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Submission to the University Research Commercialisation consultation paper

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Original languageEnglish
Number of pages5
Publication statusUnpublished - 2021

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T1 - Submission to the University Research Commercialisation consultation paper

AU - Roy, Rajat

N2 - As announced in the 2020-21 Budget, the Government is providing $5.8 million to scope a University Research Commercialisation Scheme (a Scheme) to better translate and commercialise university research outputs. This is in addition to the $1.2 billion provided to the university research sector to maintain capability and excellence of Australian research. The scoping study will develop options for the establishment of a Scheme, drawing on advice from universities, industry and other experts and will be presented to Government for consideration.On 11 November 2020, the Minister for Education convened an expert panel made up of business and university leaders, to advise him on the scoping study. The panel is chaired by Mr Jeff Connolly, Chairman and CEO of Siemens Australia and New Zealand. A consultation paper was released on Friday 26 February 2021 outlining the issues, missions, rationale, and design elements of a university research commercialisation scheme, and invited submissions from interested parties and members of the public.Submissions closed on Friday 9 April 2021.

AB - As announced in the 2020-21 Budget, the Government is providing $5.8 million to scope a University Research Commercialisation Scheme (a Scheme) to better translate and commercialise university research outputs. This is in addition to the $1.2 billion provided to the university research sector to maintain capability and excellence of Australian research. The scoping study will develop options for the establishment of a Scheme, drawing on advice from universities, industry and other experts and will be presented to Government for consideration.On 11 November 2020, the Minister for Education convened an expert panel made up of business and university leaders, to advise him on the scoping study. The panel is chaired by Mr Jeff Connolly, Chairman and CEO of Siemens Australia and New Zealand. A consultation paper was released on Friday 26 February 2021 outlining the issues, missions, rationale, and design elements of a university research commercialisation scheme, and invited submissions from interested parties and members of the public.Submissions closed on Friday 9 April 2021.

UR - https://www.dese.gov.au/urc

M3 - Submission to government

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UA WELCOMES DISCUSSION ON RESEARCH COMMERCIALISATION

Education Minister Alan Tudge today released the University Research Commercialisation consultation paper seeking feedback from universities, business and the community on how to maximise the social and economic benefits of Australia’s multi-billion-dollar university research sector.

Universities Australia Chief Executive Catriona Jackson said: “universities welcome the launch of the consultation paper as an important step in a key discussion for the nation.”

“The research commercialisation discussion is an important one. We look forward to continuing the work with Government and industry to determine how to better translate and commercialise great Australian research.”

“The government’s $1 billion for research in the October budget was a very important acknowledgement of the national value of Australia’s research effort. It has, and will continue to, save research jobs and research capacity.

“‘Scaling up’, commercialisation and translation capabilities is an important aim in the drive to become an even more knowledge-based economy.”

Minister Tudge acknowledged the world class nature of Australian research.

“Our nation is home to thousands of exceptional academics and researchers – professors who are known and respected around the world and emerging experts whose work is on the cutting edge of human knowledge,” he said.

“We should feel great national pride in the contributions our university researchers have made to the world’s knowledge.”

Universities Australia will also prepare a detailed sector-wide response.

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Go8 response to the University Research Commercialisation Consultation Paper

April 16, 2021

URCS Secretariat Australian Government Department of Education, Skills and Employment

Introduction

Thank you for the opportunity to respond to the University Research Commercialisation Consultation Paper released on 26 February 2021 .

Please note that this submission represents the broad, collective views of the Go8, Australia’s leading-research intensive universities with seven of its members ranked consistently among the world’s top 100 leading universities. Each member Go8 university may submit its own related submission.

Also note that the Go8 approves this submission for public release and does not wish any of it to be treated as confidential.

By way of context, the Go8 undertakes 70 percent of university-based research in Australia and secures research funding from industry and other non-government sources which is twice that of the rest of the sector combined.  In 2019 the Go8 collectively earned $81.4 million in research commercialisation income, and we were responsible for the majority of Australia’s new and active start-ups and spinouts attributable to public research and the majority of active licences, options and assignments (LOAs), outperforming the CSIRO in each of these categories. [1] The Appendix to this submission contains further details.

Given this role as the heavy lifter in the research and innovation space, the Go8 recommends that research commercialisation be treated as an integral part of an innovation and translation system, which:

  • Is underpinned by an expanded national core of research and data infrastructure;
  • Includes both research and higher education (the two mainstays of universities);
  • Is built around an innovation ecosystem which includes more basic and applied research and connects these better through sharing of discoveries, and establishes an incentive gradient in favour of translation and impact;
  • Has multiple translation pathways (among which commercialisation is but one); and 
  • Includes a funding system that reflects the innovation pipeline and includes industry, venture capital, government, and philanthropy.

Against that framework, the Go8 welcomes the explicit acknowledgement of the critical role commercialisation has in driving Australia’s future economic prosperity. Our universities can increasingly point to major commercialisation deals from our research. Over decades, our universities’ discoveries, founded on basic research, have proven to be a substantial advantage when it comes to evolving ground-breaking solutions or inventions, not least in the last year when Go8 members actively and significantly contributed knowledge and expertise in Australia’s response to the COVID-19 pandemic.

Nevertheless, much remains to be done to ensure that the excellent research undertaken in Australia is optimised to contribute to new solutions, products, remedies and technologies and can spark and sustain new industries and markets. We need to establish a framework for success if Australia is to achieve genuine scale-up of commercialisation based on our university research.

The Go8 universities’ collective and individual track record in research translation and commercialisation reflects the persistent effort and commitment of dedicated divisions and staff to capitalise on opportunities despite the currentrisk-averse, disjointed and insufficiently resourced system.

A sustained, thorough and informed national campaign is needed, characterised by positively incentivised academics and business (including SMEs), recognition of translation skills and experience; including a steady flow of research sufficiently validated through proof-of-concept processes to raise investor and industry appetite, and readily attainable capital to advance commercialisation.

There is a risk however that an expectation of short-term wins, that disregards the building blocks of later discovery that fundamental research enables, and the longer timeframe needed to embed change – let alone reflect commercialisation cycles – will hinder progress.

There are many factors and aspects to research commercialisation, not least of which are an appetite for risk and a willingness to fail. It is not simply a matter of taking university knowledge and converting it.

Recommendations

As Australia’s leading research-intensive universities, which spend $6.5 billion on research annually, the Go8 presents a series of key recommendations that are necessary to sustain and boost the commercialisation output of university research. The enabling recommendations outlined below will also underpin the success of the key recommendations and the ongoing evolution of Australia’s commercialisation and translation ecosystem.

Key recommendations

  • Support for basic research.

As a first principle, the Go8 advocates for the Government’s continued recognition of and support for basic research as an essential part of the knowledge spectrum on which not only commercialised or translated products and outputs are reliant, but upon which discovery and understanding of current and future problems is predicated.  Key advice to Government on research has consistently supported this view, most recently by the newly reformed Industry Innovation and Science Australia (IISA) [2] . It is also worth noting that the first proposed budget plan of the Biden Administration includes increased funding for basic research via the National Science Foundation (NSF), even whilst putting a clear emphasis on applied research and development programs. [3]

  • Enhanced proof of concept funding.

The key bottleneck in the commercialisation of university research is funding at the proof-of-concept stage that converts breakthrough research into opportunities that are suitable for business or Venture Capital (VC) investment. Currently there are only limited funds available for this stage of commercialisation and this is often funded by universities themselves by cross-subsidising from other activities. This is where there are the highest risks and the greatest chances of falling into the so-called ‘Valley of Death’, driving Government concerns that there are insufficient ideas to commercialise.

  • Positive incentives for university researchers to commercialise and work directly with industry.

Universities need to continue to drive genuine cultural change in its research workforce. Researchers must be incentivised to collaborate with industry in a way that ensures career progression and promotion based on such collaboration. These incentives should also ensure genuine researcher mobility between universities and business.

  • An approach informed by Australia’s SME-dominated business environment.

Australia’s business environment is dominated by SMEs and with this comes constraints on both the ability to absorb research and to actively engage in research with university partners. These constraints, including resourcing – in terms of cash flows and research literate staff – could be addressed through changes to the R&D Tax Incentive (RDTI) and workforce mobility. Business access to university research infrastructure should also be recognised and encouraged.

  • Raising business awareness and ability to take up university knowledge.

Support is also needed to enable businesses to both understand the opportunities that academic knowledge presents and to access those ideas, whether this be through work exchanges/mobility or joint placements; providing tours of university laboratories and genuine promotion of innovation precincts as an avenue to collaboration and commercialisation. Successful Government programs that foster intermediaries and systemically raise connections between business and universities – such as Innovation Connections and CRC-P programs – should be expanded.

  • Government coordination and priority setting

Part of the role of Government in the commercialisation space is to establish national priorities that identify national competitive advantages and sovereign capability needs. Government should then target funding to these priorities and ensure that there is a whole of Government approach (across multiple portfolios) in coordinating and supporting these priorities. Programs that provide this support should have the longevity and continuity that enables business to learn to work effectively with them.

  • An Australian Translational Research Fund

With key recommendations 1-6 in train, Australia will need to take full advantage of its improved commercialisation landscape, architecture and wealth of basic research with a fund for non-health disciplines which supports research commercialisation in priority areas. The design of such a fund should concentrate on enhancing the absorptive capacity of industry and universities to identify, nurture and scale new ideas and enterprises. This will enable stronger understanding of supply chains, business needs and skills, providing the basis for deeper, longer term collaboration.  It would ideally be governed by the ongoing advisory committee proposed below (see: Enabling recommendation 2 ). While the fund is discussed as a concept in the body of this submission, the Go8 would be pleased to provide greater detail on a proposed scheme.

Enabling recommendations

  • That the Government commit to a principle of ongoing co-design involving industry, universities and government of any material initiative to uplift Australia’s research commercialisation performance.
  • The committee should have a function to nuance the understanding of the problem of low research commercialisation in Australia, consider and fine-tune specific solutions to resolve this problem, and clarify the exact cause and effect relationship between industry-university collaboration and research commercialisation.
  • The committee’s advice would be informed by key findings presented to Government, including those not public, relating to the lessons, outcomes and impact of the Government’s historical efforts to address the research commercialisation issue and the industry-university nexus , alongside the multiple previous reviews on these matters.
  • That the Australian Government takes a persistent and coordinated approach to embedding research commercialisation as a major priority across its portfolios , and consistently champions university knowledge to industry and other stakeholders via its funding programs, strategies and new initiatives.
  • That the Government work with universities and industry to establish clear overall and sectoral targets for research commercialisation, with stepped out measures and necessary incentives for achieving these in the next five years and seek to regularly refresh this ‘roadmap’ as an instrument for continued effort across electoral cycles. Effective metrics are also needed to gauge and refine progress.
  • That the Government commission work to forecast the extent to which Australia can lift university research commercialisation and over what time period, given a range of circumstances and conditions . Given the predominance of SMEs in Australia’s business sector, this work should include a detailed investigation of the role of SMEs and how to raise their uptake and capacity to absorb university knowledge and innovation.
  • That a mapping of existing and historical measures in Australia to promote and drive university research commercialisation within institutions forms the basis for understanding progress in the last 20 years, where and how success occurs, what factors lead to a lack of pursuit of commercialisation or its failure, and whether there are any home-grown models peculiarly useful to our country’s context. Success and failure should be viewed as a spectrum, given that any progress along the pipeline both informs future effort and generates new skills and capability.
  • That distinct funding streams and greater focus be placed on the importance of early stage or proof of concept funding to ensure that more ideas are validated sufficiently for them to be advanced into the commercialisation cycle.
  • That the skills and workforce needs arising from the acceleration of university research commercialisation be clearly understood and matched with commensurate effort by government, universities and industry working together to build the capability needed, including but not limited to incentives and rewards. It is also important to recognise where Australia has skills gaps that cannot be filled without the recruitment of key international talent, particularly in terms of high-quality PhD students, who can help build national capacity in new and emerging industries.

Further Discussion

The Go8 considers many tenets in the Department’s consultation paper to be only partly true or misleading. To contend that a focus on university research would be a new approach, that settings favour pure research and universities have weak incentives to commercialise, dismisses the recent reforms of the Research Block Grants and the ARC Linkage Projects as well as reforms to measure the impact of research introduced by the National Innovation and Science Agenda (NISA). It also disregards initiatives such as the Go8 securing a $200 million partnership with IP Group to assist further commercialisation of research.

A more careful and precise definition is needed of the problem and what specifically in the Australian context reinforces the status quo , preventing progress , as a precursor to determining the most workable and sustainable solutions.

There are fundamental questions that could be explored further by Government, universities and partners to advance and fine-tune the thinking and proposals, in order to effectively set the environment up for success. For example:

  • What levels of commercialisation can realistically be reached given the dominance of SMEs – with a far lower historical level of innovation than large businesses [4] , [5] – in the Australian market, without significantly boosting their absorptive capacity, removing barriers and incentivising greater collaboration?
  • How precisely industry-university collaboration fosters research commercialisation , and how understanding this can assist in sharpening the measures to drive commercialisation?
  • Why failure may not be absolute failure . That an innovation did not proceed to commercialisation does not diminish the positive collateral or network effects elsewhere of the infrastructure established to support it or the skills developed in advancing it. Nor should success only be measured by those projects that are ultimately commercialised – metrics should also include how many are advanced some way down the pipeline.
  • The outcomes of the Government’s historical efforts to address this issue, and what we can learn from those , such as the aforementioned NISA measures, as well as revisiting previous evidence-based reviews and recommendations.
  • Whether insufficient time has passed to understand (and perhaps accumulate) the impact of recent reform, noting especially the long timelines of research translation and commercialisation [6] ?

It’s about the people and our own context.

Research commercialisation is primarily about people – not projects. Policy needs to incentivise support for entrepreneurs. We support the establishment of an Australian specific model based on our experiences and success, to complement appropriate examination of international exemplars.

It is not impossible for universities to effectively translate research in isolation. There are singular examples that can be celebrated and drawn from to better gauge what conditions contribute to success and what hurdles and challenges needed to be overcome. However, the capability to translate our research in such ways must be sustainable and sustained; for example, the University of Queensland’s commercialisation arm, UniQuest, has been extraordinarily successful [7] . It would be remiss to dismiss success of this kind, rather than forensically learning from it. UniQuest’s major experience gathered over 30 years in driving its commercial outcomes and expertise in deal-making could help inform an Australian approach to fostering research commercialisation.

The Go8 universities have historically had a comparatively strong record in commercialisation among their university peers. The Go8 record for 2017-2019 [8] compares favourably to CSIRO with strong Go8 performance in many areas including commercialisation revenue and new start-ups and spinouts. 

Go8 universities also have a growing record of major partnerships with multinationals and major Australian companies in deriving tangible R&D-based solutions to real-life problems, major research translation examples and demonstrated how well they can work with others in addressing the COVID pandemic [9] . 

Similarly, t here are insights to be gleaned from collective effort such as the joint commercialisation fund between CSIRO and four Go8 universities, Uniseed , Go8’s partnership with IP Group in a $200 million commercialisation deal signed in 2017 which has so far closed 12 funded Go8 innovations, and Cicada Innovations involving three Go8 and one non-Go8 universities for technology incubation.  Major innovation precincts involving Go8 universities have also emerged [10] . These should be considered as ongoing duplicable mechanisms in commercialising research. This effort should not be compromised by inappropriate implementation of the Government’s precincts statement [11] .

As a specific way of building the necessary culture for research commercialisation, the Government has a particular role and platform to promote further understanding across industry and universities . This is via its programs and policies. For research commercialisation to succeed, it will need to be consistently promoted and upheld by Government.  Conversely, Government will need to be clear about what its expectations are and in what contexts it expects research commercialisation to take precedence : for example, if there are areas it does not expect university research commercialisation to inhabit, and rather intends industry to innovate mostly through collaboration with other businesses or overseas stakeholders.

Lessons can and must be drawn from specific sectors; for example, the defence or space sectors could be examined for relevance across other sectors, championed by Government portfolios.

Diverse Government policy and initiatives can better interact to ensure that any measures to enhance research commercialisation are best placed to succeed. Greater strategic alignment between the Education and Industry portfolios as the two policy leads concerned may be needed. At an operational level this would also be useful. 

As the Go8 has previously advocated [12] , the RDTI cannot be disregarded as a mechanism to drive industry engagement with universities, given it is the single largest measure to support business R&D. 

It’s about a comprehensive expansion of our commercial potential

To draw together and capitalise in the long-term on the thinking and building blocks discussed, the Go8 recommends the Government establishes an Australian Translational Research Fund, at the heart of which is a nexus of people, ideas, and funding.

In this context, translation is the flow of ideas, whether emanating from basic or applied, curiosity-driven inquiry or solving industry problems, and whether into inventions, transfer of knowledge, policy, or commercialisation as start-ups and licences.

In the health area, Australia has the fundamental National Health and Medical Research Council (NHMRC) and the applied Medical Research Future Fund (MRFF) to span the discovery-translation-applied-commercialisation pipeline. At present no such mechanism exists for other disciplines across these two spectrums.

Such a fund would rely on and facilitate three priorities: the necessary people skills, connections and culture, the ideas driven by research and flowing into a collaborative risk-managed environment and the patient capital to translate, commercialise and apply research in areas crucial to our country’s well-being.

In addition to excellent research and industry know-how, the fund would build on several bases: industry incentivised by the RDTI,, successful programs for building skills (e.g. ARC Industrial Transformation Research Program) that could be scaled up, programs such as the Industry Growth Centres and Rural Research and Development Corporations (RDCs) demonstrating that sectoral approaches can be highly successful, and research infrastructure including NCRIS facilities that are often the basis for precincts and collaboration.

The concept of the fund is to implement a comprehensive model that systemises the effort to:

  • Drive awareness and absorptive capacity and skills of industry to take on ideas available to them.
  • Foster a strong mutual understanding by industry and academia of each other’s sectors, supply chains and capability.
  • Build skills by embedding people from industry and academia in each other’s organisations, thereby also building the ability to absorb the ideas and technology being translated.
  • Develop and strengthen an entrepreneurial culture in our research community spanning undergraduate, post-doctoral and early career researchers.
  • Expand the cohort of translational brokers – those people that have the skills to relay from academic to industry and vice versa – who know the opportunities that exist and how to capitalise on them.
  • Fund early-stage R&D translation, where the highest risks are, while also supporting venture capital investments into promising research discoveries and assist in their commercialisation on the right hand of the translation spectrum.

The Go8 does not at this point advocate specific funding sources or a quantum of funding, although Go8 members are individually advancing potentially workable and detailed proposals that elaborate upon the intentions above. Crucially, the fund would create a compounding effect of investment into new additional dollars for translation and be a shared model, ensuring that the commercial benefit of any research outputs both privatises profit and is redirected to sustainably support further rounds of partnership funding.

Specific remarks on the consultation paper

The Go8 broadly concurs with the following approaches suggested in the consultation paper:

  • The need to understand and activate those incentives that prompt business and university participation in research commercialisation. In addition, it should also be acknowledged that ‘bottlenecks’ will occur, once the research base is enhanced to be entrepreneurial and incentivised industry in place, without an expansion of the resources and experience to drive commercialisation as a professional skill and service. Third stream funding could assist with expanding such tech transfer and commercialisation capability.
  • The Go8’s 2020 blueprint Enabling Australia’s Economic Recovery through Supporting Research Excellence recommended the concentration of sustainable translation across national priority areas – including those areas in which we have leading edge capability; that are essential to the national fabric; where we can foster emerging industries; cannot afford to fall behind; and those whose future relies on digital or technological reform. A mission-based approach would ensure this. 
  • The further exploration of skills gaps [13] in both universities and business that need to be rectified for research commercialisation to scale up, including skills to foster understanding between universities and businesses, as well as innovation and industry facing skills in researchers. Initiatives should be implemented over sufficient time and with enough incentives to enable generational change. We need to increase the numbers of skilled people and establish new skillsets.
  • It is simplistic to suggest that SMEs know they must innovate but have insufficient access to university knowledge. Go8 experience shows that what often motivates resource and time-poor SMEs to work with universities is having a quality relationship with people and teams rather than IP portfolios.
  • The key is to establish how universities can adapt their usual modes of engagement to attract SMEs, alongside what due diligence SMEs should undertake, and what third party intermediary assistance is needed. While exemplar overseas initiatives exist for raising SME absorptive capacity (such as the UK Knowledge Transfer Partnerships), we cannot discount and instead should scale domestic programs such as the CRC-P schemes that also drive this as well as focus on workforce mobility measures to enhance the permeability between universities and industry.
  • The Go8 supports greater systemic focus on and is working towards improved recognition of and reward mechanisms to support university personnel translating their research and engaging with industry . More recognition is needed that the risk is not just to business, and that greater commercialisation by university entails as much of a personal and professional adjustment by academics as it does for business owners.
  • The stage-gated approach to designing a scheme, that also acknowledges the importance of having viable ideas, effectively validated, to flow through to the start of the commercialisation continuum . There is simply insufficient proof-of-concept support to enable the testing, prototyping, and confirmation of new discoveries to increase investors and industry’s confidence, as this stage is currently largely enabled by university discretionary funding (in part drawn from international student income).

The Go8’s recommended process of co-design and the ongoing committee goes to the governance questions posed in the paper . A collective effort is needed – one that promotes and reinforces positive collaboration between industry and universities.

Finally, any model developed to advance university research commercialisation must be a long-term sustainable approach if it is to progress Australia beyond the current levels. It is no coincidence that many nations’ comparative success touted in the discussion paper is due to their long-standing national commitments, which must be emulated here [14] .

Yours sincerely VICKI THOMSON CHIEF EXECUTIVE

Appendix: SCOPR 2019 – Go8 summary commercialisation outcomes and share of total outcomes

Survey of Commercial Outcomes from Public Research (SCOPR) collects data from 49 Australian and New Zealand universities, medical research institutes and publicly funded research agencies. It enables national and international benchmarking of respondents and helps to inform decisions by research organisations, government and industry stakeholders seeking to enhance industry engagement and research commercialisation.

Table: Institutional responses to the Survey of Commercial Outcomes from Public Research (SCOPR) – 2019 data

university research commercialisation consultation paper

The inaugural SCOPR conducted by Knowledge Commercialisation Australasia (KCA) covers the calendar years 2017, 2018 and 2019. Forty-nine institutions including 34 Australian (of which 24 were universities) and 15 New Zealand research organisations responded to the survey.

The SCOPR report [16] published in 2020, charts institutional responses to the survey as per the above table.

SCOPR Measures

An invention disclosure describes an invention in detail and is used to determine its creators, novelty and potential for social impact and/or commercialisation.

A patent grants an inventor exclusive rights to the IP for a designated period in exchange for a comprehensive disclosure of the invention. Non-patented IP includes plant breeders’ rights, confidential know-how, registered designs, circuit layouts, trade secrets, software, trademarks, apps etc.

Licences, Options and Assignments (LOAs): Licences may grant another party (licensee) the rights to make/sell/ use the IP owned by the licensor. Options grant the potential licensee time to evaluate the IP and negotiate the terms of a licence agreement. Assignments convey all rights and title to, and interest in, the licensed IP to the assignee.

Spin-out and startup companies are founded through licensing or assignment of IP. Spin-outs are launched by the research organisation. Start-ups are launched by other parties through licensing or assignment of IP.

Commercialisation revenue is gross income from all LOAs, material transfers and sales of products or services based on expertise or IP, plus cashed-in equity, minus any cost of acquiring the equity. (Excluded: research funding, copyright income, non-cash value exchanged for equity holdings, value of equity not cashed-in, patent expense reimbursement, consultancies and contract research – unless or until new IP is created.)

[1] Data from the Survey of Commercial Outcomes from Public Research (SCOPR) conducted by Knowledge Commercialisation Australia (KCA): https://techtransfer.org.au/metrics-data/ [2] IISA in 2021 recommended investment in basic research does not fall given its importance to future commercial opportunities ( https://www.industry.gov.au/sites/default/files/2021-01/gov_investment_in_innovation_science_and_research.pdf ) [3] “Biden Pursues Giant Boost for Research Funding”, Nature , 9 April 2021, https://www.nature.com/articles/d41586-021-00897-0 [4] Businesses with 0-19 employees make up 97% of all businesses in Australia (ABS 2021, Counts of Australian Businesses). An earlier ABS survey (2020, Characteristics of Australian Business) found that around 36% of businesses in this size range introduced or implemented any innovation. Only 2.1% of innovating businesses in this size range accessed ideas or information for innovation from universities or higher education institutions (ABS 2020, Characteristics of Australian Business). [5] Lessons may be drawn in how this occurs from precincts surrounding UK and US universities – e.g. Cambridge UK and software & MIT and the Porter model – where SMEs are early adopters and Beta sites for testing new tech, products and services that then are exported into global markets when they have been optimised and their manufacture scaled. [6] As an example, it took 15 years for Gardasil to be commercialised: https://uniquest.com.au/impact_stories/a-global-solution-to-eradicating-cervical-cancer/ [7] See https://uniquest.com.au/industry-impact/ [8] https://techtransfer.org.au/landmark-survey-highlights-pathway-to-building-next-cochlear-and-csl/ [9] Further detail can be found in Go8 capability statements on space, defence, genomics and AI and Go8 research blueprint , or can be provided on request [10] For example, https://melbconnect.com.au/ [11] https://www.industry.gov.au/policies-and-initiatives/promoting-innovation-precincts [12] https://go8.edu.au/research-infrastructure-funding-a-win-but-rd-tax-incentive-an-economic-opportunity-missed [13] For example, this is discussed for the medical technology, biotechnology, pharmaceutical and digital health (MTP) sector at https://www.mtpconnect.org.au/reports/redi-skills-gap [14] The United States Small Business Innovation Research (SBIR) was established in 1982 while the Canadian industrial research assistance program began in the 1950s. [15] https://techtransfer.org.au/metrics-data/ [16] https://techtransfer.org.au/wp-content/uploads/2020/09/SCOPR-REPORT-FINAL-for-web.pdf

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Mars innovation revolutionizes approach to commercialization.

university research commercialisation consultation paper

MaRS Innovation (MI) is attracting global attention—and global investors—for a novel model that solves the three biggest challenges to early-stage commercialization: generating robust deal flow, financing young companies and recruiting experienced entrepreneurs.

“I call it the three ‘Ms’: merchandise, which is the deal flow and intellectual property, the money and experienced management,” says Raphael Hofstein, president and CEO of MI.

MI was launched in 2008 as a Centre of Excellence for Commercialization and Research (CECR) to improve how discoveries from academic institutions in the Greater Toronto Area (GTA)— one of the world’s largest innovation hubs— get translated into new products and services, globally competitive companies and highly skilled jobs. Part technology accelerator and part seed investor, MI’s innovative model has brought $150 million in new investments, 300 new jobs and 40 new companies to Ontario.

“When we dealt with MI it was more like the experience we have with a seed financer or early stage investor. They make doing business with them quite easy,” says Ilan Zipkin, senior investment director at Takeda Ventures, Inc., in Palo Alto, CA, the venture capital arm of Japanese-headquartered Takeda Pharmaceutical Company.

As any angel investor or venture capitalist will tell you, one of the main ingredients for success is a steady flow of promising business opportunities. Coming up with a critical mass of deal flow is a challenge for a single university, even one as large as the University of Toronto which ranks among North America’s leaders in new invention disclosures.

In a good year, a large university may identify 100 promising academic discoveries, with about 10 selected for further development and perhaps a couple maturing to the point where they can be licensed or spun-off into a new company.

“Good luck trying to build a sustainable business around two opportunities a year,” says Dr. Hofstein. “That’s why MaRS Innovation was formed. We’ve found the right balance between quantity and quality. It’s a revolutionary change in addressing the challenges of traditional academic tech transfer and it is a model for others to emulate.” Several international delegations have visited MI to learn about its model, including groups from California, the U.K. and Japan.

MI is the largest commercialization initiative of its kind in Canada, and provides an easy gateway for investors and licensees interested in accessing the most commercially promising intellectual property from 15 Toronto-area universities, hospitals and research institutes. The model creates a robust deal flow and streamlined approach to advancing both the technology and its business case.

MI staff work with academia, industry, venture capitalists, angel investors and government to commercialize inventions with the highest potential, using a technology assessment process backed by solid market analysis, technical knowledge and business acumen. That process includes assessing, filing and protecting intellectual property, and developing and executing a business plan. MI also provides proof of principle funding to prepare the technology for more advanced financing (e.g, a Series A venture capital funding round), and has attracted investment levels typically seen in the U.S.: between $10 million and $30 million, as opposed to the less-than $5 million typically seen in most Series A investments in Canada, particularly for health technologies.

“We have brought the GTA system to the level of the big leaders, comparable to what you would see in the Silicon Valley and Boston clusters,” says Dr. Hofstein.

Proven technologies are either licensed or spun off into new companies, often led by MI staff, with licensing fees, royalties and/or equity returns flowing back to MI and its members. Other inventions are blended or packaged together to make them more attractive to investors.

“You won’t find too many jurisdictions in the world where you have this level of cooperation and collaboration within academia,” says Dr. Hofstein. “It has enabled MaRS Innovation to assess close to 300 inventions each year. In the end, we may end up with 15 that are spun off into companies or licensed annually, which is enough to start building a very powerful portfolio. I truly believe this is the only way commercialization can become meaningful.”

Bridging the financing “valley of death”

A key ingredient to MI’s success has been its ecosystem approach to early-stage financing. For example, its Strategic Industry Partnerships see six major pharmaceutical companies (Johnson & Johnson, GlaxoSmithKline, Pfizer, Merck, Baxter and LifeLabs), together with MI, identify, fund and advance early-stage technologies. In return for their investment, partners receive a “first look” at data from the project to facilitate further licensing discussions. This partner funding can also leverage money from other sources, such as the Ontario government or Genome Canada.

“Our Strategic Industry Partnerships address the shortage of pre-seed financing in Canada—that infamous valley of death between research and market—and helps lower the risk of technology advancement by sharing the costs with industry. It’s also an opportunity to engage industry in what we do in the early stage,” says Dr. Hofstein.

In addition, MI leverages funding and support from other commercialization centres and accelerators, including three CECRs it helped found: the Centre for Commercialization of Regenerative Medicine (CCRM), the Centre for the Commercialization of Antibodies and Biologics (CCAB) and the Accel-Rx Health Sciences Accelerator, a partnership between five CECRs and BDC Capital that provides up to $500,000 in seed capital.

In February, Accel-Rx, BDC Capital, MI and other partners invested $2 million in ScarX Therapeutics, a spin-off of MI and Toronto’s Hospital for Sick Children that is commercializing a topical prescription cream developed by orthopedic surgeon Benjamin Alman. The cream promises to treat and prevent scars following surgery. The investment will allow ScarX to complete a Phase 1 clinical trial of its lead candidate, SCX-001 and position the company for Series A financing.

Since its launch, MI has assessed over 1,500 technology disclosures, invested $22 million in 169 projects, secured $159 million in external investment ($95 million from outside of Canada), created 370 jobs, and launched 41 companies and more than 80 technologies across several sectors, from drug development, molecular diagnostics and medical devices to solar energy, water reclamation and mobile apps. As part of its mandate to achieve self-sustainability, MI takes a 25 percent equity stake in its portfolio companies , equity that will later be converted to revenue to finance MI’s operations and future investments.

Another MI life sciences company is Encycle Therapeutics, a Toronto biotechnology start-up founded by Andrei Yudin of the University of Toronto and developed in partnership with MI and Montréal-based CQDM. The company has developed a unique drug discovery platform that offers a fast, inexpensive and industrialized way to synthesize new orally available macrocycle drugs for attacking “undruggable” diseases such as inflammatory bowel disease and fibrosis.

In 2015, Encycle closed a $3-million financing round that included Takeda Ventures, Accel-Rx, BDC and the MaRS Investment Accelerator Fund.

“Just having the promise of a technology isn’t enough to attract investors,” says Encycle president and CEO Jeffrey Coull, a serial entrepreneur and neuroscientist. “The funding from MaRS Innovation and a few other entities allowed us to collect the data needed for patent protection and to demonstrate to investors that the technology can do what we say it can do.” That seed funding improves Encycle’s chances of attracting an additional $20 million in Series A funding in 2016 to move the technology into human clinical trials.

Dr. Coull also credits MI for its approach to bringing on board experienced managers, something Dr. Hofstein insists is usually “far more significant than even the technology.” Dr. Coull says the centre helps “de-risk the opportunity” by offering executives the chance to lead other MI portfolio companies if the first spin-off doesn’t work out.

“MaRS Innovation really has the right approach,” says Dr. Coull. “It is focused on entrepreneurs and small companies and developing a technology until it’s mature enough to license or transfer to a larger corporation.”

Takeda’s Dr. Zipkin agrees. He says MI made Encycle an even more appealing investment by advancing the technology, protecting the intellectual property and bringing in experienced management.

“Without that initial seed capital, without the physical infrastructure, without the people at MaRS Innovation working with Andrei (Yudin) and the founders to pull together a team, the company may not have happened,” he adds.

Return on investment within reach

MI forecasts that its lead companies and assets will begin generating meaningful revenues in 2019, notably through milestone and royalty payments from major licensees such as GE Healthcare, GS Dunn, 3M, LapCorp and Pfizer. Triphase Accelerator Corp., a biotechnology company in MI’s portfolio developing a lead candidate to treat multiple myeloma, is also positioned to generate revenue within that period through its strategic partnership with global biopharma company Celgene.

Dr. Hofstein says he’s optimistic that continued support from the provincial and federal governments can be secured until MI’s revenues begin to flow.

“Our end goal is to become financially independent, but that will require continued government investment for the next five to ten years,” says Dr. Hofstein. “We now have the deal flow in place and it’s reaching maturation. The model works. We’re proving it every day.”

university research commercialisation consultation paper

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ortolano at stanford.edu

university research commercialisation consultation paper

Curriculum Vitae

is a specialist in environmental and water resources planning, with a focus on the design and implementation of environmental policies and programs in the United States and developing countries. Current research includes studies of: (1) policies for environmental planning and management in China and South Asia; (2) corporate environmental management; (3) delivery of water supply and sewerage services to disadvantaged communities; and (4) community-based organizations. In addition to his research activities, Professor Ortolano has worked as an environmental engineer for the U.S. Public Health Service and as a consultant to environmental management firms and agencies as well as international development aid organizations. Professor Ortolano has received two Fulbright-Hays grants: one as a visiting professor at the Istituto di Ricerca Sulle Acque in Rome (1978-79); and a second as a visiting professor at the École Nationale des Ponts et Chaussées in Paris (1978-88). He received the Lillian and Thomas B. Rhodes Prize for Excellence in Undergraduate Teaching in 1996, and the Eugene L. Grant Award for Excellence in Teaching in 2005. Between 2003 and 2006, Professor Ortolano served as director of Stanford's Haas Center for Public Service, and from 1980 to 2003, he was director of Stanford’s Program on Urban Studies. 

Download full curriculum vitae

B.S., Civil Engineering, 1963 (magna cum laude), Polytechnic Institute of Brooklyn M.S., Ph.D., Engineering, 1966, 1969, Harvard University (Major - Water Resources Planning; Minors - Economics and Operations Research)

Professional Experience

Professor (formerly Assistant Professor, 1970-1973, and Associate Professor, 1974-79), Department of Civil and Environmental Engineering, Stanford University, 1970-present. Director of the Haas Center for Public Service, 2003-2006. Director of the Graduate Program in Resources Planning, formerly Infrastructure Planning and Management, 1975-1988. Director of the Undergraduate Program on Urban Studies, 1980-2003. Principal Investigator on research contracts and grants from the U.S. Army Corps of Engineers Institute for Water Resources, the Office of Water Research and Technology, the National Science Foundation, the Environmental Protection Agency, etc. Private consultation for firms (e.g., ESSA Technologies Ltd.), U.S. government agencies (e.g., Environmental Protection Agency and Council on Environmental Quality), governmental agencies in developing countries (e.g., Columbia's Ministry of the Environment and China's State Environmental Protection Administration), international agencies (e.g., World Health Organization and Economic and Social Commission for Asia and the Pacific), international research organizations (e.g., East-West Center and International Institute for Applied Systems Analysis), international non-governmental organizations (e.g., the World Commission on Dams), and international development agencies (e.g., the Asian Development Bank and the World Bank). Workshops and shortcourses on various aspects of environmental policy design and environmental planning and management in Brazil: China, Colombia, Ecuador, Indonesia , Italy, the Philippines, and Taiwan.      

H onors and Awards

  • American Collegiate Schools of Planning Chester Rapkin Award for the Best Paper in the Journal of Planning Education and Research in 2012 (Volume 30): Schaffer Boudet, H. and L. Ortolano, "A Tale of Two Sitings: Contentious Politics in Liquefied Natural Gas Facility Siting in California."
  • Lillian and Thomas B. Rhodes Prize for Excellence in Undergraduate Teaching, June, 1996
  • Eugene L. Grant Award for Excellence in Teaching, June, 2005
  • American Collegiate Schools of Planning 2012 Chester Rapkin Best Paper Award (with Hilary Schaffer-Boudet)
  • Graduate Fellowships from the U.S. Public Health Service and the Federal Water Pollution Control Administration, 1965-68
  • Resources for the Future Natural Resources Fellowship, 1968-69
  • Fulbright-Hays Research Grant, Rome, Italy, January-August, 1979
  • Fulbright-Hays Research Grant, Paris, France, September, 1987-August, 1988
  • Fellowship from the French Ministry of Foreign Affairs for a scientific exchange visit ("Stage scientifique de haut niveau") January-August, 1988
  • Lectureship from the National Science Council of the Republic of China, July, 1991

Recent Journal Publications 

Qiu, Y., Ortolano, L. and Y. D. Wang, 2013, Factors influencing the technology upgrading and catch-up of Chinese wind turbine manufacturers:  Technology acquisition mechanisms and government policies, Energy Policy. Vol. 55 (April) pp. 305–316.

Zhou, X., Lian, H., Ortolano, L. and Y. Ye, 2013, A Behavioral Model of Muddling Through in the Chinese Bureaucracy: The Case Of Environmental Protection Regulation, The China Journal. No. 70 (July) pp. 120-147.

Zuin, V. Ortolano, L. and J. Davis, forthcoming, The entrepreneurship myth in small-scale service provision: Water resale in Maputo, Mozambique, Journal of Water, Sanitation and Hygiene for Development.

Scruggs, C. E.,  L. Ortolano, M. R. Schwarzman, and M. P. Wilson,  forthcoming, The Role of Chemicals Policy in Improving Supply Chain Knowledge and Product Safety, Journal of Environmental Studies and Sciences.

Ortolano, L., Sanchez –Triana, E., Afzal, J., Ali, C.L. and S. A. Rebellón,    forthcoming, Cleaner Production in Pakistan's Leather and Textile Sectors, Journal of Cleaner Production.

Hooper, M. and L. Ortolano, 2012, Confronting Urban Displacement: Social Movement Participation and Post-Eviction Resettlement Success in Dar es Salaam, Tanzania, Journal of Planning Education and Research . Vol. 32, No. 3, pp. 278-288.

Hooper, M. and L. Ortolano, 2012, Motivations for Urban Social Movement Participation in Africa: A Study of Slum Dweller Mobilization in Kurasini, Dar es Salaam, Environment and Urbanization , Vol. 24, No. 1: 99 – 114.

Scruggs, C. and L. Ortolano, 2011, Creating Safer Consumer Products: The Information Challenges Companies Face, Environmental Science & Policy , Vol. 14: 605-614.

Zuin,V., Ortolano, L. Alvarinho, M., Russell, K., Thebo, A. , Muximpua, O. and J. Davis, , 2011, Water resale to neighbors in Maputo, Mozambique: price, service quality, and user satisfaction, Journal of Water and Health , Vol. 9, No. 4 : 773-784.

Choy, M. S. , Johnson, S.A. and L. Ortolano, 2011, Teaching Negotiation in the Context of Environmental Regulatory Enforcement: An Experiential Learning Approach, Applied Environmental Education and Communication, Vol. 10, No. 2: 105-115.   

Millard-Ball, A. and L. Ortolano, 2010, Constructing Carbon Offsets: The Obstacles to Quantifying Emission Reductions, Energy Policy . Vol. 38, No. 1, pp. 533-546.

Zhang, X., L. Ortolano, and  Z.  Lv, 2010, “Agency Empowerment through the Administrative Litigation Law: Court Enforcement of Pollution Levies in Hubei Province, China,” The China Quarterly , No. 202, pp. 307-326.   

Zhang, X. and L. Ortolano, 2010, "Judicial Review of Environmental Administrative Decisions: Has It Changed Agency Behavior?" The China Journal , No. 64, pp. 97-119.

Zhao, X. and L. Ortolano, 2010, “Implementing China’s National Energy Conservation Policies at State-Owned Electric Power Generation Plants,” Energy Policy , Vol. 38, Issue 10, pp. 6293-6306. 

Schaffer- Boudet, H. and L. Ortolano, 2010, A Tale of Two Sitings: Contentious Politics in Liquefied Natural Gas Facility Siting in California," Journal of Planning Education and Research , Vol. 30, No. 1, pp. 5 –21. 

Ortolano, L., Baumont, S. and G. Puz, 2009, Implementing Programs to Reduce Nitrate Pollution from Agriculture in Brittany, France, International Journal of Water Resources Development . 25 (4):641-656.

Ru, Jiang, R. and Leonard Ortolano, 2009. “Development of Citizen-Organized Environmental NGOs in China.” Voluntas: International Journal of Voluntary and Nonprofit 20: 141-168.

Chang, C. and L. Ortolano, 2008, “Analyzing Beijing’s In-Use Vehicle Emissions Test Results Using Logistic Regression,” Environmental Science and Technology . Vol. 42, No. 19, pp 7309–7314.

Rutherford, D. and L. Ortolano, 2008, "Air Quality Impacts of Tokyo's On-Road Diesel Emission Regulations," Transportation Research Part D: Transport and Environment , Vol. 13, No. 4, pp. 239-254.

Warwick, M. and L. Ortolano, 2007, “Benefits and Costs of Shanghai’s Environmental Citizen Complaints System,” China Information,  Vol. 21, No. 2, pp. 237-268.

Nance, E. and L. Ortolano, 2007, "Community Participation in Urban Sanitation: Experiences in Northeastern Brazil," Journal of Planning Education and Research,  Vol. 26 ,  No. 3  , pp. 284-300.  

He, H.  and L. Ortolano, 2006, “Implementing Cleaner Production Programs in Changzhou and Nantong, Jiangsu,” Development and Change, Vol. 37, No. 1, pp. 99-120.

Ohshita, S. and L. Ortolano, 2006, Effects of Economic and Environmental Reform on Diffusion of Cleaner Coal Technology in China, Development and Change, Vol. 37, No. 1, pp. 75-98.

Ernesto Sánchez Triana and L. Ortolano, 2005, “Influence of Organizational Learning on Water Pollution Control in Colombia’s Cauca Valley,” International Journal of Water Resources Development , Vol.21, No.3, pp.493-508.

He, H.  and L. Ortolano, 2005,  “Transferring Cleaner Production Technologies to Industries in   Changzhou and Nantong, China,” International Journal of Environmental Technology and Management , Vol.5, Nos..2/3, pp. 276-299.

Carter, N. and L. Ortolano, “Implementing Government Assistance Programs for Water and Sewer Systems in Texas Colonias,” International Journal of Water Resources Development , Vol.20, No.4, (December, 2004), pp.553-564.

Ohshita, S. B. and L. Ortolano, "From Demonstration to Diffusion: the Gap in Japan's Environmental Technology Cooperation with China," International Journal of Technology Transfer and Cooperation, Vol.2, No.4 (2003), pp.351-368.

He, H., L. Ortolano and H. Shi, "Cleaner Production Programme in Taiyuan City, China," International Journal of Technology Transfer and Commercialization ," Vol.2, No.1 (2003), pp.65-88.

Zhao, J. and L. Ortolano, "The Chinese Government's Role in Implementing International Environmental Agreements: the Case of the Montreal Protocol ," The China Quarterly , No. 175, pp. 708-725 (2003).

Ortolano, L. and K. K. Cushing, "Grand Coulee Dam Seventy Years Later: What Can We Learn?" International Journal of Water Resources Development , Vol.18, No.3 (2002), pp.373-390.

Ohshita, S. B. and L. Ortolano, “The Promise and Pitfalls of Japanese Cleaner Coal Technology Transfer to China,” International Journal of Technology Transfer and Commercialization , Vol.1, Nos.1/2 (2002), pp. 56-81.

Guikema, S., L. Ortolano, S. B. Ohshita and P. Collins, “Using Simulation to Teach Negotiation Processes to Environmental Engineers ,” Journal of Engineering Education , (October, 2001), pp. 631-635.

Sanchez-Triana, E. and L. Ortolano, “Organizational Learning and Environmental Impact Assessment at Colombia’s Cauca Valley Corporation,” Environmental Impact Assessment Review , Vol.21, No.3 (2001), pp. 223-239.

Ebrahim, A. and L. Ortolano, “Learning Processes in Development Planning: A Theoretical Overview and Case Study,” Journal of Planning Education and Research , Vol.20, No.4 (2001), pp.448-463.

university research commercialisation consultation paper

IMAGES

  1. Response to the University Research Commercialisation Consultation Paper on behalf of The Group

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  2. Student Research Commercialisation

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  3. University commercialisation programme is all about creating research impact not just new spin

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  4. ACDS submission to University Research Commercialisation consultation paper

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  5. Research Commercialisation for the Community

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  6. Research commercialisation needs more measurement

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COMMENTS

  1. PDF University Research Commercialisation Consultation Paper

    Deputy Vice-Chancellor (Research) 9 April 2021. EmploymentBy email: [email protected] Mr Connolly,Thank you for the opportunity to provide feedback on the University Research Commercialisation Consultation Paper released by the Hon. Alan Tudge, Minister for Education, on 26 February 2021.In preparing our submission we consulted our ...

  2. University Research Commercialisation Consultation paper

    A consultation paper was released on Friday 26 February 2021 outlining the issues, missions, rationale, and design elements of a university research commercialisation scheme, and invited submissions from interested parties and members of the public. Submissions closed on Friday 9 April 2021. Period. 1 Apr 2021. Work for.

  3. PDF University Research Commercialisation Consultation Paper

    The University of Melbourne welcomes the opportunity to respond to the DESE's University Research Commercialisation Consultation paper and recognises the potential to enhance the economic and social benefits of greater university and industry research translation, including commercialisation.

  4. PDF University Research Commercialisation

    University Research Commercialisation Consultation paper We are seeking views on the development of a model for university research commercialisation (URC) and possible mechanisms to incentivise and increase partnerships between businesses and universities. The issues, rationale and key design elements of a new scheme are outlined below with

  5. PDF University Research Commercialisation

    Commercialisation Consultation paper We are seeking views on the development of a model for university research commercialisa9on (URC) and possible mechanisms to incen9vise and increase partnerships between businesses and universi9es. The issues, ra9onale and key design elements of a new scheme are outlined below with

  6. PDF University Research Commercialisation Consultation Paper

    * Please note that IMCRC's submission to the discussion questions in the University Research Commercialisation Consultation Paper comprises pages 3 - 10 (word count: 1351). The supporting quotes as well as the additional information about our organiation have been . excluded from the word count.

  7. Consultation on research commercialisation

    A consultation paper was released on Friday 26 February 2021 outlining the issues, missions, rationale, and design elements of a research commercialisation scheme, and invited submissions from interested parties and members of the public. ... you raised several suggestions to improve the translation and commercialisation of university research ...

  8. PDF Submission to The University Research Commercialisation Consultation Paper

    UNIVERSITIES AUSTRALIA | SUBMISSION TO THE UNIVERSITY RESEARCH COMMERCIALISATION CONSULTATION PAPER 3 In line with the approach above, Universities Australia also notes the major recent R&D investments and initiatives announced by the NSW and Victorian Governments. Any design should take these and other state initiatives into consideration.

  9. Submission to the University Research Commercialisation consultation paper

    A consultation paper was released on Friday 26 February 2021 outlining the issues, missions, rationale, and design elements of a university research commercialisation scheme, and invited submissions from interested parties and members of the public.Submissions closed on Friday 9 April 2021.

  10. PDF University Research Commercialisation April 2021

    Employment's (DESE) University Research Commercialisation (URC) Scheme Consultation Paper (the Paper). Our submission focuses on the proposed mission-based approach to research commercialisation in the context of a broader research translation agenda designed to deliver durable . social and economic benefits.

  11. PDF University Research Commercialisation Scheme consultation paper

    Commercialisation Scheme consultation paper 9 April 2021 a se g.au GPO Box 4055 Melbourne, 3001 VIC, Australia T + 61 3 9864 0900 F + 61 3 9864 0930 E [email protected] . 1 UNIVERSITY RESEARCH COMMERCIALISATION SCHEME CONSULTATION PAPER ATSE welcomes the opportunity to provide input into the design of the University Research Commercialisation ...

  12. Submission to the University Research Commercialisation Consultation paper

    Submission to the University Research Commercialisation Consultation paper. Universities Australia welcomes the opportunity to make a submission to the University Research Commercialisation consultation. Download the full submission (192.21 KB) submission. Safety & Wellbeing.

  13. Submission: University Research Commercialisation Consultation Paper

    University Research Commercialisation Consultation Paper On 14 April 2021 the Academy of the Social Sciences in Australia made a submission to the Department of Education, Skills and Employment's University Research Commercialisation - Consultation Paper.

  14. Ua Welcomes Discussion on Research Commercialisation

    Education Minister Alan Tudge today released the University Research Commercialisation consultation paper seeking feedback from universities, business and the community on how to maximise the social and economic benefits of Australia's multi-billion-dollar university research sector. ... "The research commercialisation discussion is an ...

  15. PDF University Research Commercialisation

    ideas, drawing resources away from them. For a paper on the commercialisation of research, the focus on Missions can seem a little incongruous. This is because the Consultation Paper describes Missions as 'usually set by a government agency and/or group of experts' (rather than industry, entrepreneurs or investors).

  16. PDF University Research Commercialisation

    consultation paper on University Research Commercialisation. CEDA is an independent, membership-based think tank, with almost 700 members across the business, government and not-for-profit sectors, including most Australian universities. CEDA pursues better economic and social outcomes for the greater good.

  17. Response to the University Research Commercialisation Consultation

    The aim of the discussions was to identify constructive measures to increase the economic and social dividend from Australian university research. The roundtable covered many issues relevant to the development of a university research commercialisation scheme being consulted on by the Department of Education, Skills and Employment (DESE).

  18. PDF Submission to the University Research Commercialisation consultation paper

    The ACDS is pleased to respond to the consultation paper University Research Commercialisation issued by the Department of Education, Skills and Employment. It acknowledges and supports the need for considerable improvement in the translation of Australia's university research into commercial and social outcomes. It congratulates the

  19. Go8 response to the University Research Commercialisation Consultation

    April 16, 2021. URCS Secretariat Australian Government Department of Education, Skills and Employment. Introduction. Thank you for the opportunity to respond to the University Research Commercialisation Consultation Paper released on 26 February 2021.. Please note that this submission represents the broad, collective views of the Go8, Australia's leading-research intensive universities with ...

  20. MaRS Innovation revolutionizes approach to commercialization

    Smaller. MaRS Innovation revolutionizes approach to commercialization. MaRS Innovation (MI) is attracting global attention—and global investors—for a novel model that solves the three biggest challenges to early-stage commercialization: generating robust deal flow, financing young companies and recruiting experienced entrepreneurs.

  21. Research

    Research. A solar-powered cooler that lets doctors deliver vaccines to desert-dwelling communities faster. A mobile mission control laboratory that tracks and manipulates government satellites. Water purification technology that could save hundreds of lives. Santa Clara students and faculty work together, and independently, on groundbreaking ...

  22. University of California, Santa Cruz Silicon Valley Initiatives

    SVLink is a non-profit run by the University of California, Santa Cruz and managed by the Office of Industry Alliances and Technology Commercialization (IATC) at the Silicon Valley Campus. It was established in 2018 to help startup companies with new innovations get ready for commercialization. Applications are reviewed by a committee of UCSC ...

  23. Leonard Ortolano

    Leonard Ortolano is a specialist in environmental and water resources planning, with a focus on the design and implementation of environmental policies and programs in the United States and developing countries. Current research includes studies of: (1) policies for environmental planning and management in China and South Asia; (2) corporate environmental management; (3) delivery of water ...