreens) and their possible toxicology. Nanoparticles used in common household goods caused genetic damage in mice on Nanowerk sheds some new light on the subject. From the news item,

In the past, these TiO2 [titanium dioxide] nanoparticles have been considered non-toxic in that they do not incite a chemical reaction. Instead, it is surface interactions that the nanoparticles have within their environment- in this case inside a mouse – that is causing the genetic damage, [Robert] Schiestl [professor of pathology, radiation oncology and environmental health sciences at Jonsson Cancer Center at the University of California, Los Angeles] said. They wander throughout the body causing oxidative stress, which can lead to cell death. It is a novel mechanism of toxicity, a physicochemical reaction, these particles cause in comparison to regular chemical toxins, which are the usual subjects of toxicological research, Schiestl said. “The novel principle is that titanium by itself is chemically inert. However, when the particles become progressively smaller, their surface, in turn, becomes progressively bigger and in the interaction of this surface with the environment oxidative stress is induced,” he said.

I have posted about titanium dioxide in the past, this posting is the most relevant to this discussion as it contains a reference to some work by Japanese researchers who demonstrated that titanium dioxide cause genetic damage in mice. Presumably building on this work, the researchers at Jonsson Cancer Center have determined a possible mechanism for how the damage is caused.

This is the first time I’ve seen a study that doesn’t ‘shrink’ standard toxicology to the nanoscale. For example, “carbon nanotubes look like asbestos fibres so we should test to find out if they have the same effect on lungs. ” This makes sense and it should be done. At the same time, I’m glad to see that researchers are taking into account the fact that materials at the nanoscale behave in novel ways leading to novel forms of toxicology.

I was intrigued to read Dr. Kristen Kulinowki’s opinion piece in  Azonano’s Nanotechnology Thought Leaders Series … insights from the world’s leading players.  Her piece titled, Temptation, Temptation, Temptation: Why Easy Answers About Nanomaterial Risk are Probably Wrong, provided some valuable insights for me about the work that has been done to collect information about nanomaterials and their potentials risks while citing some useful resources.

Before you go to read the article there are a few things you might want to keep in mind. There are a couple themes that are not followed through so the piece jumps around, the tone is problematic, and the academic style is sometimes inserted into a more chatty blog style. All of which made reading the opinion piece a little more work for me.

I got the impression that Kulinowski did not put much effort into writing this piece, i.e. she tossed it off. The chatty, casual style (a creative writing technique) takes a lot more effort and practice and is much more difficult to pull off  than most people realize, especially when you’re writing nonfiction. (Yes, some people are naturals but even they need to work at it if they plan to continue long term.)