1. A location for Innovation

    June 11, 2010 by AURP Canada

    By Jane Muller
    June 11, 2010
    dailywebtv.com

    The first multi-tenant building on the 35-acre McMaster Innovation Park (MIP) was officially opened in October 2009 with 80 per cent occupancy. Over the next 15 years, MIP will include other buildings that will house partners in forming a new direction for Hamilton.

    “The idea is to create an environment in which innovation can take place – based primarily on research coming out of the university (McMaster) but innovation that would lead to commercialization,” explains Zach Douglas, president of McMaster Innovation Park.

    The vision for the park is an internationally-recognized focal point that will have a “significant impact of the region”. Douglas envisions Masters’ students working on advanced technology-related jobs for example.

    It’s not enough to come up with ideas and concepts, they need to be brought to the next level as viable products that will result in direct employment on site and indirectly in the community where production can take place. Douglas predicts a broad range of jobs emanating from MIP tenants.

    MIP offers support services to the companies already occupying the office and laboratory space. The facility itself gives physical support in the form of a board room conference rooms and a 5,000 square- foot conference facility.

    “So far we have attracted quite an eclectic mix actually, some private sector tenants, public sector tenants, research initiatives coming out of the university, some people that are here to support the activities of our strategic tenants,” says Douglas.

    In a supportive role is Trivaris Ltd., a company that helps commercialize research ideas and provides financial resources, space and technology to new businesses. Another is an intellectual properties lawyer.

    At the time of the official opening, significant tenants also included McMaster’s Department of Family Medicine Research and Programming. Looking ahead, construction is underway for a second, 156,000-square-foot building on the site, which will house CANMET, the federal government’s Materials Technology Laboratory. It is expected that this key partner will draw researchers from around the world.

    Douglas predicts that the 120,000 square -feet of rentable space in the newly renovated building will be occupied by the end of the year. For more information and to view the plans for the site visit the MIP website at www.mcmasterinnovationpark.ca.

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  2. Funding Eureka!

    by AURP Canada

    An industry dedicated to financing inventors and monetizing their creations could transform the world.

    By Nathan Myhrvold
    Harvard Business Review, March 2010, P. 41- 50
    hbr.org

    My company, Intellectual Ventures, is misunderstood. We have been reviled as a patent troll – a renegade outfit that buys up patents then uses them to hold up innocent companies. What we’re really trying to do it create a capital market that supports start-ups and the private equity market that revitalizes inefficient companies. Our goals is to make applied research profitable activity that attracts vastly more private investment that it does today so that the number of inventions generated soars.

    “That’s preposterous,” some might say. “Inventing can’t be a business in its own right. It’s too risky, and inventions are too intangible to generate sufficient profits by themselves. Inventing and inventions can’t be separated from the companies that turn the ideas into actual products. And the notion of creating a liquid market for inventions is absurd.”

    I couldn’t disagree more. in the 1970s, people said the same thing about another type of intangible intellectual property: software. Back then, everyone in the computer industry believed that software was valuable only because it helped to sell mainframes or minicomputers and that you could never sell software by itself. As a result, software engineers worked for computer manufacturers or for companies that used computers. Very few independent software vendors existed, and those that did were barely profitable. As a business, software was hopeless. Everyone said so.

    Everyone was wrong, of course. Over the next three decades, software became one of the most profitable businesses in history. I know because, as a manager and ultimately the chief technology officer at Microsoft, I had a ringside seat to this amazing success story.

    Software owes its ascent largely to two crucial developments. First, software vendors gradually persuaded software users – through both education and lawsuits – to respect intellectual property rights and pay for something that they might otherwise simply copy. Then vendors liberated software from hardware by overcoming system incompatibilities and developing solutions that could work on many different brands of computer. When the PC revolution hit, software became an industry in its own right.

    I believe that invention is set to become the next software: a high-value asset that will serve as the foundation for new business models, liquid markets, and investment strategies. The surprising success Intellectual Ventures has had over the past 10 years convinces me that, like software, the business of invention would function better if it were separated from manufacturing and developed on its own by a strong capital market that funded and monetized inventions.

    The lessons we have learned so far suggest that a full-fledged invention capital system could solve many of the problems that have long plagued both inventors and the consumers of inventions: inadequate funding for applied research, and inefficient market for connecting companies with the inventions they need and for monetizing inventions, a balkanization for the inventors and inventions required to tackle big problems, and enforcement and arbitration system that simultaneously permits too much infringement and relies too heavily on lawsuits to determine price.

    My company – the largest of a new breed of invention capital firms – is leading the drive to solve these problems. It is still early days. But I’m convinced that if we and firms like us succeed, the invention capital system will turbocharge technological progress, create many more businesses, and change the world for the better.

    Charity is Not Enough

    America took a global lead in invention during the nineteenth century, when Eli Whitney, Robert Fulton, Samuel Morse, Nicola Tesla, Alexander Graham Bell, Thomas Edison and others helped transform the United States from an agrarian economy into an industrial powerhouse. That tradition has continued to this day. Americans generally recognized inventiveness as one of their nation’s competitive strengths. They understand that invention is a powerful invention of economic growth. Yet it gets amazingly little direct attention or funding from product makers, universities or the government.

    Outside the pharmaceutical and biotech industries, few companies consider inventing, or producing patented intellectual property, to be their primary mission. Corporate R&D has become mostly “D”: the development of products. Hardly any large corporations have “inventing” as a job category – even though it requires a different mind-set, has different goals, and must be managed differently than research and development positions.

    At universities and government agencies that fund academic research, patents typically don’t enter into tenure or grant decisions. Published research is rewarded, but invention usually is not. Indeed, these organizations primarily fund blue-sky programs aimed at expanding scientific knowledge. That’s a worthy thing to do. But it’s quite different from invention, which applies scientific knowledge in novel ways to create something useful, something that has economic value.

    Invention’s stepchild status is reflected in the way it’s typically funded, which I call the charity model. The entities that provide the vast majority of research funding to U.S. universities – mostly government agencies like the National Science Foundation, the National Institutes of Health, and the Department of Defense, along with private donors – do so without any expectation of financial return. In otherwise, research grants are gifts, not investments.

    The shrinking handful of corporations that still fund long-range research have the same mind-set. Their leaders rarely run research as a business in its own right; instead, they fund it as an act of faith that the ideas produced will somehow create value as they percolate through the product organization.

    The result of the charity mind-set is a dearth of private sector investment and an overdependence on government funding. This is undesirable on many levels. It allows federal priorities, rather than the potential market for new inventions, to determine how much funding particular areas receive. Fore example, the share of federal funding devoted to basic health and bioscience has steadily grown since the 1950s to about half of the total, where are the share allocated to areas that produce a greater proportion of fruitful inventions – such as the physical and information sciences – has shrunk.

    The second problem is that most federal funding goes to traditional research programs focused on individual disciplines. Innovative cross-disciplinary teams, however, are much better equipped to come up with solutions to the increasingly complex challenges the world faces.

    A final problem is that government funding isn’t dependable. Federal spending on basic and applied research, adjusted for inflation, has declined by 14% from 2003 to 2007, according to the National Science Foundation. The Obama administration has pledged to reverse this slide, but a skyrocketing federal budget deficit will make that a hard promise to keep.

    Rather than relying on the charity model and its overdependence of government-sponsored research, we should be looking for ways to harness the tremendous financial power of the private sector to fund invention. Consider this: Inflation adjusted federal spending on academic research rose by 60% from 1983 to 2007. Meanwhile, investment in the business sector by the U.S. venture capital and private equity industries soared by 1,140% and 1,940%, respectively. The total $1.6 trillion (in 2008 dollars) invested by venture capital and private equity firms in this period is three times the $537 billion that the U.S. government spend on academic research.

    The only way invention can attract comparable private-sector investment is to treat inventing like a for-profit business. To do that properly, we need an efficient capital market run by a cadre of professionals. I’m absolutely certain that if we establish such a market, investors will flock to it.

    I don’t expect this to be easy. There are some formidable obstacles: the high risks that inventing entails, a disregard for intellectual property rights that prevails in certain industries and countries, a need for much more professional expertise in the merging invention capital industry, and the disorganized state of the inventing world. We also face a chicken-and-egg quandary: You have to be able to efficiently and profitably monetize inventions in order to attract investors, but to organize such a market; you need the liquidity that only investors can provide. These obstacles can and are being overcome. Here’s how.

    How to Manage the Risks

    Undeniably, a huge challenge in attracting investors is the highly risky nature of inventions. The unavoidable fact is that most inventions fail: Some simply don’t work. Others work but are too costly. Still others are cheap and work brilliantly, but lose out to even better inventions. Statistics on the true risk of investing in inventions are sketchy, but the government reports suggest that just 1% to 3% of patents generate a profit for the investors. Corporations have s similar success rate.

    Fortunately, other industries have found ways to manage high risk. Insurance companies dilute risk by aggregating policies into large portfolios. They also distribute risk by spreading it around as well developed reinsurance market. Pension funds, mutual funds, and other investment pools assemble large collections of assets to which many investors subscribe.

    We can apply these approaches to manage the risk inherent in new inventions. A single invention is typically very risky. However, if you build (as my company has) a diversified portfolio of tens of thousands of inventions that span a wide range of technologies, the aggregate risk becomes quite manageable.

    It takes a lot of money, of course, to build a large portfolio of inventions – but not an unprecedented amount. Venture capital and private equity firms routinely raise hundreds of millions or even billions of dollars for a single investment fund. Similar-sized funds dedicated to inventions would provide the scale necessary to hedge their risk.

    Such large scale also provides another important ingredient: upside potential. Some inventions will be successful – and a few will be blockbusters. Even if only one patent in a portfolio of, say, 2,000 patents is really successful, it could generate $1 billion in revenues, returning many times the cost of the entire portfolio.

    Plenty of real-world examples prove the principle. A patent portfolio is very respectable, but not enormous, size forms the core asset of Qualcomm, a public company now worth more than $70 billion. Earnings of the consortium MPEG-LA, which owns patents on technology used in DVD players and digital set-top boxes, are reported to exceed $1 billion a year. IBM is also said to garner more than $1 billion a year from licensing its inventions. Similar programs at Hewlett-Packard, Lucent, Texas Instruments, and a few other large technology companies each reportedly generate net annual revenues of more than $100 million.

    There’s an obvious difference between investing in invention capital funds and investing in venture capital and private equity funds: The time horizon to make money from inventions is much longer. The typical VC or PE fund lasts 10 years and often generates handsome returns for its investors within five. Invention capital funds require much greater investor patience. Once Intellectual Ventures creates a fund, for instance, we add patents to its portfolio during its first five years and will continue to license then for up to 25 years, until all have expired.

    Are there investors with that kind of patience? In our experience, the answer is yes. We see two distinct types of investors among the several dozen who have committed more than $5 billion in capital to the four funds and one start-up we have created since 2000. The first kind see invention capital as simply another financial investment alternative, similar to derivates, hedge funds, private equity, and real estate. These traditional investors include pension funds, university and foundation endowments and wealthy families and individuals.

    The second kind are what we call strategic investors, because they seek more than just a direct financial return. The members of this group – which includes Fortune 500 companies and market leaders in high technology, telecommunications, financial services, consumer electronics, and e-commerce – are attracted by the prospect of tapping into Intellectual Ventures’ network of invention talent. They’re seeking help in coming up with game-changing ideas, or they want early licensees to the patents in our portfolios. Our practice of aggregating patents in specific areas provides strategic investors with efficient one-stop shopping.

    Giving Patents the Respect They Deserve

    The main barrier to the emergency of a bona fide market for inventions and a strong, vibrant invention capital industry, however, is not financial. It is cultural.

    In affluent nations, product companies too often see inventors and other patent holders as adversaries, and vice versa. By product companies should see investors as wellsprings of innovation and should trust them – and invention capitalists – enough to tell them what new technology the companies actually need. Inventors, for their part, should manufactures and invention capitalists as customers and should trust them to pay fair prices for the ideas they use. We aspire to be a trustworthy matchmaker that helps make this happen.

    The cultural impediments are somewhat different in emerging economies such as the rising technology centers of Asia. There, rights to patented inventions and other intangible property are too often simply ignored. Compared with their peers in the U.S., few prominent universities is Asia file patents, and those that do rarely complain when manufacturers in their own country appropriate their intellectual creations without compensation. We home to demonstrate to leaders in these regions that greater attention to intellectual property rights can generate immediate and substantial economic rewards, while simultaneously producing valuable new technologies.

    We have no illusions that it will be achieve these twin cultural shifts. Even in the U.S., a disregard for patents is deeply ingrained in parts of certain industries. While respecting intellectual property rights is a cornerstone of some high-tech industries – branded pharmaceuticals, biotech, medical devices, and wireless, for instance – that’s sadly not the case in others, most notably software, computing and other internet-related sectors. These “winner takes most” industries impose extreme competitive pressure on young firms to increase their market share by any means necessary, even copying the ideas of others. to this day, some software and internet companies take the very narrow view that “saving” money on patent licenses (by infringing) is good, because it frees capital for expansion.

    Not helping matters, some large tech-hardware companies treat patents as a defensive weapon to be used mainly in retaliation against any competitors that sue them for infringement. This strategy of mutually assured destruction usually resolves itself in cross-licensing or a stalemate, but the effect is not benign: It breeds distain for investors. And because universities and individual inventors don’t have the power to play this game, some companies just flat out stiff them. All in all, such behavior tends to dissuade inventors from working in these areas and to impoverish our system of innovation.

    When I’m attacked as a patent troll, it’s usually by people from these special interest groups, who don’t feel they have to respect others’ patents. At a business conference recently, the CEO of a big technology company whom I know pretty well cam up to me and said, “So I guess you must be planning on suing me.”

    I responded, “Well, no. But why do you ask? Are you planning on cheating me?”

    He laughed and said, “Yeah, that’s probably right.”

    The funny thing is, we have never sued anybody to defend our intellectual property rights. While I don’t rule it out, I see it as a highly undesirable recourse for several reasons: It’s expensive, it’s unpredictable, and it takes years.

    There are always organizations and people who feel threatened by change and loudly oppose it with fear mongering and false predictions of doom. We’ve seen it before. Once upon a time venture capitalists were called “vulture capitalists” for taking companies away from founding entrepreneurs. Early private equity firms were tarred as “barbarians” and “predators” for threatening the cozy world of inefficient corporate management. Over time both groups came to be seen as positive forces in the economy – and so will invention capitalists.

    There are signs that this is happening:

    • The number of court battles over patent infringement in the U.S. peaked in 2004 and has since declined. As invention capital firms make it easier for inventors to get paid for their inventions and for companies to reduce their litigation risks and acquire rights to broad bundles of useful technology, lawsuits should decline further.
    • IT companies, which historically haven’t bothered to patent many of their inventions, are filing many more patent applications each year. (Microsoft is now one of the top patent filers in the world.)
    • Technology companies are starting to come to us for inventions that could help them solve pressing problems.

    For these reasons, I’m not concerned that the so-called patent-reform movement in the U.S. will seriously hinder our progress. The effort, led by a lobbying group for large tech companies, hopes to weaken patent rights because it sees patents primarily as a source of liability. But the otherwise – made up of companies like General Electric, Procter & Gamble, 3M, DuPont, and Caterpillar, which rely on patents as fundamental business assets – are pushing back strongly. In general, the courts have protected intellectual property rights, and Congress is likely to act accordingly, making some needed reforms but not weakening the patent system overall.

    Building a Professional Industry

    Another obstacle to creating a robust capital market for inventions is one that all complex systems face in their early days: the need to achieve a critical mass of key players. The current market for inventions is illiquid, opaque, and dysfunctional. Few of the existing players – from technology development companies, brokers, and agents, to investment funds, auction houses, and exchanges that specialize in intellectual property – operate at large scale, and frankly, the quality of their work varies enormously.

    As we and others supply a critical mass of expertise, more liquidity, greater pricing visibility, and a better set of options for investors and patent users alike, I believe the market will start functioning well and will then grow rapidly. Indeed, our purchases of patents have already fueled a noticeable increase in the number of patent brokers in the market. In time, new companies will spring up to fill in the many niches of the invention ecosystem. We will see a more intricate and efficient invention industry populated by professional patent finders and packagers, appraisers and underwriters, financiers and sales agents – and other roles not yet conceived.

    For our part, Intellectual Ventures aims to be the first full-service invention capital firm. Like venture capital and private equity firms, we raise money from investors, create assets ourselves (by sponsoring investors), and buy assets from others who would have trouble monetizing them effectively on their own. We actively manage those assets to maximize their value and then provide exit strategies to realize that value.

    Our 650 employees include scientists, engineers, patent analysts and attorneys, finance experts, and licensing sales agents. To raise capital, we have an investor relations team. Our topic generation teams continually study trends in technology development and new discoveries in science to try to identify the best opportunities for investment. Their conclusions guide three distinct groups. The first is our in-house invention effort, which involves 30 staff inventors (myself included) and a roster of more than 100 extraordinary consulting inventors who work part-time for us. The second is our external inventor network of more than 1,000 investors in seven countries. The third is our acquisitions group, which buys existing patents or stakes in them.

    Creating inventions from scratch. I co-founded Intellectual Ventures with Edward Jung, a colleague at Microsoft who is now our Chief Technology Officer. As inventors ourselves, we were extremely interested in finding more efficient ways to create high-quality inventions. We wanted to build a company similar to Thomas Edison’s highly productive lab – Edison invented the invention capital model of raising money by promising investors a certain number of patents per year – but with one big difference. Edison built his lab around one person: himself. Many of the great geniuses of the nineteenth century worked at Edison Labs, but not for very long. We’re trying to build a scalable invention company that is not dependent on any one person. The reason is not just that we want our company to produce inventions in many more inventions in many more areas than Edison Labs did. It’s also that we believe today’s complex problems can be solved by getting brilliant people from different disciplines together to tackle problems in a systemic fashion.

    Accordingly, we’ve hired scientists and engineers who already had impressive track records for inventiveness in a wide range of technologies. We’ve also signed up world-class researchers in academia and industry as consulting inventors. This gives us the ability to make strong contributions in about 50 areas of technology, from medical devices to software to consumer electronics to nuclear engineering.

    A typical team might consist of 10 inventors – for instance, some physicists, a surgeon, a chemist, some programmers, an expert in digital imaging, and engineers. Needless to say, such people don’t ordinarily work together. We hold invention sessions in which we focus teams on solving specific problems (such as reducing infection rates in hospitals) or ask them to brainstorm about how new scientific discoveries (such as metamaterials with electromagnetic properties not found in nature) might be applied to solve real-world problems.

    This cross-disciplinary approach is remarkably effective at generating creative solutions to tough problems. Lately, for example, we have been working on new ways to combat malaria, a disease that every year sickens hundreds of millions of people and kills nearly one million children. Our invention sessions – involving biologists, computer scientists, physicists, epidemiologists, and other experts – have yielded numerous promising approaches. One is a pest-control system that was inspired by military technology for shooting down ballistic missiles. (Some of our inventors were scientific leaders in the “Star Wars” program.) Our system uses inexpensive, low-power computers, cameras and lasers to identify female mosquitoes (the males don’t carry the disease), track them in flight, and blast them with a crippling pulse of light. It may sound far-fetched at first, but built a prototype in our lab, and it works. A similar approach could be used to protect organic crops – or even people at a backyard barbecues – from pests.

    One series of invention sessions we held brought highly respected heart, chest, bone, and brain surgeons together with many of our staff inventors. We asked the doctors to draft “wouldn’t it be great if…,” or WIBGI, technology wish lists, which generated exceptionally productive discussions. We came up with new designs for surgical tools that are self-sterilizing or that can snake their way around delicate areas of the brain rather than passing through them. We invented novel ways to make implantable devices that can intelligently dispense medicines where and when most needed in the body; smart shunts for draining excess fluid, which can signal when they are clogged or can actually clean themselves; bone screws that can be adjusted remotely, using a wireless power source; and tiny implants that can automatically monitor the blood glucose levels of diabetics. Not bad for a couple of weeks’ work.

    Another invention session resulted in a revolutionary kind of nuclear reactor that all but eliminates the need to enrich titanium. Because enrichment technology can also be used to make weapons, our designs could vastly reduce the risk of nuclear proliferation.

    We produce thousands of inventions a year this way. Each idea gets vetted and prioritized, and then we file for patents on the best one-fifth to one-third of them. In 2009, we applied for about 450 patents for in-house inventions, placing among the top 50 filers in the world – ahead of far larger companies such as Boeing, Johnson & Johnson, 3M, Mitsubishi, and Toyota.

    Cultivating an Inventor Network. In parallel to our in-house invention process, we have within the past two years invested roughly $100 million in our external network of inventors. The inventors are for the most part academics, and our deals are usually with their institutions. For example, last year the Indian Institute of Technology in Mumbai selected our company to help it commercialize inventions produced by its faculty and staff.

    Inventors in the network receive what we call “requests for invention” that outline challenging technical needs and point to fruitful avenues for them to pursue. They then submit ideas for evaluation. Our firm issues cash payments for the post promising submissions and also files patents. The inventors and their employers get a share of any royalties that materialize. By late 2009 our network had produced some 4,000 invention ideas and more than 1,000 patent applications.

    Investing in Existing Inventions. Even as robust as our network of talented inventors is, it could never supply enough inventions for our funds. So we have purchased most of the 30,000 plus patents in our portfolios. In doing this we strive to expand the market by offering investors new or better options for profiting from their work. our acquisitions team of business strategists studies the patent holdings of our existing and potential customers, identifies their technological needs, and does its best to assemble portfolios that fill those needs. Appraisers and buyers evaluate inventions on the market and decide whether and how much to bid for them.

    One significant source of patents is the archetypal solo inventor. Many such inventors have no interest in writing a business plan or building a company; they prefer to just hand off their invention to a licensee and move on to the next great idea. Investment firms like ours spare them the work of tracking down and negotiating with lots of potential licensees separately, and we can almost always give them a fair deal. We’ve paid about $315 million so far to individual inventors, making us one of their largest sources of new capital.

    Universities and non-profit research organizations are a second source of inventions for us. a surprisingly large among of IP produced in academia lies fallow because the institutions lack the resources to fully develop its business potential. Smaller academic institutions in the U.S. and many universities outside the U.S. are often unable to fund a technology transfer office. The institutions that do have such operations peddle only a small fractions of their inventions – typically those that were created entirely within their walls and can be easily licensed or sold. That’s because when scientists from different institutions collaborate to produce an idea (as is often the case), the ownership of the IP is complex. Schools balk at investing the resources required to structure a deal. Or they may not feel up to the task of monetizing the inventions when there is an array of potential customers, or when the customers are likely to disregard their IP rights. An invention capital firm can afford to take on this hard work because it amortizes the fixed costs of large licensing teams over a lot of deals. So far our firm has provided analysis, patenting and licensing expertise, and cash to more than 100 institutions.

    Occasionally we take advantage of more serendipitous sources of high-quality patents, such as distressed or bankrupt companies that put their IP on the market, either at auction or directly. In some cases, they are big companies (Enron, for example). But most are small start-ups that failed for reasons that had nothing to do with the quality of their ideas. By providing a ready market for dissolving start-ups and ideas that were ahead of their time, we adjust money back into the venture capital system so that it can be used to fund new enterprises. Deals of this kind can also rescue good inventions that might otherwise be lost.

    For instance, we recently looked at five medical device start-ups that worked in the same space but are all now in various stages of collapse. Their technology is fine; the current economy will simply not support so many competitors in this area, and venture capitalists are reluctant to give them more funding. We considered a deal to combine and restructure their intellectual property into a larger package that could them be sold to a stronger start-up or to a big company like GE, Baxter or Johnson & Johnson.

    Finally, a good number of patents we buy come from large, healthy companies: We have done deals with more than 100 Fortune 500 companies and their international equivalents.

    For many large companies, one of the frustrating things about inventing is that it’s unpredictable and can’t be controlled. When you set out to tackle one problem, you often come up with something totally unexpected that has nothing to do with your business. Most companies have difficulty exploiting ideas that like outside their core business.

    A functioning capital market would make it easy for companies to monetize such inventions. If invention capital companies are successful in creating such a market, 10 to 20 years from now it will be commonplace for CFOs to ask their R&D people, “Are we spending enough on inventions?” Instead of being the black hole it is today, research will be a profitable business and a lot more money will be spent on it. In fact, that’s one of my goals: to get bigger R&D budgets for everybody.

    Turning Inventions into Money

    Other than a handful of technology areas – such as compounds that have potential as drugs – buying, selling, and licensing patents remain difficult. Transaction costs are high. The vast majority of transactions occur behind closed doors, so reliable pricing information to help buyers and sellers gauge the worth of any particular invention is hard to come by.

    To create an efficient market that extracts the fully value of inventions, market makers must be amply capitalized. And by amply, I mean a lot more than the $5 billion we’ve raised to date. But to get investors to provide that kind of money, viable exit strategies – in other words, options for monetizing patents – must be routinely available. Here are a couple of approaches that we’re pursuing right now that is a possibility down the road.

    Package Patents. One way to extract the full value of patents is to aggregate them intelligently so that the whole worth is more than the sum of its parts. We have assembled large portfolios of patents in wireless technology, memory microchips, and other areas. Each portfolio typically contains some inventions that are already being sued, some that are highly likely to be used in the future, and some that are much more speculative.

    Any one of the patents would have some value, but as a package the value is much more compelling, because customers save the time and expense of tracking down all the patent holders and negotiating separate deals. Customers can easily get all the patents they need to roll out an innovative product faster and at the same time reduce the risk that they’ll miss a necessary license and get blindsided by an infringement suit.

    Most of our large customers understand this approach and want to license our patents in bundles of 1,000 or more. Many also subscribe to a portfolio so they will automatically get licensees as inventions are added to it. Our licensing activity has so far earned more than $1 billion.

    That said, constructing such portfolios is far from easy. One of the biggest challenges we face is discerning which kinds of inventions are most valuable to our strategic investors and other customers. Companies are not used to talking about such needs with others. And sometimes they just haven’t thought that far ahead.

    Launch a Start-up. Some ideas are so revolutionary that not even venture capital firms will take a chance on them. And occasionally an idea is so good it would be folly to let someone commercialize it. In such exceptional cases, an invention firm might launch a start-up.

    If an invention is powerful but the market is crowded with players, a joint venture with one of the giants may offer the surest path to commercialization. Partnerships are attractive when developing an invention requires not just substantial capital but industry expertise. For this reason, we’re exploring partnerships with multinational energy companies to commercialize our new kind of nuclear reactor.

    Create Patent-backed Securities. Successful patent portfolios can throw off a lot of cash, so they could be the financial underpinnings of a new class of investment assets: patent-based securities. Indeed, shares in companies like Qualcomm essentially function this way already. Patent-backed securities would simply create a more direct link between patent performance and security returns.

    One can easily imagine that once trading in securities backed by a portfolio of patents began, people would speculate on individual patents that showed unusual potential. Companies with a stake in related technologies – for example, those trying to commercialize them – could use such securities to hedge their bets. This possibly will remain only that, however, until there are ways to value such securities – something that we’re working on.

    Not so very long ago, professional venture capitalists did not exist. Entrepreneurs had to borrow from their rich uncles or college friends. Then in 194, Georges Doriot, an immigrant from France who rose to become a brigadier general in the U.S. Army and a Harvard Business School professor, founded American Research and Development Corporation (ARDC) as a vehicle to create and invest in innovative new companies. Doriot switched the primary funding mechanism from debt to equity. Any interested investor could put his money into one of ARDC’s funds, and any aspiring entrepreneur could approach ARDC with a business plan. Doriot’s scalable model for raising and investing venture capital gave entrepreneurs a standard, predictable way to raise money. Now it’s time to do the same for inventors.

    Invention is too important to leave it to charity, and I don’t see why we have to. Kleiner Perkins, Benchmark, Sequoia, and other top venture capital firms don’t have to go to Congress and beg for a little bit more money for the small company sector. Research in areas like astronomy and fundamental physics that is very long range and has diffuse benefits for society should be funded by the government. But funding the invention of useful technology that can make money in a relatively short period of time – say, 10 years – shouldn’t be the government’s job. It’s the private sector’s job. And the U.S., with the combination of research talent, openness to financial innovation, and a culture of inventiveness, is perfectly position to be the nexus of this new industry.

    What will it take for the invention capital market to come into its own? A group of companies – not just Intellectual Ventures – has to prove the concept. We have to get more people to accept our inventions. We have to vastly expand the number of companies that license our patents. And two or three invention funds need to produce great returns.

    A functioning investment capital market and industry can enable inventors around the globe to create hundreds of thousands more inventions each year than are being made today. Sure, some of those inventions will be silly or useless. But what matters is the top 1% that will make our lives vastly richer and better. Create an invention capital market, nurture an invention capital industry, and the resulting virtuous cycle will surely transform the world.

    Idea in Brief 

    The Big Idea: 

    The Argument: 

    A Better Approach: 

    The world needs a capital market for invention like the venture capital market for start-ups and the private equity market for revitalizing inefficient companies 

    Inventing – producing useful, patent-worthy ideas – is a dysfunctional cash-starved activity that’s overly dependent on government largesse because it is not organized as a for-profit industry

    Create a market where patents can be efficiently bought, sold or licensed through investment funds that manage high risks by amassing huge portfolios of patents and packaging them to maximize their value. Professional invention capitalists would not only operate on such funds but also provide services to help companies, universities, and solo inventors to develop and monetize their ideas.

     

    What an Invention Capital Market Would Do For: 

    Inventors 

    Academic Institutions 

    Product Manufacturers’ 

    Society at Large 

    • Provide funding
    • Identify fertile topics for invention
    • Assess the market for specific inventions
    • Establish market rates for inventions
    • Assess the market for specific inventions
    • Provide reliable compensation
    • Help produce strong patents
    • Market and license inventions
    • Bundle inventions from multiple sources to increase their value
    • Provide funding
    • Match areas of scientific discovery with industry needs
    • Structure deals when multiple organizations have a stake in a patent
    • Help monetize inventions
    • Enforce patent rights
    • Provide one-stop shopping for patents
    • Bring together outside inventors to meet company-specific needs
    • Lower the risk of lawsuits by providing access to patents
    • Serve as a ready market for patents a company wants to license or sell
    • Accelerate progress in technology
    • Reduce dependence on government funding for research
    • Foster respect for intellectual property rights
    • Efficiently recycle good ideas of failed ventures
    • Increase competition and consumer choice
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  3. Big Job Growth in Province’s Medical Field

    June 8, 2010 by AURP Canada

    Saskatoon-based research firm looking for more people

    Reported by Brendan Wagner
    Posted June 6, 2010

    We found out on Friday that Saskatchewan continues to have the lowest unemployment rate in the country.

    Growing companies like Phenomenome Discoveries in Saskatoon are helping to create those jobs.

    The head of the medical research firm, John Hyshka, says the province is on the cutting edge.

    “The people of Saskatchewan should be excited to know that you have one of the strongest life science (communities), and even on the IT side, a strong industrial community that’s growing, but we’re going to need more people,” he says.

    Hyshka says universities in this province are doing a good job of educating researchers. But as Phenomenome grows, the company is looking further abroad to recruit people to Saskatoon. It currently employs researchers from China, India, Ghana, and many other countries around the globe.

    Dr. Paul Wood is one of the people recruited from afar. He was raised in Ontario and last worked in Chicago.

    “My kids are in the high school system here and love it very much, and are thinking of going to the U of S,” Wood says, “I think the education system within the province in very strong. If face, a number of my labs in Canada and the U.S., I’ve had doctoral students from Saskatchewan and they’ve all been excellent.”

    Phenomenome Discoveries is located at Innovation Place on the campus of the University of Saskatchewan.

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  4. Prof. Steven Hawking to be Officially Welcomed June 20

    by AURP Canada

    Waterloo, Ontario, Canada, June 4, 2010 - Professor Stephen Hawking is a Distinguished Research Chair at Canada’s Perimeter Institute and, on June 20, 2010, he will be officially welcomed to Canada by the Honourable Tony Clement, Industry Canada Minister, and to the province by the Honourable Dalton McGuinty, Premier of Ontario. The greetings will be followed with a special presentation by Prof. Hawking. The activities will be broadcast on TVO on Sunday, June 20, 2010, at 8:00 pm EDT.

    Dr. Neil Turok, PI Director, said, “We are very happy to have Stephen here doing science with other researchers at Perimeter Institute. On June 20, he will take time out to be welcomed by our many public and private partners, including the governments of Ontario and Canada, and to give a special broadcast lecture. Stephen is an exceptional communicator, and we are delighted to be able to share his talk on television. We are also looking forward to his impressions of the ‘Stephen Hawking Centre at Perimeter Institute’ now under construction.”

    This past October, when the expansion to PI’s facility was named in his honour, Professor Hawking said, “Our field of theoretical physics has been the most successful and cost-effective in all of science. Where would we be today without Newton, Maxwell and Einstein? Many great challenges lie ahead. Where this new understanding will lead, is impossible to say for sure. What we can say with confidence is that expanding the perimeter of our knowledge will be the key to our future.”

    About Professor Hawking

    Prof. Stephen Hawking has made several extraordinary contributions to fundamental theoretical physics, especially in establishing the classical and quantum properties of black holes and in building quantum gravitational theories of the origin of the universe and structures within it. His most celebrated work was the theoretical prediction that black holes should emit radiation, known as Hawking radiation. In keeping with university policy, Prof. Hawking retired as the Lucasian Professor of Mathematics at Cambridge University in 2009, the year he turned 67. He has authored many popular books, from A Brief History of Time (1988) to George’s Secret Key to the Universe (2007).

    Although this will be Prof. Hawking’s first visit to PI, he already has many connections to the Institute. Prof. Hawking holds a Distinguished Research Chair at PI, which will see him regularly visit for extended periods to conduct scientific research. He is also a Patron of the innovative Perimeter Scholars International, a Masters program that nurtures future physics researchers. Prof. Hawking was also Honorary President of the Quantum to Cosmos: Ideas for the Future Festival, celebrating the 10th anniversary of PI, and he took part in PI’s award winning documentary, The Quantum Tamers: Revealing our Weird and Wired Future.

    As Prof. Hawking will be conducting private, scientific research activities at Perimeter, the June 20 event is the only scheduled appearance and will viewable on TVO on June 20 at 8:00 pm EDT, followed by a rebroadcast of The Quantum Tamers.

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  5. CCR – Connect Grow Succeed – Innovation: Sustained Measurable value creation which generates new revenues, profits and increases the valuation of Canadian corporations.

    June 2, 2010 by dgann1

    Great Day, currently listening to Marc Castel, who leads Ontario’s Centre for Excellence focused on Successful Commercialization Ecosystems.  Marc, is highlighting key elements to create the supportive culture for building entrepreneurial environment to grow Canadian’s SME’s.

    #1 – Create a space where people are comfortable

    #2 – Create a favourable IP policy – where the professors comfortable (favourable relationship with tech transfer office)

    #3 – Create an engaged angel network

    #4 - Hard working people with strong relationships

    #5 – Create a Strong Brand & Common Vision – create buzz

    # 6 – Complete eco-system

    #7 – Foster Close encounters & strong collaboration (internal / external)

    #8 – Develop critical mass – Sector Hub with receptor capacity – Focus

    #9 – Drive Sales – Paying customers (Jobs & Investments will follow)

    #10 – Source Great Mentors and Champions (Embedded Executives in residence)

    #11 – Build Massive Community Goodwill

    #12 – Outcomes Driven – self reflective – continual improvement

    Marc, gave a great presentation and we thank him for his time and knowledge!

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  6. GreenCentre Canada Attracts more than 100 Green Chemistry research disclosures

    by IPQueens

    GreenCentre Canada attracts more than 100 Green Chemistry research disclosures

    June 1 2010

    KINGSTON, ON — GreenCentre Canada is pleased to announce that it has surpassed 100 invention disclosures from Green Chemistry researchers across Canada.

    To date, GreenCentre has attracted a total of 110 potential technologies from 25 academic research institutions across nine provinces. These technology disclosures are the first step in identifying promising new Green Chemistry innovations.

    Details here.

    GreenCentre Canada
    945 Princess Street
    Kingston, ON, K7L 3N6
    p: 613-507-4700
    f: 613-507-4710
    e: info@greencentrecanada.com
    w: www.greencentrecanada.com

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  7. AURP Canada kicks off National meeting @ University of Western Ontario Research Park

    by dgann1

    President - University of Western Ontario Over the next two days, Canada’s Parks will meet and hear from leaders in Real Estate and Financing Trends, from Randal Froebelius, MaRs, and Peter Whatmore, CBRE.   We will hold our 4th AGM and follow that meeting with a session on Innovative Infrastructure, lead by Dr. Rick Huijbregts,  Cisco, Walter Stewart, Canarie, and Dale Gann, Vancouver Island Technology Park.   We will finish our morning with our luncheon speaker, Amit Chakma, President of University of Western Ontario.

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  8. Queen Expected to visit RIM’s Waterloo Office in July

    May 27, 2010 by AURP Canada

    By Raveeena Aulakh

    When the Queen visits Canada this summer, she’ll get a guided tour of Research In Motion’s Waterloo office, spend Canada Day in Ottawa, and grace a state dinner hosted by Prime Minister Stephen Harper.

    As she may, just may, also announce the new Governor General.

    “There is a strong possibility that could happen,” said Robert Finch, chief operating officer of the Monarchist League of Canada. “That (idea) has been bounced around officially and unofficially frequently.”

    If the announcement is made while the Queen is still in Canada, it would reinforce “that she is the head of state and that she makes the appointments, not the prime minister,” he added. “It would certainly make the news and (make) her world tour stand out.”

    Michaelle Jean has served as Governor General since September 27, 2005. There has been speculation that she will be replaced by July 1, which would mark the end of an unofficial five year term in office.

    Names of possible successors have been tossed around for weeks now – the prominent ones are Mary Simon, president of the Unuit Tapiriit Kanatami, retired general John de Chastelain and wheelchair athlete Rick Hansen.

    The rumour mill has been agog even as Prime Minister Steven Harper’s office has maintained a studious silence.

    Sara MacIntyre, a press secretary for the Prime Minister’s Office, declined to comment on the timeline for the announcement of a new governor general.

    Meanwhile, the Queen’s visit to Canada will start on June 28 in Halifax. She and her husband Prince Phillip will attend at least two military events, including a review of 21 naval ships at anchor at the Bedford Basin.

    Her next stop is Ottawa where she’ll touch down on June 30. The highlight of her visit to the capital will be Canada Day celebrations on Parliament Hill marking the country’s 143rd birthday.

    The monarch will be in Manitoba on July 3 and will visit Winnipeg’s Human Rights Museum and possibly even attend a human rights-related concert that evening.

    When the Queen and Prince were in Canada last May 2005, they visited Alberta and Saskatchewan. This time, Ontario is also on their itinerary. The royal couple and their entourage land in Toronto on July 3 and will attend a service at St. James Cathedral.

    In the afternoon, they will be off to the races for the 151st running of the $1-million Queen’s Plate at Woodbine Racetrack. The Queen has already attended three runnings of the Queen’s Plate, named after her great-great grandmother Queen Victoria.

    The next day, the 84-year-old Queen, who is quite tech savvy, will visit Research In Motion’s headquarters in Waterloo where she’ll inspect the production line. The same afternoon, she’ll tour Pinewood Studios, Canada’s largest film production company.

    In the evening, she has a meeting with Liberal leader Michael Ignatieff at the Royal York Hotel before attending a state dinner hosted by the Prime Minister.

    On July 6, her last day in the country, she is slated to meet Premier Dalton McGuinty and then will be treated to a military ceremony at Queen’s Park, which will be open to the public.

    The Queen’s visit means that Waterloo Regional Police will be following security protocols associated with visiting dignitaries.

    Police chief Matt Torigian said local police will be working with other agencies on ensuring the Queen’s safety during her visit.

    “We work as a liaison and operational support for the protection and security of dignitaries and internationally protected people,” he said

    http://news.therecord.com/article.714867

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  9. Anatomy of a Waterloo Region Startup: Clearpaths Robotics

    May 26, 2010 by AURP Canada

    www.therecord.com

    May 15, 2010
    By Chuck Howitt, Record staff

    First in an occasional series tracking the trials and tribulations of an early-stage technology company in Waterloo Region

    WATERLOO — Matt Rendall could have had his pick of a number of jobs in the engineering, high-tech or advanced manufacturing fields.

    Among the first graduates of the University of Waterloo’s mechatronics engineering program, he was schooled in one of the most advanced and difficult engineering programs at a university that wrote the book on the subject in this country.

    If engineering was a sport, mechatronics would be the premier league. Students learn how to design computer-controlled robots, automation systems, tiny devices called micro-electromechanical systems, even prosthetic limbs. Grads are like first-round draft picks, signed to million-dollar deals.

    “It’s the most challenging subject matter I’ve ever been exposed to,” says Rendall.

    Better yet, Rendall was in the co-op program, alternating studies with work experience over his five years at UW. His resume was bursting with experience in the aerospace, automotive and power production fields.

    Forget begging for interviews and grovelling in front of human resources people. Companies should have been lining up at his door.

    The 26-year-old Toronto native could have started with a job paying a salary in the high five figures, maybe even six, with a full benefits program, expense account and the security of a regular paycheque for years to come.

    Instead, for the past year he’s been working 12 to 15 hours a day, seven days a week, for no pay and no benefits. Granola bars, reheated spaghetti and peanut butter and honey sandwiches fuel his body, bolstered by adrenaline and countless cups of coffee.

    He still has a place to sleep at night, but neighbours rarely see him. He’s cashed in what little he has from his retirement savings plan, maxed out his credit card several times and borrowed money from his parents.

    Social life? Not a chance. Rendall’s job is his entire life. It’s his date on Friday and Saturday nights and his escort to the school prom.

    Thanks to money earned in UW’s co-op program, he doesn’t have a huge student loan to pay off, but he’s still staring at a debt of $15,000 and the clock is ticking.

    “I’m at the point where I can’t do this much longer,” he says. “The pressure is on now more than ever to make something happen. I’ve cashed out all my reserves.”

    Rendall is chief executive officer of Clearpath Robotics, a firm he launched last year with three other mechatronics engineering grads from UW. The company makes robots, also known as unmanned vehicle systems, for universities, industry and governments.

    It was around 2005, while in his second year at UW, that Rendall caught “the robotics bug.” A classmate was looking for help to enter a robotics competition. Rendall signed on.

    They took a small, remote-control race car, gutted it, and installed a micro-controller, cameras and sensors so that the car could guide itself around a race course based on the software they had written for it. It took home the trophy over seven other entries.

    The bug that invaded Rendall morphed into a full-fledged virus. He joined the UW robotics team. The team built everything from small miniature tanks that could navigate obstacle courses to large 450-kilogarm all-terrain vehicles. It entered international competitions in Michigan and California.

    “It was a really exciting time for us,” says Rendall.

    While on the team, Rendall met three other mechatronics engineering students – Ryan Gariepy, Bryan Webb and Patrick Martinson. Each shared a passion for robots and devoted all their waking hours outside of class to the curious machines.

    “We thought, wouldn’t it be cool if we could do this for a living?” says Rendall.

    Dreams of running his own company had lurked in Rendall’s mind since he was a child. At 12, he was a magician-for-hire. As a teen, he ran his own clothing and landscaping businesses. At UW, he sought out smaller firms for his co-op terms so he could learn a range of skills.

    Upon graduation in 2008, he found the ideal program to further hone his skills. The Masters of Business Entrepreneurship and Technology program at UW takes technology geeks like Rendall and turns them into captains of business. Courses on marketing, accounting, raising capital, protecting intellectual property and finding customers backstop the curriculum.

    Rendall’s thesis went right to the heart of the matter. The topic was launching a robotics business. “It was a perfect fit. It was like they designed the program for me,” he says.

    A scholarship helped pay half the $30,000 tuition cost and gave him a coveted seat at the Accelerator Centre, a business incubator at UW populated by entrepreneurs like him.

    While Rendall learned how to be the next Mike Lazaridis, his three colleagues who were a year behind him, finished their undergrad degrees.

    Then came a break. Before graduating, Rendall learned of a UW professor who was looking for a robot to test water quality. Drawing from the skills they gleaned in class and robotics competitions, the four founders began working on a prototype. It looked like a small catamaran with three black boxes on top. It became their first sale. This in turn led to second sale with the University of Calgary.

    The Clearpath team initially envisioned cracking the industrial market, but the university sales gave them an idea. In most engineering courses, it’s easy to find motors for students to take apart. Not in robotics. “There really aren’t any products off the shelf,” says Rendall.

    At the same time, robotics professors were wasting a lot of time trying to make generic hardware devices for students to use.

    So Clearpath set about designing a robotic teaching tool for educators and students. The team drew on the complementary strengths of each founder. Rendall is the marketing and business development guy, Gariepy the software expert, Webb the electrical geek and Martinson the mechanical dude. A rotating cadre of co-op students rounded out the team.

    Soon they came up with their flagship product, a viable robot, tailor-made for educational purposes. UW, McMaster University and the Royal Military College inked deals to buy one.

    More recently, Clearpath has sold larger robots to the University of Toronto and York University, so master’s students have prototypes to test their research in areas such as lunar mapping and navigation.

    Despite the recent sales, Clearpath is not out of the woods financially. Almost all revenue has been poured back into the business or to pay the rent. Not long ago, the company was spread over three locations — Martinson’s house, the UW robotics lab and the UW Accelerator Centre, where most of Clearpath’s equipment was squeezed into a tiny 280-square-foot office.

    Earlier this month, the company relocated to a much larger 3,400 square-foot space in the Tannery building in downtown Kitchener.

    The move and the work involved in getting several orders out the door made for some long days. Webb was up for 52 hours straight, Martinson got eight hours sleep over four days and Rendall worked 8 a.m. to 4 a.m. Food was an afterthought.

    Rendall can’t stand the site of spaghetti anymore. Every Sunday for three months straight he made a huge batch of spaghetti at home and brought a giant Tupperware container to work. Martinson did the same with egg-salad sandwiches, then just started bringing hard-boiled eggs.

    Despite the hardships, Rendall wouldn’t trade his situation for anything.

    “If I had taken an entry-level engineering job or a business development job or a business analyst job at another company, even the best job there, I wouldn’t be learning as much as I’m learning now.”

    chowitt@therecord.com

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  10. Research Advancement Centre 2

    by AURP Canada

    UW R+T Park: Waterloo Ontario

    The University’s newest building will be open for use next week. It’s Research Advancement Centre 2, a virtual clone of the nearby RAC1, which was built in 2008. Like the original, it has three storeys and about 70,000 square feet of space. The double building is at 475 Wes Graham Way in the north campus research and technology park. The UW board of governors gave approval last spring for “phase 2″ of the project, which has been built by Cooper Construction. The $11 million cost was paid by private developers, the they’ll own the building after the university occupies it for six years, says vice-president (administration and finance) Dennis Huber. Like RAC1, it’s intended as a staging site for research activities that need space temporarily and will eventually be moving into other quarters – such as the Quantum Nano Centre, now under construction on the central campus.

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