:
I will ask members and the witnesses to take their seats, please.
I apologize. We are starting a couple of minutes late. We were delayed at the last tour we had today.
Pursuant to Standing Order 108(2), this is the 40th meeting of the Standing Committee on Industry, Science and Technology. This is the western part of the national tour we're doing with respect to our study on science and technology across Canada.
We had a very good session this morning, with some very interesting tours and discussions about science and technology policy.
We have two panels this afternoon. The first panel is running for an hour and 15 minutes. It's a very short time period, but we have to catch a flight to Saskatoon tonight.
The first panel is composed of three organizations. First of all, from the National Research Council of Canada, we have the director general, Mr. Ian Smith, with the Institute for Biodiagnostics; secondly, we have the vice-president of life sciences, Mr. Roman Szumski.
From the second organization, the University of Manitoba, from TRLabs Manitoba operations, we have the director, Len Dacombe. The third organization is the Winnipeg Regional Health Authority, and we have Mr. Harry Schulz, the chief innovation officer for the Health Sciences Centre.
Welcome to all of you, gentlemen.
We have five minutes for each organization, and then we will go to questions from members. I believe we'll be starting with Mr. Smith.
You can begin at any time, Mr. Smith.
:
Good afternoon, ladies and gentlemen. Thank you for having me here today.
[Translation]
It is a great pleasure to be with you today.
[English]
For nearly a century, NRC has excelled at putting science at work for Canada, advancing knowledge, generating technological solutions for Canadian industry, creating wealth, and improving the quality of life of Canadians and others around the world.
You have already interviewed our president, so to some extent you've heard some of this. This is just a very short introduction to NRC. NRC plays a leading role in creating Canada's future. We bring together key stakeholders based on a national and international network of research and technology partners, including universities, governments, and the private sector.
Our institute, the NRC Institute for Biodiagnostics, which we shall call NRC-IBD, was established here in 1992 as part of that network. It is a leading research centre for the development and application of tools for medical diagnosis and an integral element of the local innovation system.
Our impact on Canada extends beyond Winnipeg to satellite laboratories in Calgary and Halifax. Currently we have about 150 researchers and staff. Affiliated collaborators and students are engaged in about $11.3 million worth of research and development and in technology transfer. Since 1997 we have created seven technology spinoff companies, and I will tell you about them in a moment.
Along with our NRC partners--IRAP and the Canadian Institute for Scientific and Technical Information--we work directly with small and medium enterprises and entrepreneurs. We bring research strengths and business expertise to bear on their market-driven challenges and opportunities, and thus we enhance their competitiveness.
We have recently constructed an industrial partnership facility in Winnipeg to accommodate a greater number of entrepreneurs and early stage technology companies, providing them with access to NRC's programming and services that can significantly enhance their success.
I would like to take a few moments to tell you about our research in the area of medical devices, why it is important to NRC and to Canada overall, and how we are helping to create a competitive advantage for Canada through science and technology.
From a business entrepreneurial perspective, Canada faces an annual trade deficit for medical devices of approximately $2 billion per year. Canada is a net importer of medical imaging instruments and peripherals from major multinational corporations. Certainly these corporations will continue to play a significant role in the global medical imaging market. However, NRC-IBD's research and development in technologies and techniques has led to the creation of several very successful imaging-based medical device companies that export their products to other countries, thereby reducing the trade deficit and benefiting both patients and Canada's economy.
For example, Winnipeg-based IMRIS, an NRC spinoff company, incorporates NRC technology into interoperative MRI systems, many of which have been installed in hospitals in North America and abroad, including China and India. IMRIS has a market capitalization of $100 million and employs about 120 highly qualified people here in Winnipeg. In 2007, IMRIS created the largest initial public offering of any Canadian medical device company in the history of the Toronto Stock Exchange--$40 million.
Another of our medical device companies, Novadaq Technologies, makes a camera system that validates cardiac bypass procedures--heart bypasses. They currently employ over 75 people and have a market capitalization of nearly $100 million. In 2005, they succeeded in the third-largest Canadian medical device offering on the Toronto Stock Exchange--$25 million.
From a knowledge perspective, NRC-IBC is developing new methods to help detect, monitor, and treat disease, bringing social and economic benefits to Canada. The technologies we have developed help reduce the invasiveness of surgical procedures, improve the effectiveness of treatment and therapy, and limit the complications of surgery--factors that are central to the well-being of Canadians and others around the world.
From a people perspective, our research programs employ internationally recognized researchers. We collaborate with universities and technical colleges to train scientists and researchers each year. We increase the supply of highly qualified and globally connected science and technology graduates with experience in knowledge commercialization, thus enabling them to succeed in today's global market.
Our collaborations with hospitals in Calgary, Winnipeg, Toronto, Halifax, and other Canadian cities help translate our discoveries into clinical practice. For example, our collaboration with the Ross Tilley Burn Centre at Sunnybrook Hospital in Toronto is noteworthy. NRC-IBD is developing a device that assists surgeons in determining the depth of a burn. By doing so, we are helping to decide upon the appropriate treatment, which improves the patients' outcomes and reduces costs. This product will soon be commercialized.
By implementing the Government of Canada's science and technology strategy, mobilizing S and T to Canada's advantage, NRC's Institute for Biodiagnostics is well-placed to serve many R and D needs of the Canadian high-tech industry. We are creating knowledge, value, and a highly skilled workforce, and we are contributing to improving the health of Canadians through earlier diagnosis of disease and less-invasive therapy.
Thank you very much.
:
Thank you for the privilege of addressing you this afternoon. I would just like to clarify that I am not speaking on behalf of the University of Manitoba, although they are a valued partner in our organization. I am speaking on behalf of TRLabs.
I wish I had more than five minutes to discuss the topic of science and technology in relation to health and biotechnology. I will, however, take this opportunity to focus on a key requirement, which I and the organization I represent consider to be paramount to ensuring the continued growth and success of our country in the fields of science and technology as they relate to health and biotechnology.
I would first like to differentiate between the terms “science” and “technology”. Scientific research provides scientific information and theories for the explanation of the nature and properties of the world around us. Science, therefore, represents the body of knowledge we accumulate. Technology, on the other hand, is the vehicle that leverages our scientific knowledge and generates benefits for the citizens of our country. Successful technology requires a process called innovation. Innovation represents the successful exploitation of science in a practical way, and innovation requires a cultural paradigm for it to occur.
The three primary participants in the innovation process have traditionally been the research institutions--primarily our universities--the governments, both provincial and federal, and industry. These entities represent three distinct cultures. The research community represents a culture in which ideas are formed and possibilities are investigated. Industry, on the other hand, represents the culture in which economic development is the key focus. Revenues, profits, investments, technology development, and risk-taking are the key elements of a strong economy. A strong economy provides high levels of employment, regional competitiveness, and productivity, which ultimately leads to the enhanced prosperity of a region and an appealing quality of life. Government represents the culture that must not only support and embrace the research culture and the culture of industry, but must also create an environment of collaboration between the two. Innovation can occur only in a methodical and deliberate way in a collaborative environment.
Canada has a long history of strategic developments and innovations. Examples include insulin, the light bulb, the G-suit, the telephone, the TV camera, the wireless radio, the a.m. radio, the electric oven, the electric wheelchair, and the cardiac pacemaker, invented right here in Manitoba. For Canada to continue to contribute world-class innovations to the world in which we live requires a focused effort to maintain and enhance the collaboration between these different and diverse cultures. TRLabs has a 22-year history of serving as a catalyst, fueling collaborations between universities, governments, and industry.
Organizations like TRLabs need to be supported because they live and breathe at the intersection of these three cultures. We facilitate the innovative process by taking ideas and possibilities and making them realities. We bring the idea generators and the idea implementers together.
Unlocking Canadian intellectual property or ideas and creating innovation require a focus and a deliberate effort. Targeted innovation is required to enhance health care in Canada. This means that in the areas such as e-health R and D, there is a fundamental requirement to have the users--including regional health authorities and proactive clinicians--the researchers, and industry working in a collaborative environment to first identify the real needs and to then create the required targeted innovations by validating, disseminating, and translating the technologies into the day-to-day operating environments in the health care sector.
True collaboration, as I have described, would result in strategic improvements to the Canadian health care system, which would ultimately impact every member of Canadian society in a positive way. It would also create opportunities through which Canadian inventions and advancements could be leveraged globally to impact society in general, creating economic growth for the Canadian economy. However, small and medium-sized enterprises--SMEs as we call them--are currently at a disadvantage when considering innovation in the health care sector. Great ideas and valuable innovations are most often not pursued because there are no mechanisms to validate their overall functionality in the very diverse and complex health care environment. As a result, many health-related innovations from SMEs never see the light of day in the country where they were conceived, or, worse yet, they may be shelved permanently.
Canada's tradition of creating groundbreaking innovations must continue, but in order to do so it must be actively fuelled and become even more deliberate. TRLabs, for example, has already reorganized and refocused its research program to include the specific thrust in health applications and technologies. TRLabs also fully embraces SMEs in our partnership model, and we are in a unique position to assist an SME's entrance into the health innovation space.
Investing in information and communication technologies, or ICP as we call it, should also be considered as strategic, because we can no longer look at ICP as a sector unto itself, but rather as a strategic vehicle or catalyst that allows all industry sectors, including health care and biotechnology, to introduce strategic advancements. Innovation in ICP will positively impact the grassroots of Canadian society across all sectors.
I would like to leave you with five recommendations to consider.
First, we must foster and support collaborative partnerships between industry, government, university, and research institutions wherever possible. It is at this intersection where creativity becomes a reality. New ideas must be successfully exploited so they can become innovations.
Second, we must continue to invest in proven entities that generate new innovations. We cannot afford to invest in reinventing the wheel. We must push the envelope and introduce new innovations through collaborative partnerships. Funding for these entities should not only keep pace with inflation, but should be increased based on valid innovation performance metrics.
Third, we must continue fostering strategic R and D investments in information and communication technologies. Technological investments in ICP will directly fuel innovations across all economic sectors, including manufacturing, aerospace, biotechnology, health, transportation, etc.
Fourth, we must encourage increased industry participation in the Canadian R and D process and consider it as a key metric in the analysis and decision-making process that determines the allocation of Canada's R and D spending. Companies willing to innovate will fuel economic growth and create a strong and agile Canadian economy. We cannot afford to have ideas left on the shelf.
Fifth, we must consider leveraging vendor-neutral, not-for-profit research entities like TRLabs in the creation of innovation centres, which would provide SMEs with an environment to test, validate, and certify that their innovations related to health care will successfully integrate into the existing health care operational environment. This will not only benefit the SMEs, but also the local economies and the health care sector by providing a valid strategic option.
Again I would like to express my appreciation to the committee for being asked to participate today.
Thank you.
My title is chief innovation officer of the Winnipeg Health Authority. I'm based at the Health Sciences Centre, our community's largest hospital.
You folks just visited St. Boniface Hospital this morning. I spent 17 years of my life in Ray's riding, working as part of the core team putting up those two institutes. They're founded on an entrepreneurial model of pulling funds together, both for capital and operating expenses.
I also was co-founder of two venture capital funds in town and several spinoff companies that have come from them. My current project ties to the L5L project that you saw this morning in our presentation.
This picture I'm showing here is of the new Siemens Institute for Advanced Medicine that's being built at the front door of the Health Sciences Centre. This is a $200 million project being built with soft money. It is 80,000 square feet and will focus on the neurosciences, surgery of the future, advanced imaging, and simulation. The project contains a retail concourse and a 17-story hotel.
The naming rights of this institute were sold to Siemens AG, one of the largest multinationals in the world. In return, Siemens is putting research programs inside of the institute. The facility will be Siemens pure: when you flick a light switch, it will be a Siemens light switch; when you look at an MR scanner, it will be a Siemens MR scanner.
In return for having such an exclusive environment focused on one vendor, we will do proprietary research in ways that conventional collaborations would not normally take place.
The hotel made a contribution towards the institute in return for affiliation with our community's largest teaching hospital. To give you a sense of the business traffic that's affiliated with it, the NML that you visited this morning generates 25,000 hotel room nights a year just by itself—not counting the teaching hospital. How could I capture some of that volume for our campus? So the hotel is not just a place for guests to stay, but the intention is also to have revenue generation to help feed the indirect costs of the research institute.
The project you just saw is for $200 million. It will have a $30-million-a-year operating budget, with roughly 300 staff, and the majority of that funding will come from soft sources.
A third partnership we have in the institute is with the spinoff company that the National Research Council has launched, IMRIS. It makes an interoperative MR scanner that slides on a ceiling track through the OR and lets the surgeon take pictures during the surgery. This is the country's only IPO this year on the technology side. We're proud to be a showplace for this technology in a clinical setting.
We are also engaged in a very active partnership with CAE, the Quebec-based aircraft simulation company, with one entire floor of the institute focusing on CAE's diversification into the field of medical simulation. The first stage of product development from that will be the development of a new generation of medical mannequin. With medical mannequins, you can literally have babies simulate heart attacks. These are very, very sophisticated robotic devices, but they all come tied to a control room. Well, the new generation of medical mannequin that we're going to be creating with CAE is a completely self-contained unit that will allow people to go all the way from the ambulance to the emergency ward to surgery, up to the patient's bedroom.
We'll also be involved in the development of a virtual reality surgical trainer. Can we rehearse your surgery the day before we do it? How solid does that tumour feel? What does Harry Schulz's tumour exactly look like? What is it touching against? Let's both rehearse that procedure the day before and train students who are in the institute, and let's advance its integration with other types of devices.
The third part is a skills assessment unit in support of surgical training. Say we have a surgeon who's 75 years old. Can he still hit the button? My dad takes his driver's licence over again when he's 80, but we don't make our medical people do that.
So the notion of diversifying a big company like CAE into the medical field, taking advantage of the movement towards patient safety, is another very large project we're doing.
Now the last piece I want to leave with you is the relationship between the L5L project and the things you're seeing inside this new institute. The federal lab can never be as nimble because of the rules the federal bureaucracy is required to live under, with all kinds of very, very stiff things that are done under the mantle of accountability—but we're the marketplace. The Siemens Institute has operating rooms. They just look like the regular operating rooms that you and I might have surgery in tomorrow, but we're doing device development and we're working on prototypes.
Could we be using those ORs in the context of training for infection control? Maybe CAE is the contractor that's delivering that mission-critical training in an OR. You open up a patient who has a certain type of disease, an in-hospital infection that no one anticipated. Okay, team, react to that circumstance.
So that's the interrelationship with the OR of the future; we are also building a ward-of-the-future development in there. If one of those people you saw in a space suit today got a hole in it, where would we put them? Would they go into a regular hospital containment ward? Or might we have a special ward inside this new institute that is specially designed with the materials we were talking about, the infection control aspect that we were talking about today, new materials to have special kind of housing for those things?
The third element is the entrepreneurial side that I hope you picked up from my presentation. I'll bet you that in all of your hearings today and on your journeys, you aren't going to find people who are peddling retail to support research, or hotel rooms or taverns. This would be a novel approach, pulling together all sources of income I can find to make sure the institute has a long-term viability to it, that it's not just based on serendipitous research grants.
The last element is that we're looking at a large-scale real estate development north of William Avenue that will extensively move into the field in P3 development of both health care and research facilities to leverage on top of the business base of Manitoba's largest hospitals.
I know the committee is here principally on the issue of commercialization, and I have many suggestions on that, but I'll leave that for the question and answer period.
:
Access to capital is the number one issue in this country for venture capital spinoffs. It's not confined to small places, but it's most seen in small places. If we had a cure for cancer on a lab bench in this city today, there would be virtually no place to go, storefront-wise, to find it.
We also know there's a relationship between venture capital sources and places where the money is spent. If you put all the coloured-pin dots on the map of Canada where sources of venture capital exist today and show proximity of the deals they do, there's a geographical relationship. So communities like Winnipeg and Saskatoon certainly have deficits.
My comment is that it's the number one issue. It means that patient technologies like biotech, which have long cash trails, long maturities, will drop in favour relative to medical devices, which have shorter times to market. There is no way to raise that money now.
I would encourage mechanisms to incent venture capital pools to be set. They shouldn't be run by the feds; they should be run by the private sector, but there should be mechanisms to incent those things to happen. I know labour-based pools have fallen out of favour, but there are other mechanisms. Tax credits solely are not enough.
We badly, badly need access to those pools, because biotech activity in this country, from coast to coast, has fallen for lack of capital.
:
I must apologize. I had a problem with the innovation for the first little part.
But to answer your second part, at TRLabs, for example, we have a very wide array of industry-sponsoring organizations participating with us. We leverage the expertise of the universities we partner with as well, in Alberta, Saskatchewan, and Manitoba. Those companies are taking advantage of the bright minds the universities are generating, and through that they are developing technologies and then taking it to the next step of innovation. One of our outputs is also high-quality people.
To answer the question of whether industry is investing enough in development and innovation, it's certainly not only the government's role to fund that directly, but I think the role of government is to be a catalyst. That means scientific research, experimental development, and tax credits. I already made a comment that not enough companies are taking advantage of that existing resource, and some of them are fairly large companies. That in itself would create internal venture funding for some companies to be able to take advantage and reinvest in development of new products and services.
TRLabs is a very successful model. We've been around for 22 years. We're going to continue to do that, but it's always a struggle. The intersection of those cultures is a very interesting place to live.
:
I mentioned before that access to capital is a huge issue. Dr. Smith's comment about potential government guarantees for some portion of the risk that might reduce the risk adversity, I think is a good suggestion.
A second comment I would make is that whenever the federal government wants to do something to promote venture capital, it looks at BDO. I am not a supporter of that. BDO's activities in this city are nominal. From our perspective, it doesn't solve very much.
In terms of commercialization, many of the inducements that happen at an academic level take the form of matching funds. The mechanisms for matching funds are not something I support either. From our perspective, we're a very vibrant technology community. But we can count the number of biotech and medical device companies on the fingers of two hands, so that reduces the number of players we can work with.
If you live in downtown Toronto, a much larger city, there's an infinitely greater number of marriages that are possible. There is a geographic relationship that exists between science organizations and commercializers. We don't have the same critical mass. When you give a matching grant related to product development or industry relationships to the University of Toronto, it's not nearly the same kind of challenge as it is in Halifax, where there may not be the same number of partners. It's harder to do. So I'm not a proponent of matching funds.
As a hospital, we are often at a disadvantage to our university partners, which are usually the recipients predominantly of the granting council. Funding goes directly to a university. If hospitals participate, they receive it via a university. We're very often forced to work through conduits. Again, if you saw my presentation, I feel we can be a little more nimble and responsive to partners we want to work with in industry if we don't have to work through intermediaries.
The discussion this morning around the Waterloo scenario, free intellectual property, has tremendous potential to get us away from the bureaucracy surrounding IP. With all due respect to many of my colleagues, grown men weep in getting IP licences from the federal government.
The NRC here in the city--Dr. Smith's shop--has a reputation for being one of the most nimble shops in the country. It has a tremendous reputation. But there are many, many other government departments, and that would include the one you saw this morning at the Public Health Agency, where getting a patent licence is not an insignificant exercise. Many industry partners have to work very long and hard to do that.
Those comments about freedom of intellectual property are something that should be addressed by the committee.
I echo my colleague's comments this morning. I'm having a great visit here in Winnipeg, albeit a very full day for us. It's terrific to come. We've been at this study for about a month, and this is an opportunity to build on the foundation we've already begun in earnest.
One of the things that has been a recurring theme throughout today, and I must say throughout the course of the study, is the strength of the collaboration and clustering that's been referred to. I'll leave this question open to whoever is best to address this, but could you give us some practical examples of how that happens?
Everyone has talked about the great implications of having groups, or a pooled knowledge, talent and expertise in these areas of science and research, and you're all working in your different areas, but you've all referred to this collaboration that spawns a better movement. What are some practical ways in which that collaboration really takes place?
Dr. Smith.
:
It all has to do with communication and will. In a smaller town it's a little easier I think than it is in a larger town because there's a loyalty. When A goes to B and asks for help for such and such, you're more likely to receive a positive response in a community of under a million than you would in a community of over a million.
I came to Winnipeg in 1992 with two employees. Now I have about 200. We pulled all these resources together, not by seducing and cajoling, but merely by asking for help, be it from the university, the hospitals, private physicians, or engineering companies. For example, when we began we needed to refurbish our building. We had to form a committee to raise $7 million to do that. On that committee we had the head of Investors Group, the head of the Health Sciences Centre, and the head of St. Boniface Hospital. All of these very credible people came together to help us raise this money to furbish the building and put it together. That's one aspect--small city loyalty.
The other one is to remove the silos between the disciplines. Physics doesn't know how to talk to medicine; biochemistry doesn't know how to talk to architects, etc. Everybody has to change their language, to talk in simple terms and show what we can do together relative to what we do separately. That means a lot of running around. I spent my first year doing nothing much more than talking to various people.
It can happen, but I think it's easier here than it would be in a large place, where there's more competitiveness between areas than there is in a town of under a million, where you really want to help your city or your town.
:
It's very simple: show them a success. That's what has happened in California. They started very small. The CalPERS union is a very large union. As I tried to explain, take a very teeny percentage of your resources—take one-hundredth of one percent of your $20 billion, invest it in one for which you have very good advice, and win 20%, or something like that.
As they get used to it, they become less risk-averse, so it is “practice makes perfect”, essentially. You have to start. Try to start with winners.
We have been very lucky here that our two big companies, of which I spoke, both started from one, two, or three employees and are now at 100 and are now not begging for money—they are turning away money—because they showed success. In our particular business, it's not so difficult. If you sell to the United States and create a competitive advantage, your product will sell like wildfire also.
So the market you go into should be one where your product will create a good competitive advantage. That's the best way to have a success.
I'll give you an example. In Minneapolis, they bought an MRS machine at one hospital. Within months a second hospital said the first now had an unfair advantage—because hospitals make money in the United States—so Minneapolis bought a second machine. Now they have two.
This is what happens when you make a good investment. The trick, of course, is to know which is the good investment. You want to have a relatively high level of success for your initial probe. You have to prove to the pension funds—I just use them as an example—that it is not as risky as they think; that with good advice they can find a good investment. Then the confidence will grow.
It's a slow process. It's that initial pulling in that is very difficult, because it's easier to invest in apartment blocks in Toronto, as Mr. Simard has said. It's a communication problem, it's a risk-determining problem, and it takes a lot of dedication by people from the community, which is what we're trying to do here.
Had it not been for the crash of this labour-sponsored fund, I think we would be there already with the pension fund. OMERS, the Ontario employees group, is very successful. In Quebec I believe the venture capital situation works pretty well. It is far better there than anywhere else, because they have lots of successes. The Government of Quebec has been very helpful in that respect in helping people make the investments in the first place.
Does that give you an adequate explanation?
:
Actually, the IMRIS case was one of learning by making mistakes. It would have been much faster if we had had better coaches; I think the concept of mentorship in the commercialization business is very important.
We are also trying to do that here in Winnipeg, taking some folks who don't want to work quite as hard as they did when they were 45 years old—they're 65 years old now, but they still want to keep their paddles in the water—and using them as mentors. That way you can avoid some of the obvious errors, like expanding your staff too quickly, making luxurious kinds of expenditures when you really just need to buy tools--borrowing, collaborating, and all of these various things that you can do to maximize your productivity and minimize your expenses.
All of those things are what we learned. What else can I say?
Hiring the right staff is an obvious one, right, if you're lucky? We've done pretty well on that one with our company so far in finding the right people. We don't necessarily find them only in Winnipeg. In fact, in the institute we have 42 different languages. So by having the right combination of things to attract people, you can get skills that hit the floor running. That is, you want to have the employees who have the skills you need at the moment you need them, rather than having to say, “I know you're an engineer, but could you learn to build an MRI machine?” That's a slow process. So you need to do very clever recruiting, and that means doing quite a bit of travelling, giving quite a few talks, going to many different countries. We have them from all over the world now.
So those are some of the lessons we learned.
The last thing you need is luck. Who could have predicted 9/11 and all of those kinds of things? The best laid business plan can crash completely from an unanticipated event—and in IMRIS, we were right in the middle in 9/11, which meant that the confidence level in everything disappeared, except in the army. Everybody wanted security, so the smart company then moves into security devices, which we did as well.
I thank the committee for giving Standard Aero the opportunity to come before you this afternoon and talk a little bit about some of our views on technology and the aerospace sector in particular.
Just to give the committee a little background on Standard Aero, we are a global aerospace and defence supplier with the diversified engine and airframe services we provide. We are one of the largest independent and OEM-aligned service providers, MRO companies, in this market.
We have a large base of operations in Winnipeg. About 1,400 people work in Winnipeg, and our headquarters is in fact located in Winnipeg.
It's important to note that a majority of our sales are in fact to foreign customers, with the U.S. being a predominant supplier of customers for the work we do.
Over the years we've put a significant amount of investment into our engineering and our operations talent, and we have had a fairly active involvement in numerous small-scale research and development initiatives. That's just a little background for your benefit on Standard Aero.
In terms of looking more specifically at some of the technology challenges we face as an industry in the aerospace and defence landscape, we are seeing certainly increasing barriers to entry for the suppliers for MRO services in that type of area. In particular, one of the things that drives that in aerospace and defence is that programs are changing with OEM—original equipment manufacturers—with new programs and new products coming out...having considerably greater control over those products and having in fact life cycle requirements and arrangements built into those kinds of contracts that are put in place. These really create a barrier to entry to independents, or in many cases to Canadian companies' participation in those kinds of programs.
We also see an obviously increasing amount of technology going into these new aerospace products, whether they're engines or air frames, composites and new technologies, that require additional and increasingly more sophisticated technologies to provide ongoing support there. Couple that with the intellectual property licensing and technology transfer controls that accompany a number of these types of programs and that again creates considerable barriers to many of the Canadian companies. Even we are challenged with some of those things.
In other aspects of the industry, airline and supplier consolidation is again raising that technology investment risk, and we're seeing a burgeoning foreign commitment to developing in-country aerospace capabilities. Again, this takes away what has often been there in the past and was very much an opportunity for Canadian companies to provide export opportunities on aerospace and to develop technologies in those areas. It's just another one of those factors that's entering into the challenges.
The rapid rise in the dollar also really contributes to creating difficult business cases for preparing development research and different types of advancement programs that exist. So we're constantly challenged to put a viable commercial business plan together for those types of endeavours.
Looking at it from the workers' perspective, worker shortage continues to be an issue for our industry. We have an aging and retiring workforce, and we see that the workforce in the aerospace industry in Canada is not particularly mobile. You tend to have to grow your own and develop that capability within the area you're in.
On the technical side, new entrants see the aerospace industry as being not particularly attractive. Other industries look more attractive from the perspective of working conditions, salaries, and job perception. Our engineering perspective would suggest there is limited career growth, so the new college graduates are not particularly enamoured with aerospace as the future place to grow because of limited development programs. In some cases, the regional concentration in the aerospace programs means there is not that opportunity there for them.
An important aspect of growing this area is in the realm of knowledge management. The transfer of technology to the newer workers, and in fact developing technologies for better enhancing and utilizing that knowledge, is one key advancement for the industry and government across many different sectors to look at. The sustainability of the environmental aspects is certainly an ongoing area that we need to constantly keep a focus on.
So where is the government role in some of this? I think facilitating industry-government-academic collaboration and investment in research and commercialization is really important. In looking at the creative tax programs, SR and ED is certainly an element that's viable. I think there's still a lot of work to be done in terms of understanding how to really apply it and gain the benefit of it.
With respect to facilitating cross-sector best practices and opportunities, as I look at different government programs and different sectors, it occurs to me that there may be some opportunities, from automotive to aerospace, to perhaps cross-breed some of the ideas out there and the advancements that are ongoing. I think it's important that the government continues to look at supporting regionally diverse initiatives in growing a broad aerospace capability across our nation.
Another aspect is ensuring that our defence-related procurement activities facilitate continued development and growth of technology within Canada. We want the foresight to realize that as we enter into some of these new programs, there can be barriers to advancing the technology...and becoming mere servants to various manufacturers who might have these life-cycle programs from other countries and so forth. It's important for us to think about that from a long-term perspective.
Finally, we need to look at continuing to facilitate the development of our human resource. It's very important for our industry--for the aerospace and defence industry in particular.
Thank you.
:
Honourable members of the committee, ladies and gentlemen, it's a privilege to be here today. I'd like to thank you for your invitation to discuss the topic of science and technology in Canada and its impact on the aerospace industry.
I'm pleased to report that Boeing is an integral part of Canada's aerospace industry. Boeing's presence in Canada stretches over more than 85 years of aerospace excellence, and the company's contribution contributes approximately $1 billion U.S. annually to the Canadian economy.
As the country with the third largest international Boeing supply base, Canada is home to a Boeing-owned high-technology composites manufacturing facility here in Winnipeg, as well as an airline maintenance software development operation in Richmond, British Columbia, and an airline crew, fleet and logistics software development operation in Montreal. In addition, Boeing operates out of five locations in Canada, providing new aviation parts and related after-market services. In total, Boeing employs over 2,000 highly skilled Canadians across 10 locations.
Each year, Boeing places orders with hundreds of suppliers in Canada in every province. Canadian industry provides Boeing with aerospace parts, components, and subsystems for all Boeing commercial airplanes, including the 787 Dreamliner, the CH-47 Chinook heavy lift helicopter, plus Canada's military CF-18 fighter jet and the C-17 strategic airlift aircraft.
In addition to our significant business presence in Canada, Boeing is also actively engaged with the technical community, both from an academic and industrial perspective. We have research and development, continuing education, and scholarship and recruiting relationships at the University of Manitoba, Red River College and Stevenson Aviation & Aerospace Training Centre here in Winnipeg; the University of British Columbia in Vancouver; McGill University in Montreal; and Memorial University in Newfoundland.
Technology collaboration with Canadian government and industry includes development of affordable composite manufacturing techniques, in cooperation with the Composites Innovation Centre in Manitoba, and natural fibre composites research, in cooperation with the Canadian National Research Council. In addition, we are involved in the development of advanced metal joining and forming technologies with the Canadian firms, Guthrie Research Associates and Spinduction.
Boeing and the Canadian government share a common understanding of the importance of innovation to the long-term health of industry. Canada recognizes the need to continue to innovate and shift to higher value-added activities to maintain their competitive advantage. Boeing faces the same challenges to maintain a leadership position in a highly competitive and dynamic global aerospace market.
In response to these challenges, Boeing has instituted significant changes to our business models and operating methods both inside and outside the company. Inside Boeing, innovative leading manufacturing techniques have been implemented in our commercial and defence businesses, bringing new levels of productivity and efficiency. At the same time, new partnering approaches on the 787 Dreamliner have driven design and manufacturing responsibility outside of Boeing to a greater extent than ever before.
Boeing's emphasis on finding best-value opportunities outside the company has not been restricted only to manufacturing and engineering communities. A parallel global outreach has also taken place involving research and development. The rising cost of technology development and speed of innovation required to meet the competitive requirements of our customers in today's aerospace market is driving Boeing's commitment to reach out and collaborate around the world with the best and brightest researchers in government, industry, and academia to quickly find and transition the most affordable and innovative solutions possible.
Boeing research and development investment decisions are driven by two primary factors: gaining access to world-class capabilities and leveraging our research and development investment. To help us set our investment strategy, we continuously collect information on the types and amounts of global research and development activities and use this data to identify capabilities that align with our technology needs. Canadian government programs, such as the strategic aerospace and defence initiative and the scientific research and experimental development tax incentive programs, are important for encouraging Canadian private sector technology investments.
Boeing searches for the best technology capabilities to meet our needs both in the academic and industrial sectors. As detailed in the Advantage Canada plan, a skilled and highly educated workforce and high rates of private and public investment in research and innovation are fundamental to long-term economic growth in developed countries. Recognition of these factors and a willingness to co-invest with industry has played a key role in past Boeing technology investments.
In closing, Boeing is proud of our long history of business and technology engagement in Canada, and we look forward to working with the Government of Canada, academic institutions, and industry to strengthen our current technology relationships and identify new models of collaboration.
Thank you.
:
Briefly, I just wanted to allude to the discussions we had this afternoon regarding science and technology and research in Canada.
I guess we've been involved in several projects. So far, we've predominantly been working with single industry partners and with other multiple research collaborators. Most of the funding has been provided through the western economic partnership agreement that flows from Western Economic Diversification Canada and the Province of Manitoba. We have also been involved in a fairly extensive roadmapping assessment with the National Research Council and the Institute for Aerospace Research. This commenced in 2003 and has been ongoing since.
We've identified key areas in the sector for competitive development. However, we've been unable to move forward and have these projects implemented. These predominantly are pre-competitive collaborative projects with numerous industry partners. We have been unable to find a funding agency to at least underpin some of the costs, and that continues to be an effort.
In terms of recommendations, I know that Industry Canada is going to a second round of review of the program, especially under the strategic aerospace and defence initiative. It's with respect to how that funding can be utilized not only by Canadian industry, from a commercialization standpoint, but also in the form of potential grants for a lot of these larger types of projects.
Also, as I mentioned earlier, there is the comparison between funding from Industry Canada and funding from other organizations, such as Agriculture and Agri-Food Canada, to see if there is a similarity or if there are distinct differences. I believe there are differences, and maybe one group can learn from the other.
In terms of other activities, specifically from Manitoba's perspective, we're involved in trying to leverage industrial and regional benefit offsets from major military procurement packages. We would like to see if we could have some additional government involvement, not mainly in sponsorship but involvement in coordinating those activities.
We're also looking, together with the University of Manitoba, at bringing in what's known as a consortium for research and innovation in Canada. This is a program that's revolving at the moment around Quebec universities and the aerospace industry. It is quite effective, and we're looking to try to bring that into Manitoba. There are some nuances, especially in the way NSERC views this organization.
Also, from the university perspective, we're looking at what types of guidance we might have in terms of getting the universities to explore ownership of IP and publication initiatives a bit more to make them more industry friendly. I think that's one of the stumbling blocks in terms of getting industry to participate with our university system.
Finally, we are involved in some large capital-intensive projects with industry. We find that it's fairly difficult to get a good solution, not necessarily from a granting perspective but from the perspective of how projects can be funded. I know there is involvement from the strategic aerospace and defence initiative. But there may be some other mechanisms that could be looked at with these tax initiatives, which would actually bring a considerable amount of funding into our aerospace industry.
I just want to add a couple of comments based on what I mentioned this morning on the efficacy I see in our partnership.
The aerospace sector operates within a high-technology sector in Canada and we do compete globally. We at Magellan Aerospace design, engineer, and manufacture aero-engine and aero-structure assemblies and advanced proprietary products. We do actively participate in collaborative, strategic investments of national interest, and we also have coordinated approaches to access opportunities through Canadian government purchases, such as IRBs.
I'm bringing this up because we look forward to applying these technologies to the export markets. We at Magellan have a proven business model of developing these proprietary products based on Canadian government and military requirements--for example, our Black Brant, Wire Strike, and CRV7. We exported those to the global market, and it is now a $50-million-a-year thriving business, 100% on exports. Those types of models do certainly work within industry.
Aside from the proprietary products, obviously there is manufacturing technology that we want to apply from military applications and take to civil and commercial applications as well. We're investing in automated manufacturing technologies to enable this to happen. We believe this technology is paramount to the success of the Canadian manufacturing industry in the future for folks in high-precision assembly and automated assembly of metallic and composite components. It will allow the Canadian industrial base to participate in future programs as well.
I did want to mention a couple of areas in the strategic partnerships, and I'll leave the notes here. We do look forward to the Canadian government's continued support in long-term risk-sharing capital requirements. We mentioned earlier that there is a strategic aerospace and defence initiative that replaced TPC, and it's just getting started right now. It's critical to make sure that is a success for industry.
We're asking for a level playing field, as was said earlier. It's not about grants or other opportunities, but we need a level playing field in the Canadian industry to develop new manufacturing technology and to maintain and grow our highly skilled workforce.
We are asking that the Canadian government consider modifying the policy required to ensure procurement of satellite technology and other strategic technology in Canada. Right now we are restricted as Canadian companies from competing in other jurisdictions and countries. Again, we need to seriously look at that so we can level the playing field with some of our international competition.
We do want continued government support through corporations like CCC and EDC to support the ongoing export of commercial and defence products. I know there's talk about some potential changes in a couple of those areas, but we want to make sure they do support the export of products, as that is key to our long-term success.
We'd like to maintain the procurement policies and practices for future proprietary product development--this is on strategic purchases specifically on the military side right now--so that we do have engineering, repair, and overhaul throughout the procurement and operational phases of those programs for Canadian industry. Again, we feel that's very important in our sector.
:
Thank you very much, Mr. Chair.
I want to thank the witnesses for being here. I could probably talk to you guys all day--coming from Oshawa--when you're talking about automobiles.
I wanted to talk about something we really haven't touched on, and that is environmental policies with governments. We're always pushing you guys to develop lighter materials, composites, better engines, things along those lines. So my first question delves into whether there is something that governments are doing around the world to, let's say, encourage environmental green technology in the aerospace sector that we should be doing here, or are you aware of something that maybe we could do?
The second question I want to talk about is more or less this defence procurement program. We've talked a little about satellites. I wanted to touch on WTO issues, free trade agreements, things along these lines.
It seems Canada is always criticized for being the Boy Scouts. I know in the States, I've talked to some guys and they say paint it green, paint it grey, and we'll call it a military expense, and that's where a lot of the American government really invests in the high-end R and D. We talk about a level playing field, how we can go about doing that.
But the bottom line is, we want to get more of that R and D here, and we want to get those value-added or higher-end jobs here.
I'm going to stop there. Let's hear your comments on those across the line, because I only have six minutes.
The element of the environment is an important aspect that the Boeing Company is taking on in a vigorous way this year. We're doing it as a response to some of our market access in Europe, but more so because we see it as a competitive advantage in the future.
All of our manufacturing entities inside the company are going to be required by the end of the year to be certified under the ISO 14001 standard. That's the International Organization for Standardization. That standard is focused on not only using less energy, fewer resources, and putting less waste into the earth at the end of the day, but how you can leverage that in ways that give you a design advantage where you're thinking in terms of your carbon footprint, from the design aspect all the way through the use and life cycle of the product. So as one of the internal manufacturing entities inside of the company, Boeing Winnipeg will be certified by the end of the year under the standard.
I think a government entity can approach standards and things of that nature in a fashion that makes them not punitive, but more of a competitive advantage for industry. Although I don't have any answers to offer, as corporations are being asked to become better global citizens and better stewards of our economy, you might think in terms of how we can do that in a competitive way that doesn't become a disadvantage for them in the products they're trying to sell and offer the marketplace.
:
If I could just touch on the second comment, I know there's little time here, but it is about R and D, and you mentioned things like free trade or other areas, and how we can open that up.
I do know there has been a shift over time away from funding agencies like DREV and DRES, which are the Defence Research Establishment Valcartier and the Defence Research Establishment Suffield, and a few of these areas that were involved heavily on the research side in the past, where there were a number of partnerships, again with industry.
Again that sort of strategic direction back to military and technology funding in some of those areas needs to be made, and as well with the NRC, the National Research Council. Again, there are some areas, like those in Sean's organization, the CIC, that are getting in some of the automated equipment, getting in some of the new technologies and processes.
If we look at some of that funding, to expand some of the technology areas and make them a priority, I think it could work.
Sean, I'm not sure if you want to....
:
Thank you for being here. I really appreciate the opportunity we had earlier to visit your site at Smartpark.
There are winners and losers. There is always sort of an underlying assumption by analysts who say there are some things that need to go the way of the horse and buggy and other things that can evolve.
Mr. Boitson, your company is a good example of a company that's evolved over the years. It's been around for over 100 years. If I understand correctly, MacDonald Brothers went back quite some time. We know the history, the politics, etc.
Right now, I'm seeing here in Manitoba a high level of impressive coordination. I'm wondering, however, if you can use that as a template to coordinate between competing interests, say in Toronto or Quebec, and if there is a way that when it comes to things such as procurement we're all sort of speaking from the same book. The best obviously would wind up with the opportunity to do whatever it is that is out there.
More importantly, can you identify for the committee ways in which we can improve the coordination so that we don't wind up with this regional bun fight that often happens? We've seen it here before. I think we've tried to avoid it for the past 20 years, but it was about 20 years ago, around this time, that I think it's fair to say we put region against region when an entire nation's interest was at stake.
Are there any ideas, any insights, or any efforts at trying to pull these things together?
:
One of the specific points was funding for pre-competitive collaborative activities, and those would be where several companies, such as the Boeings and the Bristols and potentially the Standard Aeros, would get together and look at pre-competitive technologies.
In the past in Canada, together with our comrades at the National Research Council, both in Montreal and in Ottawa, we have spent a considerable amount of time trying to understand what technologies industry would like to look at from the aerospace perspective. I'm specifically talking about composites and what we need to do to get industry to leapfrog ahead so they can actually understand and utilize the latest technologies. We spent a considerable amount of time putting these specific projects together. An example would be a fairing on a Boeing aircraft, utilizing a different material and process that would save weight and save cost.
Unfortunately, when we put the project together, we really didn't have the mechanism to take it forward. What I mean is that because it's pre-competitive, there wasn't an end company that would have direct benefit from it. There would be several end companies that would end up directly benefiting from it, and we couldn't find a funding mechanism to be able to basically put a grant together to fund some of the technologies. We looked at Industry Canada, and they had at that time the TPC, and now they have the SADI program. Either/or, we're looking at basically taking off and acting as a loan project, based on future sales to pay off that loan.
With these types of pre-competitive, collaborative activities, it's very difficult to tie in to future sales right back to this level of technology. So I think there was a gap, especially in the aerospace sector, to be able to fund or support these types of programs.