THE DEVELOPMENT OF A CONCEPTUAL MODEL FOR DRIVING … Second Report Revised20101122... · 2016. 9....
Transcript of THE DEVELOPMENT OF A CONCEPTUAL MODEL FOR DRIVING … Second Report Revised20101122... · 2016. 9....
Cape Higher Education Consortium
THE
DEVELOPMENT OF A CONCEPTUAL
MODEL
FOR DRIVING INNOVATION
IN THE WESTERN CAPE
Research Report 2:
International lessons and examples
26 October 2010 (revised 22 November 2010)
Prepared by ODA and Allan Taylor Consulting
Allan Taylor Consulting
© CHEC, 2010
Contact details:
ODA (Pty) Ltd
Contact Martin Nicol
Practice Leader: Economic Policy and Research, ODA
Postal address PO Box 16526, Vlaeberg, 8018
Physical address Unit F3, 155 Loop Street, Cape Town.
Telephone 021 4222 970
Facsimile 021 4222 934
Cell phone 082 554 9880
E-mail [email protected]
Web www.oda.co.za
Allan Taylor Consulting
Contact Allan Taylor
Telephone 021.685.4304
Facsimile 086.671.7437
Cell phone 072.200.5900
E-mail [email protected]
Second Report: International Lessons and Examples Page 3 Revised
Contents
Background –where the report fits in ................................................................ 6
The Innovation Hub – case study ....................................................................... 9
HISTORY AND LESSONS LEARNT FROM THE INNOVATION HUB EXPERIENCE ............. 9
1. Introduction ........................................................................................................................ 9
2. Chronology of development of the Innovation Hub ......................................................... 9
3. Successes and Failures of the Innovation Hub ................................................................17
4. Replicating the Science Park concept elsewhere in South Africa .................................. 22
5. Conclusion ......................................................................................................................... 25
6. Commentary ...................................................................................................................... 26
Literature review conclusions .......................................................................... 31
1. The importance of context ................................................................................................ 31
2. International perspectives on driving innovation .......................................................... 45
3. CHEC conclusions from Barcelona and England ........................................................... 56
4. Science Park issues in the literature ................................................................................ 61
Bibliography .................................................................................................... 68
Appendix ......................................................................................................... 72
CHEC, “Planning to make the best use of Universities in promoting economic and social
development” (2009) ............................................................................................................... 72
Acknowledgements We are most grateful to all the people we interviewed and consulted with in preparing this
report.
Second Report: International Lessons and Examples Page 4 Revised
List of Abbreviations and Acronyms
AMTL Advanced Manufacturing Technology Laboratory (at CPUT)
AMTS Advanced Manufacturing Technology Strategy
BRIC Biotechnology Regional Innovation Centre
CEO Chief Executive Officer
CHEC Cape Higher Education Consortium
CIMM Cape Initiative in Materials and Manufacturing
CoE Centre of Excellence
COFISA Cooperation Framework on Innovation Systems between Finland and SA
CPUT Cape Peninsula University of Technology
CRC Cooperative Research Centres
CSIR Council for Scientific and Industrial Research
DEDT Department of Economic Development & Tourism, Western Cape Provincial
Government
DST Department of Science and Technology
DTI Department of Trade and Industry
ECDI East City Design Initiative
ELIDZ East London Industrial Development Zone
ERC Engineering Research Centers (USA)
GEDA Gauteng Economic Development Agency
GEP Gauteng Enterprise Propeller
GIE Global Innovation Environments
HEFCE Higher Education Funding Council for England (UK)
HEI Higher Education Institution
IASP International Association of Science Parks
ICT information and communications technology
IDP Integrated Development Plan
IH Innovation Hub
IP Intellectual Property
ISPP Industry-student project programme
MOA Memorandum of Agreement
MoU Memorandum of Understanding
MRC Medical Research Council of South Africa
NACI National Advisory Council on Innovation
NCE Networks of Centres of Excellence (Canada)
NESTA National Endowment for Science, Technology and the Arts (UK)
NIS National Innovation System
NMMU Nelson Mandela Metropolitan University
NRF National Research Foundation
NSI National System of Innovation
NWDA North West Development Agency (UK)
PAMTS Provincial Advanced Manufacturing Technology Strategy (W Cape)
PCB Parc Científic de Barcelona (Barcelona Science Park)
PFMA Public Finance Management Act
PGWC Provincial Government of the Western Cape
PPP Public Private Partnership
PSC Project Steering Committee
R&D Research and Development
Second Report: International Lessons and Examples Page 5 Revised
R&D Research and Development
RALIS Rapid Appraisal of the Local Innovation System
RDA Regional Development Associations
RIS regional innovation system
SAIAMC South African Institute of Advanced Materials Chemistry (UWC)
SARChI South African Research Chairs Initiative
SERA Southern Education and Research Alliance (CSIR and UP venture to
participate in TIH)
SET science, engineering and technology
SLA Service Level Agreement
SME Small and Medium-sized Enterprises (SMME, includes ‘Micro’ enterprises).
The intention is to refer to individual- or family-owned business with fewer
than 200 employees.
SMME Small Medium and Micro Enterprise
SOE State-Owned Enterprises
SP science park
SPV Special Purpose Vehicle
STI Science, Technology and Industry
SRA Special Rating Area
STP Science/Technology Park
SU Stellenbosch University
the dti Department of Trade and Industry
THRIP Technology and Human Resources for Industry Programme
TIA Technology Innovation Agency
TIH The Innovation Hub
TRRA Toronto Regional Research Alliance
TTO Technology Transfer Office
UCT University of Cape Town
UdG Universitat de Girona (University of Girona)
UP University of Pretoria
URP university research park
UWC University of the Western Cape
VC venture capital
WSU Walter Sisulu University
Second Report: International Lessons and Examples Page 6 Revised
Background –where the report fits in
ODA and Allan Taylor Consulting were appointed by the University of the Western Cape
(UWC) (on behalf of CHEC) in July 2010 to undertake a six month research assignment on
Developing a Conceptual Model for Driving Innovation in the Western Cape.
The study is to support CHEC discussions and decision making on science parks and other
interventions to maximise the role of universities in innovation in the Western Cape.
The original proposal for the project which was approved by the DST focused specifically on
a science park in Bellville and the intention is that the research process will allow a decision
about this matter to be taken. The current proposal takes a broader view and considers the
demand for physical infrastructure to promote innovation in the context of a strategy for or
an analysis of “innovation culture”. The study will consider the best set of regional initiatives
(which may or may not include a science park) for the Western Cape, prioritising the role
that can be played by HEIs.
A service level agreement was entered into between UWC and ODA Pty (Ltd) in July 2010
which includes the terms of reference for the project.
The project programme specifies the following activity schedule:
Jul-
10
Aug-
10
Sep-
10
Oct-
10
Nov-
10
Dec-
10
Project Initiation
Situation Analysis in the Western
Cape
Careful review of COFISA report
Review of other documentation
Targeted interviews – W Cape
Targeted interviews – Gauteng
Research Report 1
International lessons and examples
Review of literature
Research Report 2
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Jul-
10
Aug-
10
Sep-
10
Oct-
10
Nov-
10
Dec-
10
Land and building issues
Issues related to the Bellville site
Other possible site issues
Research Report 3 (including insights from
R1&R2)
Consultations with PSC
Workshop with Provincial
Stakeholders
Final reports
This second report summarises desk-top research on international lessons related to the role
of universities in innovation. This includes triple helix relationships and relationships
between universities and business and society, in the context of innovation (defined in the
first report). It reflects on the role of science parks in innovation and their link to the HEI
sector.
The main example drawn upon for lessons on the implementation of a science park is that of
The Innovation Hub in Pretoria. With a ten year history behind it, TIH is the only example of
a formal science park in South Africa, being accredited as a member of the International
Association of Science Parks (IASP). The analysis of TIH rests on a series of interviews with
the present management of TIH, and its founders.
Interviews were held with the following people:
Innovation Hub, Pretoria
Mr Thibi Matshele:
Chief Operating Officer , The Innovation Hub, Pretoria 13.08.2010
08.00 – 09.30 Mr Nkhulu Maboya:
Assistant Marketing and Value added Services, The Innovation
Hub, Pretoria
Dr Neville Comins:
Interim Technical Advisor for Pre-Inception Phase : SA Innovation
Survey (SAIS) Programme (founder CEO of TIH)
23.08.2010
10.30- 12.00
Prof Robin Crewe, Vice-Principal: Research & Postgraduate
studies, University of Pretoria
27.08.2010
08.30- 09.00
Second Report: International Lessons and Examples Page 8 Revised
Other contacts:
Mr Davis Cook, the lead developer of the Gauteng Innovation Strategy; head of Economic Strategy for BlueIQ1 Investment Holdings, an agency of the Gauteng Department of Economic Development.
email contact
1 Blue IQ “is a multi-billion rand initiative of the Gauteng provincial government to invest in economic infrastructure development in identified mega-projects in the areas of tourism, technology, transport and high value-added manufacturing”. (www.southafrica.info/business/investing/help/blueiq.htm)
Second Report: International Lessons and Examples Page 9 Revised
The Innovation Hub – case study
HISTORY AND LESSONS LEARNT FROM THE INNOVATION HUB EXPERIENCE
1. Introduction
The Innovation Hub (IH) is the only internationally recognized Science Park in South
Africa2. The Hub is located on a large 60 hectare site on the N1/N4 crossing, in Pretoria,
opposite the CSIR campus. 31 ha of the property is earmarked for development, which will
eventually provide 121 000 sqm in commercial space. Currently, 24 600 sqm of office space
has been built and it is fully occupied. An expansion of 31 000 sqm is anticipated in 2011.
The Hub grew out of a double-helix partnership between the University of Pretoria, the CSIR
and the Gauteng Provincial Government’s Blue IQ initiative in 2000. Today it houses several
facilities, including coaching and incubation, to assist in driving innovation in the Province.
However, being the first of its kind the Innovation Hub has also experienced teething
problems over the 10 years of its existence. This chapter outlines the historical development
of the science park and elaborates on its success factors and the challenges it has faced in
establishing itself as an innovation driver in the region. Interviews conducted with IH staff,
the former IH CEO and the University of Pretoria have revealed lessons for other science
park initiatives in the country.
2. Chronology of development of the Innovation Hub
2.1 Birth and development of a Science Park
The Gauteng Provincial Government developed a Trade and Industry Strategy in 1994 that
aimed to influence the future growth path for the region. This was based on the fact that the
province boasted high education levels, a strong resource of intellectual capital and hosted
many national and international businesses. The Strategy specifically focused on stimulating
knowledge intensive services as an area for sector growth.
In order to identify possible projects to deliver in this growth sector, the CSIR undertook a
study in 1997, which resulted in the proposal to develop a science park (SP). Initially, some
members of the Gauteng provincial administration promoted the concept of an ICT park and
2 Recognition by the International Association of Science Parks.
Second Report: International Lessons and Examples Page 10 Revised
training facility in Samrand Park between Pretoria and Johannesburg. However this site did
not meet the requirement of being located close to knowledge generating institutions, one of
the success factors indicated by the Cabral Paradigm3, which was relied upon at the time. As
a result, the CSIR and University of Pretoria (UP) developed a partnership which was driven
by Prof. Johan van Zyl (then vice-chancellor and principal of the University of Pretoria) and
the CSIR CEO and President, Dr Geoff Garrett. The UP experimental farm was identified as
the ideal site for a SP as it was located adjacent to the CSIR and UP on the ‘knowledge axis’
between the two institutions. The selection of the site for The Innovation Hub was a strategic
decision and was envisaged to facilitate the flow of knowledge between the institutions and
assist in growing high-tech companies.
The concept of developing a SP on that specific site was presented to the then Gauteng MEC
who requested a formal proposal within a week. The proposal was approved and the
partnership between the research institutions and government was formalised in an Interim
Governance Committee in April 2000 consisting of two parties: Blue IQ (then in formation)
and the Southern Education and Research Alliance (SERA). SERA was a formal partnership
between UP and CSIR which became the responsible interface with government. In 2001, the
Gauteng Provincial Government launched its Blue IQ initiative “to oversee the
implementation of eleven mega projects in tourism, smart industries and value-added
manufacturing to stimulate sustainable economic growth in the region”.
Both Blue IQ and SERA were newly established and the process from conceptualization of
the SP to approval and implementation went very quickly. Within months the project was
launched and R 258 million was made available for the project by the Gauteng government.
The relationship between SERA and Blue IQ was formalized with the appointment of a Board
of Directors to guide the strategic direction of the project. The first Board meeting took place
in November 20005. Initially, shareholding between Blue IQ and SERA was split 50% each.
SERA had contributed the 60 ha tract of land and Blue IQ had put forward the funding for
the implementation of the bulk infrastructure (roads, water and sanitation, storm water,
highway bridges, fencing and several buildings etc). The Innovation Hub Management
Company would be run according to the 50/50 shareholding between SERA and Blue IQ.
3 Cabral, R. (2004) “The Cabral–Dahab Science Park Management Paradigm applied to the case of Kista, Sweden”. International Journal of Technology Management - Vol. 28, No.3/4/5/6 pp.419-43. 5 The Innovation Hub (2002) Annual Report 2002.
Second Report: International Lessons and Examples Page 11 Revised
However, shortly after establishment of the IH concept, the leadership of the participating
institutions changed and the successors to the initial champions at the CSIR and UP (ie.
SERA) reconsidered their role of being directly involved in the management of the initiative.
Similarly, Blue IQ management also changed and the province indicated that they wanted
ownership of the land. Subsequent to the purchase of the land for R 60 million from UP, the
shareholding with SERA was dissolved and the CSIR withdrew from the project. Blue IQ
became the sole management and implementation agent. This came into effect as from
March 2003.
Blue IQ implemented the bulk and accessibility infrastructure and built the Innovation
Building and the Enterprise Building. At the time, Provincial town planning regulations,
based on the Development Facilitation Act, was used for the site. However, this approach
was unpopular with cities as it was perceived to override their decision making powers. As a
result the City of Tshwane became an objector to the project which led to delays in getting
approvals on the rezoning and land transfer. The site was occupied in 2005.
The project had been well underway by the time that the buildings were occupied as the
Innovation Hub started off as a pilot project in 2001. The pilot, called Hub2B, was located at
temporary premises in Pretoria, and consisted of three elements:
• An Incubator (later named Maxum) which focused on providing incubation support
to SMEs in an economy where Small and Medium start-up firms attained very little
assistance,
• The Innov8 Community was established providing a marketing and communication
platform for sharing ideas between emergent firms, academia and the industry.
Characterized by constant communication, providing a knowledge centre, and
providing incubating companies with the opportunity to present their developments,
it grew its initial membership from 20 to 5,000 registered participants. In addition,
through the Innov8 Community, more than 100 business and information visits were
hosted at the pilot site6.
• The Innovation Hub Management Company (Pty) Ltd, the formal management
structure, was established to manage the physical implementation of The Innovation
Hub7.
The initial mandate of the Innovation Hub Management Company, as stipulated in the
Memorandum of Understanding and the Shareholders’ Agreement, was:
“To establish a high technology hub in Gauteng. The purpose of this hub is to
develop infrastructure to implement and stimulate high technology business [by
housing] high-tech firms and institutions as well as other essential components
6 The Innovation Hub (2002) Annual Report 2002. 7 The Innovation Hub (2002) Annual Report 2002.
Second Report: International Lessons and Examples Page 12 Revised
such as incubators, venture capital funders, etc that will form the basis for a
world class innovation corridor in the province. The hub will be located in the
Pretoria geographic area running from the University of Pretoria in the West to
the CSIR in the East.”8
Within its mandate the management company was responsible for the creation of a “world-
class facility with customised, state-of-the art infrastructure and value adding services and
networks that will provide tenants with a competitive advantage in their local and global
market places. The sustainability of the project will depend on an optimum tenant uptake
that will accelerate new knowledge creation and commercialisation through clustering,
networking and providing relevant business support services”9
From these initiatives it is clear that the IH provided Added Value services from the outset.
The Innov8 Community was so successful that it provided to be the main marketing platform
for the Hub. It assisted in filling the Enterprise and Innovation Building with incubating
companies in year one. The buildings were all fully occupied in the first year and almost one
hundred companies who also wanted to locate to the SP put their names on a waiting list.
When the site was occupied in 2005, the aim was that the IH would provide support to Start-
up Companies and SMEs through its Enterprise and Innovation Buildings. The intention was
that this would be underpinned by attracting multinational companies to the park who
would be allowed to purchase a land parcel on the site for the development of their facilities
pending strict entry criteria. As a result, Sappi (a SA-based global paper and pulp group) and
Bigen Africa (one of South Africa’s leading engineering consultancies) built their offices on
the site with the aim of them becoming anchor tenants in the park. The remainder of
resident companies are housed The Enterprise Building and the Innovation Centre.
However, Blue IQ changed the land sale policy in 2005, limiting the sale of land only to
government projects and special / strategic projects. The current model is based on the PPP
route of ‘build, operate, transfer’. The interested company is allowed to design, fund, build
and operate a building for a 40 year lease after which it is transferred to state ownership.
Under this model, the IH aims at allocating the land to 51% to government and 49% to
commercial ventures. Entry criteria are strict and are based on an international survey
conducted at the outset of the project (they utilize an entry criteria framework similar to that
followed in Hong Kong). However, this shift in land policy resulted in companies
8 The Innovation Hub (2002) Annual Report 2002. 9 The Innovation Hub (2002) Annual Report 2002.
Second Report: International Lessons and Examples Page 13 Revised
withdrawing interest in locating to the Innovation Hub and has resulted in no new
companies investing in their own buildings on the Hub.
There is some optimism that the market is increasingly developing interest in PPP models of
this kind. However, reservations persist about the brief lease period of 40 years, which is too
short for commerce to develop appetite for investment. Even a proposed increase to 50 to 60
years did not encourage developers who by this stage were disenchanted.
In future, as mentioned above, the IH will only sell land to government projects and special /
strategic projects. Two such initiatives are the Institute of Aviation Medicine (by the Defence
Department) and the University of Pretoria Institute of Molecular Science; the latter of
which was at the time of writing (August 2010) awaiting acceptance of the offer to purchase.
These two developments will more than double the current available space of the park by
31 000 sqm. The IH is also looking at expanding by adding two additional Enterprise
buildings. This will be government funded and assist in expanding current SME support and
incubation facilities.
The Innovation Hub is zoned as “The Innovation Hub” and has special zoning rights in order
to prevent retail or industrial development on the site. The descriptors for the zoning are the
entry criteria, which reinforces the purpose of the SP.10
The Hub has an Urban Masterplan that integrates infrastructure development with the core
of the SP’s business concept/ strategy through key urban design principles. The Masterplan
sets out the criteria for the development of the buildings on the site (not Tuscan Style, for
example!) and encourages the development of high quality infrastructure that will encourage
social exchange. For example the space is not dominated by huge car-parks. Most parking in
the complex is basement parking; people are encouraged to walk between buildings through
a pedestrian friendly design.
2.2 Activities and Initiatives
The IH’s focus is on 5 knowledge areas:
• ICT;
• Biotech;
• Aerospace;
• Energy and sustainable environment; and most recently
• Green Economy.
10 Internationally, however, there has been a movement towards third generation SPs that endorse mixed land use containing residential and retail facilities
Second Report: International Lessons and Examples Page 14 Revised
The Enterprise Building and the Innovation Centre house the majority of the resident
companies, while Sappi and Bigen Africa have (as mentioned above) built their own
premises.
Currently the Innovation Hub houses the following initiatives, each of which are described in
more detail below.
2.2.1 Open Innovation Platform: This is a new initiative that aims at opening up the innovation process by encouraging
partnerships with larger companies, agreeing on Intellectual Property rights and licensing of
an idea/ concept. This follows established international trends where companies no longer
rely only on their own, internal research and development departments, but buy in or
exchange with others the results they need. Open innovation means “collaborating with
external partners, whether suppliers, customers or universities, to keep ahead of the game
and get new products or services to market before () competitors.” (OECD 2008)11
2.2.2 Value-added services: The INNOV8 community is the IH’s high-tech business network with 5 000 members spread
out across Gauteng. As mentioned above, it started off as a central element within the Pilot
Hub2B in 2001. The community has grown substantially over the years and serves as a
networking and communication platform for “knowledge economy role players, including
academics, researchers, investors, financiers, business professionals and entrepreneurs.” By
11 OECD (2008) “Open Innovation in Global Networks”, OECD Policy Brief, November 2008 downloaded from http://www.oecd.org/dataoecd/48/35/41721342.pdf Note that “The term “open innovation” does not refer to free knowledge or technology. While “open source” refers to royalty-free technologies, “open innovation” refers to the collaborative methods applied, and may still imply the (significant) payment of license fees between companies for intellectual property”.
Business
assistance
• Maxum
Incubator
• Coachlab
Venue
Conference Venue, meeting
rooms and office facilities
Added Value Services:
INNOV8 community:
• Pub@Hub
• Power Breakfasts
Open Innovation
Platform
Initiatives:
• Tshwane Smart City
• Activator
The Innovation Hub
PRECINCT: creating a physical environment supporting high social exchange.
Second Report: International Lessons and Examples Page 15 Revised
drawing on the expertise and experience of various individuals and organisations, it is able to
provide the foundation for cross-fertilisation of concepts and ideas.12 Part of this networking
initiative, are the Pub@Hub networking sessions, which is a monthly Networking Event
and brings together “role players who control public investment funds and private
investment capital with those involved in generating new ideas and patents”13. In addition,
P•O•W•E•R breakfasts, provide networking opportunities at a smaller scale where a
select group of decision makers meet to “exchange information and identify promising
emerging ideas and technologies” with the aim to “strengthen links between business and
funding agencies”.
2.2.3 Initiatives Tshwane Smart City:
The Innovation Hub has been tasked with assisting the City to implement its Smart City
initiative. The Project aims to achieve the following:
• “Alignment and integration of the various research, educational institutions,
industry, government and the city to achieve economic benefits for the city and its
residents;
• Exploit the knowledge base in these institutions to create key economic clusters (i.e.
ICT, Biotechnology, and aerospace);
• Enhancement of city’s operations through use of smart technologies to provide
efficient service to the residents;
• Increase in knowledge and capacity through its relationship with the City of Oulu in
Finland;
• The regional innovation system will be a key stakeholder engagement forum for the
city;
• Strengthen the collaboration between BEE companies in Tshwane & their Finnish
counterpart;
• Job creation and alleviation of poverty through SMME development initiatives. “14
Activator:
Activator has been developed and implemented by the Innovation Hub and COFISA
(Cooperation Framework on Innovation Systems between Finland and South Africa) “to
promote multi-helix collaboration with the objective of involving and developing Small and
Medium Enterprises (SMEs) in large scale projects together with research partners, large
corporates and government.”
This includes:
12 The Innovation Hub Website. http://www.theinnovationhub.com/vas.cfm. 13 The Innovation Hub Website. http://www.theinnovationhub.com/vas.cfm. 14 The Innovation Hub Website. http://www.theinnovationhub.com/newsbits/vol7no07/news03.cfm
Second Report: International Lessons and Examples Page 16 Revised
• “Developing new collaborative projects involving SMEs (structuring calls for
proposals; advertising and securing stakeholder interest; evaluating, selecting and
structuring projects; and initiating project implementation);
• Securing external stakeholder involvement (investors, public support entities, large
industry, research and academia) and leveraging market opportunities to maximise
project sustainability;
• Nurturing collaborative projects towards sustainability;
• Developing sustainable collaborative projects which in turn provide opportunities for
SME involvement,
• SME spin-offs and job creation; and
• Bringing on board role-players who are able to provide business development
services that enable participating role-players, especially SMEs, to grow and
prosper.”15
Since the four year Cofisa project ended in February 2010, the Innovation Hub is now
running and funding Activator itself. Alternative funding sources are being sought.
2.2.4 Venue: The IH has a Conference Venue, 'hot offices' with plug-and-play connectivity, venues for
business breakfasts and banquets and meeting rooms with flexible functionality. These
provide emergent businesses with the full infrastructure menu required for successful
operation.
2.2.5 Business assistance Maxum Incubator:
As one of the core functionalities of the Innovation Hub, the Maxum Incubator assists start-
up companies “from the knowledge-intensive sectors including information and
communications technology (ICT), biosciences, electronics, and advanced manufacturing
and materials” with fast-tracking company growth in the early life-cylce stages in order to
improve survival rate, financial viability and business stability within the first years of a
company’s existence. Pre-incubation and incubation programmes for entrepreneurs and
high-tech start-ups companies are provided. Maxum is a member of the National Business
Incubation Association in the UK, which ensures that “incubation processes and outputs are
benchmarked on a continual basis against international good practice.”16
Coachlab
Coachlab is a Leadership Programme with specialist mentoring for postgraduates in ICT to
develop skills for the high-tech business sector. The programme is a partnership between the
Innovation Hub, local industry and universities” and is aimed at graduates in “Computer
15 Cofisa, 2010, page 68. 16 The Innovation Hub Website. http://www.theinnovationhub.com/maxum.cfm
Second Report: International Lessons and Examples Page 17 Revised
Science, Informatics, Information Science, Information Technology, Electrical Engineering,
Electronic Engineering and other technology related disciplines”. Students are skilled to
operate in business through a leadership development programme that aims bridging the
gap between the commercial and the academic world. It aims at creating rounded
personalities with life and business skills. Graduates are brought in contact with big
companies which also provides a marketing platform for the SP.17
3. Successes and Failures of the Innovation Hub
This section deals with some of the successes and failures of the Hub. These interpretations
should be seen as an opportunity for reflection and learning and not as a condemnation.
That The Innovation Hub was conceptualized, implemented and is operating today is an
impressive achievement.
3.1 Retaining Committment
It is ironic that the rapid and early acceptance of the concept to form The Innovation Hub
harboured a serious disadvantage. The parties had a clear general idea of what they
intended, but they did not express their specific aims in detail. They “agreed to agree” and
postponed decisions, a risky procedure for a project that required common efforts for
success. Due to the fact that the management institutions were newly established (both
SERA and Blue IQ) and the fact that the project was conceptualized, funded and launched in
a very short time, too little attention was give from the outset as to what each of the parties
wanted to gain from the SP concept. There was no clear documentation of the SP concept or
of the shared goals and objectives. As a result, the foundation for the project was weak and
fundamental issues that needed resolution at the outset were neglected. While the MOU
between the two parties identified many issues, they were never fleshed out in practice.
The initial concept of the IH has also lost momentum due to disruptive management changes
and the neglect of succession planning. Key champions stepped down from the process at
various stages and newly appointed staff were not being properly briefed on the roles and
functions of a science park. The dilution of the initial intent and the lack of knowledge
transfer has resulted in a general lack of understanding of the value-add that a SP should
provide and the role it plays within the larger innovation arena. There is a definite need for
providing intense orientation and initiation training to new staff members to ensure
consistency in the application of science park vision, mission and values.
17 The Innovation Hub Website. http://www.theinnovationhub.com/maxum_coachlab.cfm
Second Report: International Lessons and Examples Page 18 Revised
One consequence is, for example, that the IH is marketed in isolation and not as a
conglomeration of various companies and brands. There is also a need to clarify the original
intent and objectives internally as well as externally. Everyone must understand that the SP
has a dual mandate. On the one hand, this involves providing incubation facilities for SMEs
at a discounted rate in order to fulfill the IH’s commitment to providing a value added
service to its emergent firms and, on the other hand, to operate commercially viable shared
services.
In addition, the fact that the Park is run by provincial government proves to be a challenge.
The Provincial Government is the main stakeholder and indeed shareholder. As political
priorities change, even more effort is required to align The Innovation Hub with the
Provincial Government. Electoral cycles and the corresponding change in mandate and
management prevents essential consistency. Another consequence of ownership by the
Provincial Government is the requirement to comply with legislation such as the Public
Finance Management Act (PFMA). This is highly restrictive for the day to day operations of a
park that needs to foster a creative and innovative environment. For example, if the park
wants to procure the services of a trainer or mentor for the Incubator, it has to go out on
public tender, whereas such people are normally hand-picked for their expertise.
As a result of this environment, the high rate of staff turn-over and a loss of vision of
mandate and mission, the value-added services have deteriorated.
3.2 Locality issues
Initially the location was based on the presence of a “Knowledge Axis”, as explained above,
which provided the ideal solution for locating a SP. It was intended that a cross-fertilisation
of knowledge and ideas between the IH, CSIR and UP would take place. However, due to
reasons mentioned above, relationships were not sustained. As a result, the CSIR has
withdrawn its collaboration completely. The initial relationship between UP and the IH has
weakened substantially. However, the University is still committed to the Hub. The
University owns large parcels of undeveloped land around the Innovation Hub and it is in
negotiations with the IH to buy back a parcel of land in the SP in order to launch their
Biotech Institute. This deals with the commercialization of biotech in human, animal and
plant health. This was always the intention and it shows that the benefits of a strong
relationship have prevailed. For the first four years, until 2009, the University provided an
Information Centre at the Hub that gave tenants access to UP library facilities. Users had to
Second Report: International Lessons and Examples Page 19 Revised
pay a fee for the service but the University cross-subsidised it to a large extent. The service
has been discontinued at the request of the Hub’s former CEO.
The University, represented by Prof. Robin Crewe, Vice Principal- Research & Postgraduate
Studies as the relationship manager with the Innovation Hub, is further committed to
providing support and advice to the SP and has monthly formal meetings with the IH CEO.
One of the challenges of the IH location is that it does not have direct access from the
Highway due to slipways between Lynnwood road and the N4 being too close together. The
Hub can be accessed off the N4 and, more recently, off the newly built Lynwood road off-
ramp from the N1 which has improved accessibility substantially for the Hub.
3.3 Extent of incubation impact
From a macro perspective the IH added value to the regional innovation system when it was
established because neither an innovation networking community nor incubators existed in
SA. The IH started these initiatives and also attained international recognition through IASP.
From a micro perspective, there are companies that started out at the Innovation Hub that
are now multi-million turn-over generators. If the Hub had not been in place this would not
have happened.
However, interviewees and commentators are of the opinion that the Hub has not achieved
as much as it could have in generating innovation and knowledge networks in the region. For
example, by 2009, 41 companies had graduated from the incubation programme since 2001,
averaging a graduation rate of 5 companies a year. It was questioned if this is sufficient “to
make a significant impact”18.
It would be unfair to label The Innovation Hub a failure for this reason alone. Who is to say
that 41 companies is not a very impressive initial achievement? But it would certainly be true
that such a ‘low’ number does not meet the expectations of government, which is facing
mounting problems of unemployment and disappointingly slow growth.
In recent months, government has moved to consolidate assistance for emerging companies.
The drive is to reconfigure the various agencies at provincial level in order to prevent
18 Ford, H. (2009) Technology incubators: how successful are they really? http://www.brainstormmag.co.za/index.php?option=com_content&view=article&id=3478%3Atechnology-incubators-how-
successful-are-they-really&Itemid=86. September 2009.
Second Report: International Lessons and Examples Page 20 Revised
duplication of efforts. For example, the Gauteng Enterprise Propeller (GEP) focuses on start-
up companies and is funded by Province. One of the Gauteng Economic Development
Agency’s (GEDA) responsibilities is ensuring investment in SMEs. The IH (as a subsidiary of
Blue IQ) is focusing on incubating and coaching companies and individuals. However, none
of the agencies are working together and as a result, are duplicating efforts. For example,
GEDA should be recruiting investors for companies that emerge from GEP and the IH.
Similarly, the IH is looking to provide incubation assistance to companies in Biotech, while
GEP is already providing funding to companies in the Biotech sector. Those companies
should be able to benefit from the incubation support provided by the IH. Consolidating the
agencies into a larger Growth and Development Agency is underway but still in initial
phases. A decision will be reached in March 2011 on the consolidation process that will
include GEDA, GEP and Blue IQ. The distinct role of The Innovation Hub, as a science park
and as specialist institution in a particular area of the economy is not appreciated in this sort
of discussion.
3.4 Land policy
As mentioned above, the fact that the IH no longer considers selling land parcels in the Hub
(even to approved business ventures) and has embraced the PPP route with a 40 year lease,
proves to be problematic in the current business environment. Not only is the lease period
considered too short to whet the appetite of business but the PPP idea in general has not
taken-off in South Africa. All the companies who were interested in investing in buildings on
the Innovation Hub withdrew when the Hub’s land policy changed. Following the location of
Sappi and Bigen Africa within the Hub (where they were still allowed to purchase the land
their offices are located on) no new buildings have been built. Companies that have found
space on the IH site have established themselves in the existing buildings.
This has had knock-on consequences for the viability of the Hub. The break-even point for
the whole site requires the occupation of some 45 000 sqm (26 000 sqm is current extent of
buildings). This level of development is needed if the ‘Property Owners Association’ which is
responsible for the security and land upkeep is to be self-sufficient. The business model
adopted and enshrined in the development conditions of the site place a heavy financial
burden on the Management Company. The implications of the change to the business model
relating to land in 2005 were not closely evaluated at the time. This has lead to unintended
consequences. The pressure on the Management Company has required cost savings on
value-added services which are the essence of a science park.
Second Report: International Lessons and Examples Page 21 Revised
3.5 Project Funding
Sustainability and consistency in project funding are paramount to the success of a SP. The
Innovation Hub has various funding sources for its operations:
• Smart City: funded by City of Tshwane. The IH is the implementing agent for the
Smart City concept
• Activator: was funded by Cofisa but the programme has come to an end. In the
interim, the IH has to fund it and has to find alternative funding.
• Coachlab: Companies sponsor the initiative as it gives companies an opportunity to
“interview a candidate for 9 months”.
• Blue IQ funds the incubator, infrastructure and Property Owners Association (levies
and facilities management etc)
3.6 Local economic development
As the IH is a government institution, it has to fulfill its mandate in terms of government
expectations, which relate to local economic development through the promotion of SME’s
and emerging businesses. The IH has succeeded in that it attracts university students with
brilliant ideas and can provide them with the supporting structures and incubation
possibilities for their concepts. The general reception area in the Innovation Centre, for
example, that houses Maxum, provides reception facilities for the companies in the
incubator and for IH staff alike.
However, while the IH provides general business support to emergent companies through its
incubation programme, it lacks the experts to provide sector specific advice. For example,
The IH is not able to gauge if incubating companies are able to deliver on their ideas and
their mandates to take their companies forward as they don’t have specialists with whom to
test their ideas and who should assist in guiding the companies in their sector specific areas
of operation.
From a macro perspective, the IH started an innovation networking community and
incubators, neither of which existed in SA. It also attained international recognition through
its accreditation by IASP. From a micro perspective: there are companies that started out at
The Innovation Hub that are now multi-million turn-over generators. If the Hub had not
been in place this may not have happened. Relative to other ‘science park’ initiatives in SA,.
The IH has been a success—but has not reached its true potential due to the stagnation
induced by a lack of development funds.
Second Report: International Lessons and Examples Page 22 Revised
4. Replicating the Science Park concept elsewhere in South Africa
Learning from the Innovation Hub example the following characteristics can be distilled as
success factors in the development of a SP. While an effort has been made to set these out
sequentially, many of these steps need to be in place simultaneously.
4.1 Strong champion(s)
All SP’s start as an idea. Its conceptualization, support and seeing through require a strong
champion(s). In the case of the IH, strong support and backing of the initiative came both
from the academic and research arena as well as the government arena. One of the most
important sustainability factors in the creation of a SP is that champions are committed to
the process over the long run. The reason why the IH worked initially was because the initial
partners had a vision that they translated into commitment by the parties. Funding, land and
infrastructure was put forward and the idea was piloted before it was translated into reality.
Repeated emphasis was placed in the interviews with IH people on the fact that one should
not underestimate the energy needed to make the relationships work.
The clusters that the SP should focus on (eg ICT, biotech, aerospace clusters) should be
determined at the outset. These will determine the extent of buy-in and define the support
networks that need to be secured in the establishment of the triple-helix configuration.
4.2 Ensure buy-in
• Buy-in from the Local government authority needs to be secured up-front. The
project must be part of the IDP (the Innovation Hub was not part of the Tshwane
IDP) and the City must make an investment in the project (in cash or in kind).
• Provincial government buy-in needs to be secured (this is optional if the local
government is strong enough to support the project itself).
• Academia needs to buy into the initiative. In the case of the IH, “SERA was a brilliant
idea- it linked applied research and commercialization”19.
• Attain buy-in of commerce through business forums and partnerships and make it
attractive for business to invest in the SP. One should keep in mind that the SP has to
deliver a unique product/ service to the private sector in order to make it appetizing
for business to locate to the SP. Value added services (incubation, cross-fertilisation
of concepts and ideas) as well as site specific factors relating to the physical location
are important (location, land policy -sale vs lease-, design principles etc).
Some of the risks here include the fickleness of political commitment: a SP needs to be
established in such a way that long term political commitment is secured and is not
contingent upon allowing politicians to dictate short-term changes in management and
policies.
19 Interview conducted with Mr Thibi Matshele, 13.08.2010.
Second Report: International Lessons and Examples Page 23 Revised
It should also be ensured that government understands the sort of return it can expect from
investment in a SP. It has the potential to generate economic growth opportunities, it carries
the possibility of job creation, but the extent and timing of these benefits may not fit into the
next political cycle. Many of the benefits will be intangible – providing a stronger regional
innovation ecosystem and contributing to the critical mass of expertise, ideas and innovation
assets that is needed.
4.3 Formalise Partnerships
Relationships between parties have to be strong and formalized, ideally through the creation
of a governance structure such as a Project Steering Committee (PSC) that includes triple
helix players. The PSC should be representative of all interested parties and all parties’
interests. While the physical site is important, institutional commitment is paramount.
4.4 Clarification of governing structures as well as powers, functions and objectives of
the SP
4.4.1 Secure long-term commitment and funding Requirement of long-term secured commitment and funding:
• Need financial backing and commitment
• Need political champion who sees the project through beyond electoral cycles
4.4.2 Governance structure In establishing the governance structures it is of critical importance to flesh out with the
potential players a set of objectives in addressing the stakeholder’s requirements. Neglecting
any of these may lead to their ultimate withdrawal from the process.
• what is their understanding of what a SP should achieve?
• what do they see the outcomes being of the SP?
• what goals does the SP have to fulfill (eg job creation, triple helix collaboration)?
The role that a SP is supposed to play is illustrated in the image below
Second Report: International Lessons and Examples Page 24 Revised
The governance structure should:
• Be led by champions, assisted by the appointment of committed core team with strong personalities
• Include the right mix of skills
• Not be politically influenced – and politicians and government officials should not be able to change policies arbitrarily beyond the Board’s control
•
• Determine SP sustainability: business model should investigate the sustainability of the SP and determine break-even point.
It is critical that the fundamentals / foundation of the agreement is correctly established.
4.5 Identification of the Site
The site has to serve the objectives identified for the tenants. It should be adjacent to or on
an axis of knowledge generating institutions.
4.6 Develop the Business Plans/ Master Plans:
The governance structure needs to agree on Business/ Master Plans for the following in
order to create a sound foundation for the SP:
• Business strategy
• Marketing strategy
• Environmental Management
• Operational Plan
• Sustainability factors (social, economic and environmental)
• Land policy (sale/ lease)
• Urban design framework (need to integrate infrastructure with core business
concept/ strategy through key urban design principles. For example, in the case of
the IH the premise was to develop high quality infrastructure to encourage social
exchange)
• Entry criteria to ensure the right mix of tenants (these need to be clarified from the
outset in order to prevent compromises later in the process and run the risk of the SP
Basic research Applied research
Technology
development
(testing and
pioliting )
Technology
commercialisatio
n and transfer
This is where the important interface has to be established between the triple helix players.
The Science Park
Second Report: International Lessons and Examples Page 25 Revised
becoming a general purpose real estate development. Entry criteria need to be
informed by the question of “what is the park for?’)
• Financial model: estimate average uptake in SP in order to break-even.
4.7 Define Value Add and commence with Pilot
Start small and grow incrementally. The SP’s mandate has to be positioned in such a way
that it creates the platforms to increase the throughput rate of knowledge transfer. Defined
added-value services – and the creation of an innovation community - can be piloted from
the outset of the SP’s development. They do not so much require funding as strong
commitment. The Pilot serves as motivation for future funding and tests the water for
appetite for such a initiative. It serves as the raison d’etre for the SP and generates
motivation and options for expansion. Finally, the pilot identifies players who truly want to
commit.
At the Innovation Hub the pilot commenced with incubation facilities and the Innov8
Community which provided the Networking platform and assisted in building a community.
4.8 Establish international linkages
International linkages are very important- joining IASP provides international recognition
and accreditation.
5. Conclusion
The Innovation Hub has been alive for 10 years and while it has encountered real challenges
it remains the only functioning and acknowledged Science Park in South Africa. Despite its
teething problems, it has been the trail blazer for a model and concept that has been hugely
successful in other parts of the world. The Innovation Hub had no benchmarks to rely upon.
It has had to find its own way. Relationships between business and the research and
academic communities are difficult to broker in all environments. Relationships with
government are also particularly challenging when an initiative is generously sponsored with
public funds and becomes subject to expectations that are both unrealistic and poorly-
informed. Relative to several other initiatives in SA, the Hub has a record of achievement
that cannot be matched. It faces challenging times in the months ahead. It could do worse
than to re-visit the initial vision that led to its establishment and to read critically the
precepts for science park operation that emerged from the Cofisa research.
Many lessons can be learnt from its experience and those highlighted above give indications
of how to go about establishing a sound foundation for a SP in South Africa. However, one of
the most important lessons is that a SP model cannot be based on a “cut and paste” approach
Second Report: International Lessons and Examples Page 26 Revised
where one model is crudely copied for replication elsewhere. It has to be customized to the
regional dynamics of an area.
6. Commentary
Our report on The Innovation Hub raises points of criticism that are not present (or are not
explicit) in the writings we have seen and which were not voiced by all of our interviewees.
One is more receptive to lessons from good examples than from bad. It is more encouraging
to follow the lessons of success than to avoid those of failure. People are more drawn to
advisers who tell you what to do than those who tell you what not to do. The COFISA project
was premised on the importance of science parks in a national innovation system and it was
programmed to report on the positive lessons from the first and only science park in South
Africa to be accredited by the International Association of Science Parks.
This is why all the articles we have seen on The Innovation Hub tend to emphasise the
positive and to highlight ways of avoiding problems rather than focusing on the practical
difficulties that The Innovation Hub has encountered. Many of these arise from bad luck and
misunderstandings, not from actual intentions. Teething problems are a feature of all
projects and are often interpreted as being temporary and hence not worthy of particular
note.
We have tried to bring balance into our account of The Innovation Hub. We recognize its
achievement in leading the way by introducing to South Africa a model of a science park that
locates it within the regional innovation system and does not simply offer working space to
start-up technology companies but provides a platform of value-added services and networks
to improve the prospects for success. But we must draw the attention of the reader to other
accounts of The Innovation Hub and science parks in SA which may not be overtly critical of
the Hub and its business model. For example:
• The websites and the annual reports of The Innovation Hub, BlueIQ and the CSIR
• Department of Science and Technology (2009) “National Science Park
Development Plan (Draft version) - Promoting awareness and use of Science Parks
In the development of the National System of Innovation, Submitted by: The
Innovation Hub Management Company (Pty) Ltd, pp.40
• Cooperation Framework on Innovation Systems between Finland and South Africa
(2010) Enhancing Innovation in South Africa: The COFISA Experience, February
2010, pp.75
Second Report: International Lessons and Examples Page 27 Revised
• Comins, N., Gwintsa, T., Kuukasjervi, L., Rammbuda, R., Ridge, S., and Van der
Walt, R. (2010) “Science Parks”, Chapter 7 in Enhancing Innovation in South
Africa: The COFISA Experience, February 2010, pp.86-103
The Innovation Hub needs to be the reference point for all of the plans to develop new
science parks in SA because of the ways in which it has tested – and been tested by – the
innovation ecosystem in Gauteng and in SA generally.
Our account of the example provided by The Innovation Hub does not conclude that science
parks are not suited to South Africa. It does say that establishing a successful science park is
extremely difficult.
Dr Neville Comins, the founder and first CEO of The Innovation Hub, provided a number of
pointers on science parks in his presentation to the Cofisa closing conference in 2010.20
1. It is very strongly stated that a science park is not just about buildings. Comins warns
of the lesson from other science parks that have had “Too much focus on the ‘real
estate’ and almost no attention to the ‘animation’ or ‘value-added services.”
2. A science park takes much more time, effort and money than one imagines and it
must adapt itself to ‘local dynamics’. There is no single model for a science park –
learn from others, but don’t copy. And put it in the right place.
These are Comins’ final words:
The Focus Going Forward
• A Science Park model can add great value in the African context
- It must, however, adapt to the local dynamics
- No two parks are the same. Learn but don’t copy.
• The Innovation System needs such neutral facilitators to support innovation and
collaboration
• An STP (Science/Technology Park) can play a vital regional role if it can engage
correctly
• In the end, it depends so much on the people involved.
“An STP is not a silver bullet on its own, but depends on generating or growing a local
innovation ecosystem, which can take many years. Too often, once the initial studies are
20 COFISA (2010) “Science parks – a reality or myth for South Africa?” by Neville Comins. PowerPoint 9 pages (This is a distillation of points that are present in the Cofisa book).
Second Report: International Lessons and Examples Page 28 Revised
done, there is a tendency to make positive assumptions about the next steps—in reality, the
devil is definitely in the detail.” (Comins et al, page 92)
Key problems with The Innovation Hub – an interpretive summary:
� The Innovation Hub is a government entity and so operates under the Public
Finance Management Act
o In our experience, the PFMA has had the effect of undermining dynamism
and effectiveness. While government entities are allowed to pay very high
salaries, and thus attract well-qualified people, they have become, over the
last decade, increasingly infected by the bureaucratic tendency of government.
They are unable to transact flexibly, like a business. They are subject to rules
that are designed to ensure the prudent use of public money, but which in
effect trap people in compliance-oriented processes. Procurement rules are
extremely cumbersome and make swift action of any sort risky or impossible.
The structures of government repel creative and innovative people and
entrench inflexible behaviours – even in the good-willed . These trends get
worse over time.
� The Innovation Hub, being part of BlueIQ and beholden to a government
department, is subject to political agendas
o It is a fact of political and economic life in SA today that political tensions
within political parties, provinces and regions are reflected in government
entities. Decisions are ‘referred upwards’ and delayed or not taken. And there
is a tradition of political interference in government entities which increases
uncertainty and may penalize initiative.
� The Innovation Hub, has been unable to expand and grow and increase its
impact, despite demand for space from prospective tenants. This is because of
government policies and rules related to the use of its large 60 hectare area and to
the consequent lack of development funds.
� The Innovation Hub has lost its initial links with the CSIR and its links with the
University of Pretoria are tenuous.
o International literature suggests that “the ability to develop linkages between
higher education institutions (HEIs) and firms is the key criterion by which to
judge the success of the science-park phenomenon. (Link and Scott, 2007,
citing Westhead and Batstone, 1998).
� As a result of this changing environment, the high rate of staff turn-over and a loss of vision of mandate and mission, the value-added services of The Innovation Hub, so essential to a ‘real’ science park, have deteriorated.
� The Innovation Hub, despite lingering value-added elements, is increasingly a
renter-out of existing space, rather than a dynamic science park.
Second Report: International Lessons and Examples Page 29 Revised
Interview Schedule:
Name of interviewee Designation Date of interview
Mr Thibi Matshele and
Mr Nkhulu Maboya
Chief Operating Officer at the
Innovation Hub
Assistant: Value Added services,
Business Development and
Marketing
13.08.2010
08.00 – 09.30
Dr Neville Comins Founder and first CEO of the
Innovation Hub
23.08.2010
10.30- 12.00
Prof Robin Crewe Vice Principal- Research &
Postgraduate Studies and
relationship manager with the
Innovation Hub
27.08.2010
08.30- 09.00
Interviewed by Anja Benseler
References for the Chapter on The Innovation Hub
“Appointments at The Innovation Hub” CSIR Media Release 12 March 2001
“THE INNOVATION HUB: Company Announcement: Exciting new initiative to stimulate local innovation & economic growth Engineering News 15th January 2008
Cabral, R. (2004) “The Cabral–Dahab Science Park Management Paradigm applied to the case of Kista, Sweden”. International Journal of Technology Management 2004 - Vol. 28, No.3/4/5/6 pp. 419 - 443
Comins, N., Gwintsa, T., Kuukasjervi, L., Rammbuda, R., Ridge, S., and Van der Walt, R. (2010) “Science Parks”, Chapter 7 in Enhancing Innovation in South Africa: The COFISA Experience, February 2010, pp.86-103
Cooperation Framework on Innovation Systems between Finland and South Africa (2010) Enhancing Innovation in South Africa: The COFISA Experience, February 2010, pp.75
CSIR Annual Report 2000, pp.58 y/e 31/3/2000
CSIR Annual Report 2003, pp.75 y/e 31/3/2003
CSIR Annual Report 2005/6, pp.144 (March 2006)
Department of Science and Technology (2009) “National Science Park Development Plan (Draft version) - Promoting awareness and use of Science Parks In the development of the National System of Innovation, Submitted by: The Innovation Hub Management Company (Pty) Ltd, pp.40 <copy marked Restricted for Internal Use Only, file date is 13 March 2009> [most recent copy provided by Mr J. Strauss, DST, 14 July 2010]
Ford, H. (2009) Technology incubators: how successful are they really? http://www.brainstormmag.co.za/ September 2009.
Gauteng Provincial Government, Department of Economic Development (2010) Gauteng Innovation Strategy, Discussion Draft v2.1 23/02/2010, pp.48
Second Report: International Lessons and Examples Page 30 Revised
International Association of Science parks: About Science and Technology Parks – Statistics http://www.iasp.ws/publico/index.jsp?enl=3
Link, A. N., and J. T. Scott. (2007) “The Economics of University Research Parks.” Oxford Review of Economic Policy 23(4):661-674.
OECD (2008) “Open Innovation in Global Networks”, OECD Policy Brief, November 2008 downloaded from http://www.oecd.org/dataoecd/48/35/41721342.pdf
SA Innovation Summit Website: www.innovationsummit.co.za
The Innovation Hub in CSIR Annual reports
Websites of The Innovation Hub, BlueIQ and the CSIR
Westhead, P. and Batstone, S. (1998), ‘Independent Technology-based Firms: The Perceived Benefits of a Science Park Location’, Urban Studies, 35(12), 2197–219.
Second Report: International Lessons and Examples Page 31 Revised
Literature review conclusions
1. The importance of context
This is an action-oriented study to develop an approach to what the four universities in
the Western Cape should do to drive innovation in the Western Cape.
We want to be sure that whatever is recommended can pass the test of being reflective of
international best practice. So one route into the question would be to start off by looking
at how universities and regions in parts of the world that are renowned for economic
success have tackled issues around innovation.
To be honest, this is exactly where we started. From Technopolis to Technium, from
Biopolis to Designium we looked for examples of how universities have related to
business, to R&D and to innovation. Because of the science park aspect to our terms of
reference we were strongly drawn to institutional forms and to how innovation relates to
space. Because of the current realization of the importance of ‘green’ issues, we looked for
references to sustainability. Because of the concern raised by the Project Steering
Committee about social innovation, we jettisoned an initial focus on the science–based
innovation economy (Miles and Daniels, 2007) and adopted an approach that included
the social responsiveness and community outreach perspectives which had been strongly
voiced by the people with whom we engaged at the universities.
It was relatively late in the day, in fact right at the end of September, with the first report
all but complete, that we encountered a document, authored on behalf of CHEC in 2009,
that became our real entry point into the complex debates around innovation in the
Western Cape and what the four CHEC member institutions should do about it.
This “entry point document” was approved by the CHEC Board on 24 February 2009,
entitled “Cape Higher Education Consortium - Planning to make the best use of
Universities in promoting economic and social development”. We were familiar with the
contents of the document, but had never become aware of the extent to which they had
been canvassed. The document is a masterpiece of concise presentation. In four pages, it
lays out the case for what has come to be called “the Bellville Science Park”.
In terms of location, this is centred on the “340 hectare Transnet freight yard” that lies
between the Health Sciences campus of the University of Stellenbosch at the Tygerberg
Second Report: International Lessons and Examples Page 32 Revised
Hospital and the Medical Research Council in the north and the campuses of the Cape
Peninsula University of Technology and the University of the Western Cape in the south-
east. As the CHEC document itself makes clear, however, the proposal is not simply for a
special building, an industrial area or a business park. It presents a vision for
“an integrated environment in which excellent technical facilities in workable
proximity to universities go along with safe and comfortable living conditions and
good cultural and recreational facilities to attract and retain concentrations of
talent.”
The Bellville precinct is described as “a site with critical potential for the economic and
social progress of the City of Cape Town and of the Western Cape Province”. The proposal
is not about a real estate development, but an initiative to transform space and economy
in the centre of the Cape Town region in a completely new way, to promote innovation.
The document was formally sent by “the universities in the Cape Higher Education
Consortium (CHEC) [to] ask the City of Cape Town to make decisions at a macro planning
level which would secure the site from fragmented industrial development and establish
the vision of a revitalising, innovation-friendly central area for Bellville as a planning
imperative.”21
The City made no formal response to this request, apparently because it does not feel able
to take a particular position on this planning issue. The Transnet land has a present use
and has also been mentioned as a possible site for low-cost housing. The Province has
expressed similar concerns. It is aware of the proposal for a Bellville Science Park, but this
is Transnet-owned land, the use of which figures in current discussions and studies on
how critical freight logistics problems in the region will be resolved.
CHEC’s own intention was to support a general debate on the proposal, which had been
drafted by one of its members, UWC.
UWC subsequently secured funding from the DST to take the proposal forward (DST,
2009). CHEC decided to commission this study which encompasses the “Bellville Science
Park” but does so in the context of a question on the conceptual model that is appropriate
for the four universities in driving innovation in the Western Cape.
21 This four page document is attached as an appendix to this report. It was approved by the CHEC Board at its meeting held on 24 February 2009 and submitted to Dr Martin van der Merwe, Director: IDP and Business Planning, City of Cape Town on 25 March 2009.
Second Report: International Lessons and Examples Page 33 Revised
Information sources
The present study, began in July 2010. Its main sources of information have been the
2009 Cofisa Report “Mapping triple helix innovation networks in the Western Cape”,
prepared by Kaiser Associates Economic Development Practice22 and a series of
interviews, mainly with people in the universities and the public sector. This has been
supplemented with desk-top research, covering government policy on innovation and
science parks, international models related to driving innovation and with interviews
related to The Innovation Hub, South Africa’s single accredited science park.
Results of the Research
The innovation ecosystem in the Western Cape is marked by confusion, distrust and many
agendas – which duplicate efforts, conflict, or by-pass one another completely. There was
no consensus on what universities in the Western Cape should do to drive innovation,
beyond what each is doing already.
On the positive side, the investigation showed many areas of dynamism and capability,
particularly in research, as is comprehensively (if not fully) documented by the Cofisa
report. The Western Cape has proportionately more NRF-rated researchers and Research
Chairs than any other part of South Africa and it produces over a third of all South African
PhDs. There are many worthy and interesting initiatives: InnovUS using a partnership
with Isis Enterprise of Oxford University to promote the capabilities of Stellenbosch
University in a trip to Japan; CPUT’s involvement with the East City Design Initiative;
UCT’s piloting of a ‘store front’ to make university expertise more accessible both to
business and community organisations; UWC’s championing of the Bellville science park
as a joint initiative of all four universities; the Province’s efforts to draw universities into
the research and training needs of different sectors of the local economy through the
Special Purpose Vehicles; the City’s research on how to make Cape Town more globally
competitive and its efforts to emulate the support available for innovation in Barcelona.
There is a great deal going on, if at different paces and with poor co-ordination.
On the negative side, the lack of effective collaboration results in a lot of wasted effort.
Researchers and innovators chase after the same meagre resources to fund their work, in
an environment where people fear that information sharing may lead to increased
competition for grants. Relationships between universities and business, as useful as they
are for innovation, are weak and poorly developed (there being faults on both sides).
22 This important report is available from CHEC or the Cofisa website (hosted via the DST, since the Cofisa project ended in 2010).
Second Report: International Lessons and Examples Page 34 Revised
Noble efforts like the Cape Initiative in Materials and Manufacturing (CIMM) have fallen
by the wayside (Knutsen and Steyn, 2009). (Here materials scientists in three of the
universities tried for several years to set up a bridging institution between universities
and industry). The effort to establish a Regional Innovation Forum (Interim Steering
Committee, 2010), while still under way, has entered areas of confusion and controversy
which have yet to be resolved (CHEC, 2010). The plans of the DST and the TIA to
establish a Cape Health Technology Park in Pinelands have been subject to as much
criticism as praise from the ‘academic innovation community’ – but the champions of the
project (which is supported by the Province and the City) admit that they have yet to talk
to the universities about their role23. The TIA, the intended national instrument for
driving innovation, has been seriously delayed in its implementation. In September 2010,
the Province announced a major change in the institutional environment for business
promotion. This will involve the creation of a new, single development agency for the
Province24. The proposed institutional mergers, while one hopes they will lead to
improvements in the effectiveness of publicly funded bodies that impact on innovation,
are likely to be associated with disruption and delays before good results are evident.
This is all part of the ‘innovation landscape’ of the Western Cape. This is the reality that
CHEC and the four universities have to work with, when they consider the actions they
should take to drive innovation.
There is a further contextual element that has come up prominently in the research and
which needs to be put forward as a proposition for debate.
HEI’s are critical for innovation – but innovation is not a priority for HEIs
Higher education institutions (HEIs) play a critical role in government’s innovation
agenda. Research and learning (with more science, engineering and technology and PhD
graduates in particular) are seen as key enablers of innovation25 - the creation, application
and implementation of new ideas. South Africa’s research base has some localised
strengths but it is not yet well attuned to the challenges of a developing country or to
participation in the global economy. South Africa has been less effective in translating
research outputs into business innovation, competitive advantage and social benefits. The
need to increase the impact of SA’s Higher Education knowledge base on business and
23 DEDT tender briefing by Craig Landsberg, 11 August 2010; DEDT (2010) “Cape Catalyst 2010 Project Portfolio”, September 2010, pp.37 plus annexures. The TIA has, however, informed CHEC of their general intentions. 24 “Single Agency For Cape”, Cape Business News 15 Sep 2010 25 Department of Science and Technology (2008) “Ten-Year Innovation Plan”, p.8; this is also a clear assumption of ASSAf (2010) “The PhD Study”
Second Report: International Lessons and Examples Page 35 Revised
society is mainly identified with an increase the number of graduates and the quality of
basic research. Other countries, particularly in the developed world, have a much wider
range of policies that support these ‘third stream’ activities to enhance engagement
between HEIs and business, the public sector and the wider community.26
SA government laws and policies – and the activity agendas of many government
departments (both national and provincial) - increasingly recognise the importance of
strong industry-university relations and the potential for social innovation, driven by HEI
research and engagement, to have a positive impact on living conditions in SA.27 It is,
however, a very small percentage of university staff that ever get involved in the
commercial innovation space. The traditional orientation is towards teaching, research
and publications, not towards patents or relationships with business. Many interviewees
spoke of the need to change attitudes and mindsets in the academic community towards
business and society. But the incentives to encourage changed behaviours are weak. The
behaviour that is rewarded is the behaviour that is repeated. The situation, let us face it
clearly, is not going to be changed by education programmes and workshops on the value
of innovation unless this is supported by powerful incentives. These will have to address
the concerns of academics with their income, job security, research funding, status and
recognition. Equally, the incentives and pressures to which the universities themselves
respond, as institutions, need to be fully recognised. Innovation features in government
policy documents and in the speeches of Ministers. But, and quite correctly, the priority
set for universities is to produce more quality graduates at first degree level28, to increase
the numbers of post-graduate students and to build their academic staff capacity.
Research comes second and innovation a distant third. Matters are not clear cut, however.
The priority task cannot be completed unless items that are ‘less important’ are also
successfully managed. But they are not all priorities. Innovation is not a priority for
HEIs29.
26 Higher Education Funding Council for England (HEFCE) “Global innovation environments - A report to HEFCE by Paula Knee, Quotec Ltd and Dr Martin Meyer, SPRU, University of Sussex”, February 2007, cf. p.8. 27 See for example: Opening Address by Minister of Higher Education and Training Dr Blade Nzimande at the 3rd Annual South African Technology Network Conference Vaal University of Technology; 30 September 2010 28 The problems faced by universities in meeting this goal alone are immense. See Prof Brian O’Connell, Rector of UWC, quoted in Business Day, 2010/09/20, “Matrics ‘not ready for tertiary study’”. The poor level of preparedness of university entrants means that there is a high drop-out rate. This is exacerbated by the number of students who have to interrupt their learning for economic reasons. 29 All of the universities would consider themselves to be already devoting appropriate support for innovation, through their teaching and research, through their Technology Transfer activities and through their engagements with business, government, and public benefit organisations that address the needs of the wider economy and community
Second Report: International Lessons and Examples Page 36 Revised
We would argue that this explains many of the characteristics of the innovation landscape
of the Western Cape that was surveyed in the 2009 Cofisa report and which are reflected
in the interviews undertaken for this project. Because innovation is not a priority for
universities (and cannot command the resources or attention that true priorities do), we
have to find smart ways to support and encourage it.
This involves recognising that
• resources for promoting innovation will always be limited, so interventions
must include many small (manageable) options, particularly interventions
that are not expensive and which trade on goodwill and volunteerism;
• people will be prone to being diverted by other priorities, so there is a
special need for arrangements that will keep the innovation drive ‘on track’
even as individuals and institutions have to go onto ‘main lines’ for a
period to tackle demands on their energies which are more urgent;
• the ‘unifying vision’ for driving innovation must be very broad, so that all
initiatives that support innovation as secondary aims can be included – for
example
o Exchanges between companies and university departments should
be motivated by their positive impact on teaching and research,
with the improved networks into industry being presented as a
possible spin off benefit.
o Initiatives like the Health Technology Park and the East City
Design initiative should be welcomed.
o Information should be spread and shared much more effectively on
all the things that have a positive impact for the innovation
ecosystem.
o Don’t focus ON the innovation ecosystem, but on activities that
meet the priority needs of stakeholders but which can be ‘tweaked’
to have spill-over benefits for innovation.
[Other issues and examples can be added – the point is that this analysis has
critical implications for how the conceptual model below can be made to ‘work’ in
the Western Cape. ]
The definition of ‘innovation’ used in this study is discussed in the First Report:
“Innovation is the process of transforming an idea, generally generated through
R&D, into a new or improved service, product, process or approach that relates to
the real needs of society and involves scientific, technological, organisational or
commercial activities. The key to this definition is the fact that the innovation
process is only complete once a defined product, process or system with some
tangible benefit has been implemented.” (NACI, 2006, p.72)
Second Report: International Lessons and Examples Page 37 Revised
This definition, in its reference to “the real needs of society” and the requirement that
innovation results in “some tangible benefit” can encompass both ‘social innovation’ and
innovation that has a narrow commercial purpose.30 The advancement of society can be
assisted by cultural, environmental and social innovation which is not applied only in a
market context.
The general question posed by CHEC for this study is how university resources can be
mobilised to contribute actively to driving innovation in the Western Cape? Two
problem issues came out of the interviews. Firstly, ideas are generated (often through the
expenditure of public money and effort) but they are not used in practice. Secondly,
publicly funded HEIs and science councils have resources of knowledge and expertise, but
these are not easily available (or known) to firms, community organisations and public
sector agencies who need help to develop ideas that have come to them through their
work.
All over the world, societies are faced with difficulties in deciding which research to
prioritise and, once research progress has been made, how to ensure that it is translated
into saleable or socially valuable products and successful, sustainable enterprises. The
new Technology Innovation Agency is the main government instrument available for
commercial innovation, to bridge the ‘innovation chasm’ – between basic research and
manufacturing. This involves financial support (previously under schemes such as the
Innovation Fund) and non-financial support, including Centres of Competence which are
established as partnerships between universities, science councils and industry.
Relationships between business and universities take many forms. From a business
perspective, the provision of skilled graduates is the main contribution expected from
universities, and this may be supplemented by research contracts with individual
academics, with departments or institutes. These relationships can have a positive impact
upon teaching at universities. The exchange of students and the involvement of staff in
the ‘real world’ – can have an effect on both what the university teaches in its curriculum
and directly on learning. It can also influence academic research agendas and potentially
lead to innovation, via new intellectual property and licensing agreements or spin-out
companies.
30 Social innovation – on which there is a whole literature – can be defined simply as “a new idea that has been put into practice for the public good”. (Centre for Social Innovation, Toronto - http://socialinnovation.ca/about)
Second Report: International Lessons and Examples Page 38 Revised
Conceptual model
There are six parts to the proposed conceptual model for university support for
innovation in the Western Cape. These are derived from the Situation Analysis.
1. Strong Technology Transfer Office’s attached to each institution
a. There are well-established TTOs at both UCT and SU. CPUT has recently
set up its own TTO, but there is scope for the creation of a joint office with
UWC, which could draw upon the experience of the other two institutions.
b. TTOs each need to work within their university structures to make it easy
and attractive for academics to commercialise their research or to apply it
to addressing social issues. This includes assistance with IP issues, access
to TIA programmes and grants, assistance with licensing agreements and
possibly with access to incubators (both physical and virtual). The
recommendation is that TTOs should have the responsibility here, with
appropriate support being available (from their institutions and from DST,
TIA, industry and possibly CHEC as well).
c. TTOs need to communicate and co-operate with one another and build the
capacity of professional organisations such as the South African Research
& Innovation Management Association (SARIMA). The role of TTOs is
both enhanced and made more challenging by the promulgation in August
2010 of the Intellectual Property Rights from Publicly Financed Research
and Development Act.
d. The conceptual model places a strong emphasis on the TTOs. The
interviews generated two views which, in their extreme forms, see the
TTOs either as enablers or as retarders of innovation.
i. Debate: TTOs and universities can hinder innovation (bureaucracy,
uncertainty) as much as they can enable it, if the incentive structure
is badly framed.
2. Regional fund to provide “pre-seed” grants
a. Interviews and the desk-top research suggested that the area that would
most benefit from a flow of flexible funding is ‘proof of concept’ or ‘pre-
seed’ grants that would place academics in a better position to licence
their inventions (to other users) or to attract seed funding if they seek to
commercialise it themselves.
Second Report: International Lessons and Examples Page 39 Revised
b. This could be an area in which the four universities work together on
establishing a joint regional fund for this purpose.
3. Brokering relationships between HEIs and society
a. Universities have difficult relationships with business, civic organisations
and government. Better relationships on all three fronts are needed to
maximise the impact of HEIs on regional innovation. These can be
facilitated by brokering institutions (of which CHEC is one example), by
internal university policies (dealing with outside research, recognition for
community engagement, access to libraries etc) and by practice. It is
critical that in each instance there is an opportunity for these relationships
to influence and strengthen the universities’ primary responsibilities of
teaching and research. Two examples:
i. UCT initiated a pilot project in August 2010 on a “Shop front”
approach to broker relationships between HEIs and Public Benefit
Organisations, businesses or government departments.
ii. CHEC was involved in 2009/2010 in an effort to re-establish the
Cape Initiative in Materials in Manufacturing (CIMM), a well-
documented example of a bridging institution between industry
and academics in three of the universities. (This effort was not
successful.)
4. Involvement in the Regional Innovation Forum
a. The RIF is a DST initiative, now the responsibility of the Provincial
Government. Most interviewees did not think that it had yet been
satisfactorily launched and discounted the “Final Strategy” document,
dated March 2010.
5. Involvement in the work, mentoring and governance of the Provincial
and City Special Purpose Vehicles
a. The SPVs operate in particular sectors of the regional economy that have
most potential for increasing employment or for safeguarding jobs. (For
example, ICT, business process outsourcing, oil and gas, boat-building,
clothing ...) In many cases, the primary reason that university involvement
is sought relates to skills development and expert advice. These are,
however, the sectors in which innovation is most necessary and where
there is scope for HEI involvement to be pro-active.
Second Report: International Lessons and Examples Page 40 Revised
6. Appropriate involvement with innovation-related development
initiatives
a. Universities need to ensure that their own interests are recognised, but
they should support regional initiatives to drive innovation both
individually and collectively, where this is useful.
b. Two (at least) new initiatives are presently under way:
i. East City Design Initiative (driven by the Province and the City (via
the Cape Town Partnership) with the involvement of CPUT.)
ii. Cape Health Technology Park in Pinelands/Oude Molen (driven by
the DST (via the TIA) and the province, with City support – HEI
involvement is yet to be defined.)
c. The Stellenbosch Technopark, while it is not a ‘proper’ science park, hosts
at least two spin-off companies in which InnovUS has an investment and
may, in the future, provide opportunities for wider university involvement.
d. Development of the Bellville precinct, a long term goal, which merits
discussion and preparatory action. (See below)
The role of CHEC
In framing the appropriate role for CHEC, there is a need to evaluate whether CHEC
involvement will, in each case, have an impact that justifies its cost (particularly in effort,
given the other pressing concerns of the universities in the Province). Even if CHEC is
successful in getting academics on to the boards of SPVs for example, this may not work.
A generous ‘pre-seed’ fund will tie up resources that could better be used elsewhere if our
weak education system and poor innovation networks mean that the deal flow is too
feeble.
In summary:
Area CHEC ROLE
1. Strong Technology Transfer Office’s
attached to each institution
Minor Assistance when requested by the collective of
regional TTOs
2. Regional fund to provide “pre-
seed” grants
Major CHEC could choose to play the key role in
promoting such a regional fund to which all four
universities will have access, through the TTOs
Second Report: International Lessons and Examples Page 41 Revised
Area CHEC ROLE
3. Brokering relationships between
HEIs and society
Variable CHEC already plays a role in providing a forum for
universities to hold discussions with the Province
and the City. It attempted to assist in re-
establishing CIMM and offered to house the CIMM
secretariat'. CHEC could promote information
sharing between the universities in this area
4. Involvement in the Regional
Innovation Forum
Major CHEC has expressed reservations with
developments to date, but is able to represent a
collective view from the HEIs which will be valuable
to the RIF.
5. Involvement in the work,
mentoring and governance of the
Provincial and City Special Purpose
Vehicles
Major CHEC has nominated board members for CITI and
can assist to ensure the there is feedback to all the
HEIs about each of the SPVs.
6. Appropriate involvement with
innovation-related development
initiatives
Variable CHEC is involved with the ECDI and has beeen
briefed on aspects of the CHTP. CHEC has taken
forward the UWC proposal for the 'Bellville Science
Park' for wider debate. It can play a useful
information-sharing role in all cases.
International experiences
There is a vast international literature on innovation, the role of HEIs in innovation, on
science parks and on business/university and triple helix relationships. Case studies
abound. Innovation strategies (national, regional and sectoral) exist in iterations and
contradictions. Web sites make the most extravagant and enticing claims for university
partnerships with regional development agencies, local businesses, multinational
companies and communities. CHEC has gained on-the-ground perspectives of university
involvement with incubators, science parks and shop-fronts in study tours that have
included representatives from the Province and the City.
The importance of universities to the innovation process generally is well documented in
the international literature (OECD, 2007). But the importance of innovation to
universities in South Africa – while it is increasingly acknowledged – is less clear in
practice. Both in SA and in other countries “the precise nature of the university’s role in
the knowledge-based economy – and its ability to perform the roles ascribed to it – is still
being explored.” (TRRA, 2007)
Which model is right for the Western Cape?
Second Report: International Lessons and Examples Page 42 Revised
The specific question relates to a model for driving innovation in the Western Cape and
the role of universities and their association, the Cape Higher Education Consortium,
CHEC. The more general question is how the resources of the universities can be
mobilised to contribute actively to the regional development process?
Much can be learned by seeking an answer to this question from the experiences of other
cities and regions, other universities and knowledge systems. But it is no better a question
than asking ‘which sort of bread is best for the Western Cape?’ and embarking on a survey
of recipe books and experimentation with bread formulae.
The ideal loaf of bread, like the ideal innovation system, does not exist. There are many
successful loaves of bread – though which is best is a matter of personal taste and habit
and which you will get depends on both availability and on your budget. There is a choice
also whether to buy or to bake yourself. Most critical of all is that you can never rely
simply on the written recipe. You have to experiment and practice. The recipe may be
right, but your way of mixing and proving the dough may be wrong. Ingredients are local.
They may not be consistent over time. The hardness of the flour available to you may
differ from that used by the recipe tester. The water, the yeast, the ambient temperature,
the humidity and the oven you use each introduce variables that can determine the
success of your efforts.
International best practice in the industrial production of bread may be available, but
international best practice in driving innovation is not. (Although it will be put on offer if
demanded!)
As highlighted in this analogy there is no ‘right’ or single approach to defining the role of
universities in driving innovation. This is not a profound finding. The success of an
innovation system is acutely dependent upon location, history, environment. What works
in one place at one time may not work as well in another context. So any research which
advises CHEC to adopt “the Barcelona model”, for example, would be highly suspect. But
learning from what universities do in Barcelona, how they work together, promote
themselves together and secure substantial financial and marketing support from city
and regional government can, indeed, be instructive.
There are useful lessons available for each of the six areas listed above. For example, one
possibility that was raised by interviewees at two universities was that CHEC should
leverage a fund that will increase the availability of proof of concept (“pre-seed”) funding.
Second Report: International Lessons and Examples Page 43 Revised
The issue is considered in the UKs Lambert Review of Business-University Collaboration.
This recommends that UK Universities increase the availability of proof of concept
funding and reduce the availability of seed funding, “and use public seed funds to draw in
private finance wherever possible”. (Recommendation 4.6)
“Proof of concept funding is used to establish whether a new technology is
commercially viable or not. It is the first stage in transferring IP to the market,
and is needed for both licensing and spinning out… Whichever commercialisation
route a university takes, it will need to prove the concept of the technology before
its gets any outside company or investor interested. With limited public resources,
making more small investments in proof of concept activity offers better value
than concentrating funding on larger early stage investments in spinouts.
Focusing resources on proof of concept activity would help universities
concentrate on increasing the throughput of their technology transfer, and provide
incentives for them to use the fastest, least resource-intensive route to market.”
(HMSO, 2003, p.61.)
The level of investment envisaged is up to R1-m per invention. (The total amount
available to the TTO at UCT, is R0.5-m per year, for pre-seed support for all projects
across the whole university.)
We do not read the Lambert report, pick some of its recommendations to follow, and call
this ‘learning from international best practice’. We first decide on a course of action,
based on the interpretation of our reality in the Western Cape, and then learn whether
this is supported by the experience of other countries and, if it is, how it was tackled.
The same issue is raised in a manual issued by the University of Georgia in the US to
assist staff members “forming a new company based on your research discovery”. This
says that
“Many universities and states now offer grants from “gap” funds to help nurture
new businesses. They manifest themselves in a variety of different forms but
generally are focused on laboratory activities designed to help bridge the gap
between an academic research discovery and something that is less risky and more
amenable to attracting investment funding. As such, gap funding is used for
reduction-to- practice and proof-of-concept experimentation, construction of
functional prototypes, and similar purposes. It may also include monies to execute
market-research studies and write business plans. …Gap awards are usually in the
form of a grant, so no transfer of equity occurs.
“The State of Georgia has developed a unique grant program that specifically
targets university-based start-up companies for business development/risk
mitigation activities in order to increase the likelihood of such companies
becoming “fundable” to investors. Managed under the auspices of the Georgia
Research Alliance (GRA), it consists of several types of gap funds with specific
areas of emphasis (biotechnology, biofuels, and vaccines for example). A
Second Report: International Lessons and Examples Page 44 Revised
description of those funds can be found at the GRA website (www.gra.org), under
the link to the “GRA Innovation Fund.” At UGA (University of Georgia), the GRA
programs are administered through the Georgia BioBusiness Center.” (DesRosier,
2008, Startups for Smarties, Pages 21-22)
The UK also has a wide range of funds able to offer pre-commercial funding to academics.
In 2007, for example, eight London-based Universities came together to launch a Proof of
Concept fund called “Emerald II” which is “designed to assist staff and students in the
partner institutions to explore the potential of their ideas, inventions or designs to the
point where realistic judgement as to the commercial opportunities can be made. Emerald
provides proof of concept awards of up to £40,000 for any one project.”31 This venture
has attracted funding of just under £1-million from the London Development Agency,
which is apparently one of the models relied upon by the DEDT in its plans for a single
development agency in Cape Town32. “The fund will consider various forms of IP to cover
both the ‘harder’, more technology-oriented IP assets, as well as ‘softer’ IP, which would
play a central role in setting up new, expertise-based commercial entities, e.g. the creative
industries.”33
More recently, in June 2010, Oxford University launched The Oxford Invention Fund.
This is managed by the University’s technology transfer company Isis Innovation and
”aims to raise up to £5m to create a self-sustaining fund to help develop Oxford
inventions to the point when they can attract commercial investment… It is widely
recognised that there is an ‘innovation gap’ between the early stages of an invention or
idea and the point when it is mature enough to be commercialised through a license or
spin-out company.”34
The TTOs at UCT and Stellenbosch both said that this sort of support would be a most
welcome support for their efforts to drive innovation. They could tell researchers with
ideas that came through their filtering process: “there is a good chance that your project
will be funded, because we have a dedicated fund for this purpose in the Western Cape”35.
We can demonstrate that almost any sensible strategy is based on “international best
practice”. This still does not mean this is the right solution for the Western Cape – but the
31 See London Proof of Concept Funds website: http://www.londonproofofconcept.net/ 32 “Province aims to help existing businesses as key to strategy of boosting jobs” Cape Times 9/9/2010 33 See Emerald website: http://emeraldfund.org/ 34 “New Oxford Fund to Bridge 'Innovation Gap'”, Isis Innovation website, June 2010; brochure “OIF: Oxford Invention Fund”, pp.20, downloaded from http://isis-innovation.com 35 Interview with InnovUS, 26/8/2010
Second Report: International Lessons and Examples Page 45 Revised
information can be used to build a case for interventions that are purposefully led and
which will allow us to find the actions which do fit our situation the best.
2. International perspectives on driving innovation
The 2009 Cofisa report on the Western Cape includes a chapter on international
experience with triple helix collaboration that surveys different approaches to building
networks and facilitating collaboration for innovation that are found in Finland,
Australia, India and China. (page 33 et seq)
Universities are critical elements in the Centre of Expertise Programme in Finland and
the Cooperative Research Centres (CRC) Programme in Australia – as they are with the
Centres of Competence model being developed in South Africa. It is not possible to
generalise about the situation in India and China which are such huge and varied
economies in comparison with Finland, Australia or SA. In China, the report notes that
“leading universities have been very active in developing linkages with industry in order
to improve the quality and relevance of their teaching programmes” but that only “about
one-quarter of the 750 R&D centres established in China by foreign firms are estimated to
be joint units with universities or research institutes.”
The COFISA programme was an effort to apply the most successful elements of the
Finnish Innovation Model to South Africa. The book on the project: Enhancing
Innovation in South Africa: The COFISA Experience (2010) states that “South Africa was
the first country in which such collaboration was attempted…. This was not without its
challenges in learning”— a comment that seems full of understatement. The book notes
the differences in population, geography, and that Finland is a knowledge-based
economy, while South Africa a resource-based economy. It also contrasts the South
African approach of having several sectoral policies for Science, Technology and
Innovation (STI) with that of Finland, which “has adopted a systemic approach based on
STI policy to build a knowledge-based society”.
“The main challenges are in how to share a Finnish model in a country with a very
different political and economic culture, and to do it in such a way that supports national
and regional development.” Finland’s model has worked in the Finnish environment. It
“may provide some advice and experience of interventions and support mechanisms”
from which SA can learn, “but ultimately the main task remains in South African
stakeholders’ hands.”
Second Report: International Lessons and Examples Page 46 Revised
The impact of the COFISA programme is not clear yet. It involved many reports,
consultative engagements and meetings and allowed South African government officials
and innovation experts to gain a privileged exposure to the workings of a functioning
innovation system. The COFISA programme was used to develop existing policy for SA on
science parks and on regional innovation systems/forums which has had an influence on
both the research for this project on how universities can drive innovation in the Western
Cape and on the environment in which these discussions are taking place. The COFISA
book includes a frank and revealing chapter on “Lessons learned” from the management
of the project. This records the very there was “almost complete lack of buy-in to the
programme amongst potential provincial stakeholders, particularly by relevant provincial
government staff. This was a major hurdle since the provincial-level component
represented the major portion of the COFISA programme.” Who can doubt that the
difficulties which are being experienced now around the Western Cape Regional
Innovation Forum flow from this?
South African government officials are subject to huge pressures for service delivery,
“quick wins” and measurable results. They find it hard to perform their day jobs, let alone
learn from the examples of others. So many ‘study visits’ and expert exchanges fail to have
the impact they deserve because the daily march of events pulls people back into their
defined jobs and scheduled roles. This is an ongoing tragedy of our transition. We have
had extraordinary opportunities to learn from other governments, regions and
institutions all over the world since 1994. Because of the lack of time for reflection and the
unwillingness to accept that deep change takes decades – whether you plan it or not – the
tendency is to look for silver bullets and magical megaprojects rather than to learn from
practical experimentation and implementation on the ground.
The following conclusion (one of several) comes from a 2008 NESTA36 research study on
innovation in British city-regions (Simmie et al, 2008). The research is introduced as
follows:
“Innovation is a hot topic in economic development circles around the world.
Buoyed by the success of Silicon Valley, Hsinchu region, or Helsinki, innovation is
seen by leading regions as the key to staying ahead; in those that lag, as an
opportunity to catch up. The result has been a plethora of ambitious innovation
strategies. Unfortunately, the common thread has often been under-delivery.
36 NESTA is the National Endowment for Science, Technology and the Arts. “Our aim is to transform the UK’s capacity for innovation. We invest in early-stage companies, inform innovation policy and encourage a culture that helps innovation to flourish.” Formerly a UK government entity, NESTA is now an independent charity. It is funded by the National Lottery, and it operates at no cost to the taxpayer. See http://www.nesta.org.uk/
Second Report: International Lessons and Examples Page 47 Revised
“This failure to deliver has been blamed on many things: lack of institutions, lack
of ambition, and lack of skilled policymakers. However, what has been less
straightforward to understand is the extent to which such change was ever
possible.
“In this research project, we have worked with leading researchers from Oxford
Brookes and Cambridge Universities to use advanced economic techniques to
uncover the extent to which ‘history matters’. The results contain important
lessons for national and regional economic policymakers.”
“Developing new ‘pathways’ for economic development depends considerably on a
region’s innovation system. However, individual policy interventions are likely to
have little impact on economic development if they do not take into account
previous economic structures and their legacy. Perhaps most importantly,
policymakers must be patient and allow major interventions time to bear fruit.
“This work feeds into a wider body of work that deals with the spatial aspects of
innovation policy. Its insights underpin many of the practical programmes we
have underway at NESTA and it forms the backdrop to our work with the nations,
cities and regions that make up the UK.”
The main conclusions, naturally, reflect particularly on UK conditions. One exception is
the paramount importance for innovation of connectivity to international knowledge
networks. The other relates to the importance of time and history:
“In all the most innovative cities in our sample the historical development of their
current successes took between 30 and 40 years. Public policies that played a role
in their early years had not foreseen what emerged several decades later. Many of
the complex outcomes of the interplay between early policy decisions and market
forces arose not so much as a result of some guiding intelligence but more as an
unpredictable emergence of the interplay of the activities of different interest
groups. In this sense it appears that it would not have been possible some 40 years
ago to have devised a suite of public policies that would have ensured today’s
outcomes. Public policies for innovation should therefore be broadly enabling,
tolerant of system redundancy and sufficiently large scale and long-term to adapt
to change. They should enable continual radical and systemic innovations to
evolve and emerge in ways that cannot be foreseen today.”
The 2007 HEFCE study on Global Innovation Environments
The spatial aspects of innovation policy are the theme of the CHEC 2009 document on
“Planning to make the best use of universities in promoting economic and social
development”. The document correctly notes that “the successful city is increasingly
measured by its capacity to attract and retain talent”. And it is also correct that “planning
for innovation and participation in the global knowledge economy cannot be separated
from planning of attractive and convenient integrated environments”. But the document
then leaps directly to the advocacy of a science park (and even to the location for the
science park, on the Belcon site).
Second Report: International Lessons and Examples Page 48 Revised
Other countries have developed many different ways of constructing environments which
promote innovation, and which involve universities, beyond the idea of the science park.
In the pages below, we draw on a UK report on four different categories of university-
linked “global innovation environments”, of which the science park is just one. We could
simply refer readers to the original report (HEFCE, 2007), but we have chosen to
summarise the key points for convenience below.
In 2007, the Higher Education Funding Council for England (HEFCE) published a useful
study on Global Innovation Environments, “where academics and businesses can interact,
share knowledge and develop partnerships (and) are supported by policy actions in many
countries. Such environments not only support and retain the innovation activities of
domestic firms but also serve to attract the innovation activities of multi-national
corporations.” Four categories for this sort of university-linked innovation environment
were identified :
1. Science Parks
Science Parks are purpose-built buildings and infrastructure. They are distinct
from the largely commercial real estate based science/research/technology parks
where all (or most) residents are from the private sector. The Parks are supported
by public funds which typically finance some or all of the capital investment as
well as funding public and academic sector R&D activities There will be structures
in place to facilitate collaborative working and knowledge transfer between
residents with the aim of accelerating the application and commercialisation of
publicly funded R&D. Science Park R&D activity is focused on knowledge
intensive high-growth sectors where interdisciplinary skills are needed and where
academic and business R&D activities are closely aligned. A Science Park is
distinct from the other three categories in the typology by the fact that academic,
public and private sector R&D activities and commercialisation activities are co-
located in a physical environment. This is intended to stimulate collaborations
between academic/public sector researchers and business.
2. HEI-Based Competence Centres
HEI-Based Competence Centres support collaborative academic-industry research
activities in physical R&D centres located within existing HEIs. Centres are
focused on technical themes with strong industrial relevance. The research is
usually inter-disciplinary and addresses fundamental issues that industry is
unlikely to carry out itself but which is expected to have significant impact on
industry in the longer term. Each Centre has a well-defined research programme
designed with industrial and academic input along with processes to facilitate
knowledge transfer. Public funds are allocated for medium- to long-term
timescales (of the order of 10 to 15 years) and may support development of the
Second Report: International Lessons and Examples Page 49 Revised
capital and administrative infrastructure of the Centre as well as research
programme and knowledge transfer activities. The inter-disciplinary and
collaborative nature of Competence Centres requires the establishment of
organisational structures to bridge traditional academic boundaries within an HEI
and facilitate industrial participation. Private sector companies typically
participate through engaging in collaborative research projects, part-funding
research activities, supporting postgraduate students and sitting on governing
boards and committees. Competence Centres are distinct from Science Parks in
that there is a defined programme guiding all the research within the Centre, and
that the majority of the research is conducted within an HEI. Furthermore,
academic-industry collaboration is essential and participants are usually identified
prior to funding allocation decisions.
3. Virtual HEI-based Competence Centres
Virtual HEI-based Competence Centres are similar in their role, research
programme design, technical themes and activities to their physical counterparts,
but several HEIs are involved. This important difference is designed to create
Centres that link sources of expertise from a range of academic disciplines and
geographical locations – often aiming to create a critical mass of expertise and
skills at a national level where it did not previously exist. Public funding supports
the research programme and the development of formal structures to manage
networking and collaborative working among the academic partners as well as
with industrial partners.
4. Innovation Networks
Innovation Networks receive public funds to support networking between
industry, the public sector and academia in specific technical themes or sectors.
Funding supports the management and operations of the Network and may
support academic and public sector participation in networking activities. The
Networks have no dedicated public sector research funds but aim to stimulate the
transfer of existing knowledge and create new R&D collaborations and research
projects that will go on to seek funding from a range of public and private sources.
This is useful reference point for the discussion on how Western Cape universities should
relate to firms and assist in promoting innovation through activities and involvements
that go beyond their accepted teaching and research roles.
The HEFCE report identified “Six Global Innovation Environment exemplars”:
A) Engineering Research Centers, USA
B) Competence Centres in Nanotechnology, Germany
C) Designium, Finland
D) Networks of Centres of Excellence, Canada
E) Competence Centres, Sweden
F) Biopolis, Singapore.
Second Report: International Lessons and Examples Page 50 Revised
All were all created to address the issue of increasing the innovation capacity and
capabilities of their respective national economies and, in particular, their domestic
private sector businesses. The objective of supporting and developing domestic
businesses rather than specifically attracting inward investment is a common aspect of all
the exemplars, except Biopolis in Singapore (and to a lesser extent Designium in Finland).
All but one of the exemplars (Designium) provide training and education of postgraduate
researchers. In addition to access to the knowledge of academic researchers, access to
industrially orientated researchers and potential employees is highly valued by the
industrial participants. A final commonality between exemplars is industrial influence on
exemplar activities, particularly on R&D programmes, through advisory boards and
steering committees.
The exemplars divide themselves into two groups; those established in the late 1980s
through to the late 1990s and those established after 2000. The earlier group was
predominantly focused on improving the competitiveness of domestic businesses in the
context of increasing competition from the Far East. Given the time of their establishment
this is not surprising. The later group is more global in nature and strongly focused on
both the development and support of domestic businesses and attracting inward
investment from international companies. The US Engineering Research Centers, the
Swedish Competence Centres, the Canadian Networks of Centres of Excellence and the
German Competence Centres in Nanotechnology fall into the earlier group, while the later
group includes Designium in Finland and Biopolis in Singapore.
The early group was created at a time when much research, particularly that in higher
education institutions (HEIs), was organised along fairly rigid traditional disciplinary
boundaries; and concepts such as interdisciplinary working, virtual organisation and
close collaboration with industry were novel and not always readily accepted. The success
of these exemplars has been the implementation of processes and activities to bring
industry and academia together to design and conduct research programmes and
commercialise the outputs. The shift towards collaboration across academic, sector and
institutional boundaries has not been simple or easy but the concept is now more
established and increasingly commonplace.
The later group takes the concepts of collaboration and interdisciplinary activities as a
starting point and aims to build on the learning and change already in place. These
organisations are attempting to create environments that fully facilitate and support
Second Report: International Lessons and Examples Page 51 Revised
collaborative partnerships across a wide range of innovation ‘actors’ – HEIs, public sector
research institutes, multi-national corporations, small and medium-sized enterprises
(SMEs) and government. Furthermore, the later exemplars are focused on distinct
geographic locations, seeking to create regional clusters of expertise and fully extend their
influence to the global economy.
Each exemplar is described briefly below.
The HEFCE report is précised (and plagiarised) here to substantiate the point, that the
Western Cape is not limited to ‘science park’ solutions when it considers either the role of
universities in driving innovation or the spatial aspects of promoting innovation. The
exemplars are matched to the typology as follows:
Exemplar A: Engineering Research Centers, USA
Engineering Research Centers (ERCs) were created in the USA by the National
Science Foundation in 1985 in the face of increasing industrial competition from
the Far East. Their aim was to provide an environment in which academia and
industry could collaborate to "pursue strategic advances in complex engineered
systems and systems-level technologies that have the potential to spawn whole
new industries or to radically transform the product lines, processing
technologies, or service delivery methodologies of current industries". The Centers
provide industry with access to expertise and facilities, and enable collaboration
with academics and students. They aim to address generic longer-term and
interdisciplinary problems in engineering and ultimately, the commercialisation
of research outputs. The ERCs are based at universities, with most involving
Table 2.3: GIE study exemplars against the typology
ThemeBio/medical
scienceEngineering IT & Comms Nanotech Design
Various
themes
Typology
T1: "Science Parks" Singapore:
Biopolis
T2: Physical HEI-based
"Competence Centres"
USA
Engineering
Research
Centers
USA
Engineering
Research
Centers
Germany:
Competence
Centres in
Nanotech
Finland:
Designium
Sweden:
Competence
Centres
T3: Virtual HEI-based
"Competence Centres"
Germany:
Competence
Centres in
Nanotech
Finland:
Designium
Canada:
Networks of
Centres of
Excellence
T4: Innovation Networks
Second Report: International Lessons and Examples Page 52 Revised
collaborations between a number of universities and academic disciplines. Each
Center is required to have a strategic plan to integrate research and educational
activities across the ERC participants and a research programme designed with
the participation of industrial members. The ERCs are only part funded by the
National Science Foundation with additional funds provided by the universities
and industry. Annual funding for each Center ranges from $2.5 million to $8
million with the National Science Foundation’s contribution ranging from $1.8
million to $3.3 million. The funding supports networking activities, the purchase
of capital equipment and the research portfolio.
Exemplar B: Competence Centres in Nanotechnology, Germany
The Competence Centres in Nanotechnology, created in 1998, were the first
centres of their kind in Germany. Their policy objective was to support
interdisciplinary and inter-sector activities in the nanotechnology field and
promote knowledge exchange and industrial application. Unlike the ERCs, their
focus was on bundling groups of existing disparate collaborative research projects
into coherent and identifiable research portfolios and facilitating networking
activities between the participating researchers. The funding, at relatively modest
levels of around €350,000 per year, supported networking, technology transfer,
R&D bid support and educational activities, but did not directly fund research
projects. However, collaborative bids from the Centres were given preferential
treatment by various publicly funded research programmes. In effect, the
Competence Centres acted as networks rather than research centres but at the
time of their creation the term ‘network’ was not acceptable in the German policy
environment. Since that time networks have become acceptable and the Federal
Competence Networks Programme created. Most of the Competence Centres in
Nanotechnology have now transferred to this programme, which is much wider in
technological scope, and currently 11 of the 130 networks have a nanotechnology
focus.
Exemplar C: Designium, Finland
After achieving considerable technology based growth in the mid to late 1990s,
Finland’s innovation policy makers came to the view that technology alone might
not be a sufficient driver of continuing growth. Methods to support the
technology-service interface were explored in addition to maintaining
considerable support for R&D. This area included developments in the design of
technology based products as well as technology derived and delivered ‘content’
(i.e. design of both hardware and software based products and services). It was felt
that there was a need to integrate design into the national innovation system;
activities and intermediaries were needed to facilitate the transfer of art and
design knowledge for business applications and provide assistance for researchers
and students to commercialise their ideas. The Designium Network in industrial
design, based at the University of Art and Design in Helsinki, supports all Finnish
art and design institutes and also includes participants from the Nordic and Baltic
countries. It aims to increase the utilisation of design expertise in the innovation
and product development activities of the business sector. The Network links and
groups user-orientated design projects across the participating HEIs, and acts as a
‘store front’ and sign-post for design activities. Designium also aims to promote
Second Report: International Lessons and Examples Page 53 Revised
the creation of new knowledge and expertise in design, market-driven design R&D
and commercialisation. Designium is just one component of wider activities to
develop a design based cluster in the Helsinki region.
Exemplar D: Networks of Centres of Excellence, Canada
The Networks of Centres of Excellence (NCE) programme, established in 1989,
took a similar HEI based approach as the US Engineering Research Centers, in
supporting academic-industry research collaboration. Due to the geographical
dispersion of Canadian researchers, virtual research clusters were created to link
established Centres of Excellence into new identifiable groupings. The resulting
networks are nation-wide, multidisciplinary and multi-sectoral research
partnerships with two key features: a distributed network model in which groups
of researchers at universities across Canada collaborate on common research
problems; and a focus on generating practical applications from fundamental
research programmes through close collaboration with industry. The Networks
support collaborative R&D, postgraduate training, technology transfer and
networking activities. They are part-funded by the NCE Programme (in turn
funded by the Canadian Research Councils and Industry Canada) with additional
funds from industry, the universities and provincial sources. On average,
Networks are funded to the order of C$7.5 million with approximately 50% of
funds received from the NCE Programme. There are currently 24 NCEs in areas
including engineering, manufacturing, health and biosciences, ICT, natural
resources and the environment.
Exemplar E: Competence Centres, Sweden
The Competence Centres Programme was inspired by the Engineering Research
Center Program in the USA. In the late 1980s and early 1990s Sweden was viewed
as having a very rigid disciplinary based research structure, focused on
universities, with little interaction with, or influence by, industry. The Competence
Centres were created as a forum for co-operation between business, the public
sector, universities and colleges, research institutes and other research
organisations. The programme sought to develop industry-related centres that
would be responsible for conducting co-operative interdisciplinary research across
a number of specific technical areas, and the application and commercialisation of
the research outputs. The Competence Centres are housed at, and administered
by, individual universities and organised as public-private partnerships with
financial support and participation from both industrial and public sector
participants. Typical funding for a Centre is SEK 18 million (£1.3 million) which
funds collaborative R&D, postgraduate training, technology transfer and
networking activities. The Programme recently came to an end and is being
replaced by the Excellence Centre Programme. This new programme is currently
open for proposals. A related initiative has also launched a call for proposals for
Competence Centres based at research institutes (rather than universities).
Exemplar F: Biopolis, Singapore
In 2000 the Singapore government launched its Biomedical Sciences Initiative
with the aim of developing Singapore’s infrastructure, skills and institutional
environment to support a biomedical industry – from basic and applied research
Second Report: International Lessons and Examples Page 54 Revised
and commercial product development right through to the delivery of healthcare
services. The country not only wishes to support a biomedical industrial sector but
also aims to become the prominent healthcare provider in the region. While
Singapore was already home to the manufacturing operations of a number of
international pharmaceutical companies, it had little in the way of research
capabilities and needed to create an entirely new biomedical research sector.
Furthermore, it was recognised that the development of the sector would require
importing skills and knowledge from overseas. The cornerstone of the Biomedical
Sciences Initiative is the purpose-built Biopolis Science Park which was designed
to house and provide specialist facilities for biomedical R&D activities across the
public and private sectors. The aim, through the co-location of private and public
sector R&D activities, is to stimulate the flow of knowledge and people across
organisational boundaries and accelerate the commercialisation of research
outputs. Biopolis is currently home to: Singapore’s public research funding
agencies and biomedical regulatory bodies; five newly established public sector
research institutes; two international academic research groups from the USA and
Japan; biotechnology SMEs and the R&D centres of a number of multi-national
pharmaceutical companies.
The table on the following page compares the four categories of Global Innovation
Environments (GIE) against:
1) The balance of public-private participants and their level of co-location
2) The source and level of investment
3) The balance of capital vs. non-capital investment
4) Type of activities undertaken
5) The form of the outputs.
Second Report: International Lessons and Examples Page 55 Revised
Tab
le 2
.1:
Typ
olo
gy
of
Glo
bal in
no
va
tio
n E
nvir
on
men
ts
Glo
bal
Inn
ovati
on
En
vir
on
men
t C
ate
go
ry(1
) G
IE P
art
icip
an
ts(2
) S
ou
rce o
f G
IE
investm
en
t
(3)
Investm
en
t u
se:
cap
ital vs.
acti
vit
ies
(4)
GIE
acti
vit
ies
(5)
GIE
Dir
ect
ou
tpu
tsA
dd
itio
nal In
form
ati
on
T1:
"S
cie
nce P
ark
s"
Aca
de
mic
s
Pri
va
te S
ecto
r
Pu
blic
se
cto
r re
se
arc
he
rs
Fu
nd
ing
fro
m a
mix
ture
of
pri
va
te a
nd
pu
blic
so
urc
es f
or
bo
th c
ap
ita
l
de
ve
lop
me
nt
& r
ese
arc
h
activitie
s
Ca
pita
l in
ve
stm
en
t in
bu
ildin
gs &
infr
astr
uctu
re
Se
pa
rate
pu
blic
& p
riva
te s
ecto
r
rese
arc
h f
un
din
g
Co
-lo
ca
ted
aca
de
mic
, p
ub
lic
an
d p
riva
te s
ecto
r R
&D
Ne
two
rkin
g
Kn
ow
led
ge
tra
nsfe
r
Co
mm
erc
ialis
atio
n
Tra
ditio
na
l a
ca
de
mic
ou
tpu
ts
Kn
ow
led
ge
tra
nsfe
r
Ne
w c
olla
bo
ratio
ns
IP g
en
era
tio
n
Ne
w p
rod
ucts
& p
roce
sse
s
Aca
de
mic
, p
ub
lic &
pri
va
te s
ecto
r R
&D
co
-
loca
ted
in
th
e S
cie
nce
Pa
rk
De
gre
e o
f co
llab
ora
tio
n b
etw
ee
n p
art
icip
an
ts
de
pe
nd
s o
n t
he
pro
ce
sse
s a
nd
str
uctu
res in
pla
ce
T2:
Ph
ysic
al
HE
I-b
ased
"Co
mp
ete
nce C
en
tres"
Aca
de
mic
s
Pri
va
te S
ecto
r
Pu
blic
se
cto
r re
se
arc
he
rs
Aca
de
mic
activitie
s
fun
de
d f
rom
th
e p
ub
lic
se
cto
r
Se
lf-f
un
din
g f
or
pri
va
te
se
cto
r p
art
icip
atio
n
Pu
blic
fu
nd
s f
or
Ce
ntr
e
ma
na
ge
me
nt
& c
olla
bo
rative
R&
D p
rog
ram
me
s
Pu
blic
pro
gra
mm
es m
ay a
lso
fun
d c
ap
ita
l e
qu
ipm
en
t
Se
lf-f
un
de
d p
riva
te s
ecto
r
pa
rtic
ipa
tio
n in
co
llab
ora
tive
R&
D
pro
jects
Co
llab
ora
tive
R&
D
Po
stg
rad
ua
te t
rain
ing
Ne
two
rkin
gK
no
wle
dg
e
tra
nsfe
r
(Co
mm
erc
ialis
atio
n o
ccu
rs
ma
inly
ou
tsid
e o
f th
e
Ce
ntr
e)
Tra
ditio
na
l a
ca
de
mic
ou
tpu
ts
Kn
ow
led
ge
tra
nsfe
r
Ne
w c
olla
bo
ratio
ns
IP g
en
era
tio
n
(Ne
w p
rod
ucts
& p
roce
sse
s in
the
lo
ng
er
term
)
Ce
ntr
es lo
ca
ted
at
a H
EI
with
exi
stin
g e
xpe
rtis
e
in t
he
th
em
e/s
ecto
r
R&
D c
on
du
cte
d in
th
e C
en
tre
Ce
ntr
es f
ocu
se
d o
n t
ech
nic
al th
em
es w
ith
ind
ustr
ial re
leva
nce
T3:
Vir
tual
HE
I-b
ased
"Co
mp
ete
nce C
en
tres"
Aca
de
mic
s
Pri
va
te S
ecto
r
Pu
blic
se
cto
r re
se
arc
he
rs
Aca
de
mic
activitie
s
fun
de
d f
rom
th
e p
ub
lic
se
cto
r
Se
lf-f
un
din
g f
or
pri
va
te
se
cto
r p
art
icip
atio
n
Pu
blic
fu
nd
s f
or
Ce
ntr
e
ma
na
ge
me
nt
& c
olla
bo
rative
R&
D p
rog
ram
me
s
Pu
blic
pro
gra
mm
es m
ay a
lso
fun
d c
ap
ita
l e
qu
ipm
en
t
Se
lf-f
un
de
d p
riva
te s
ecto
r
pa
rtic
ipa
tio
n in
co
llab
ora
tive
R&
D
pro
jects
Co
llab
ora
tive
R&
D
Po
stg
rad
ua
te t
rain
ing
Ne
two
rkin
gK
no
wle
dg
e
tra
nsfe
r
(Co
mm
erc
ialis
atio
n o
ccu
rs
ma
inly
ou
tsid
e o
f th
e
Ce
ntr
e)
Tra
ditio
na
l a
ca
de
mic
ou
tpu
ts
Kn
ow
led
ge
tra
nsfe
r
Ne
w c
olla
bo
ratio
ns
IP g
en
era
tio
n
(Ne
w p
rod
ucts
& p
roce
sse
s in
the
lo
ng
er
term
)
Ce
ntr
es lin
k a
nu
mb
er
of
HE
Is m
akin
g t
he
ir
skill
s &
exp
ert
ise
mo
re w
ide
ly a
va
ilab
le
R&
D c
on
du
cte
d in
th
e C
en
tre
Ce
ntr
es f
ocu
se
d o
n t
ech
nic
al th
em
es w
ith
ind
ustr
ial re
leva
nce
T4:
Inn
ovati
on
Netw
ork
s
Aca
de
mic
s
Pri
va
te S
ecto
r
Pu
blic
se
cto
r re
se
arc
he
rs
Pu
blic
an
d p
riva
te
se
cto
r fu
nd
ing
Pu
blic
fu
nd
s f
or
Ne
two
rk
ma
na
ge
me
nt
& o
pe
ratio
ns
Se
lf-f
un
de
d p
riva
te s
ecto
r
pa
rtic
ipa
tio
n in
ne
two
rkin
g
activitie
s
Ne
two
rkin
g
Kn
ow
led
ge
tra
nsfe
r
(Ma
y b
e in
vo
lve
d in
po
stg
rad
ua
te t
rain
ing
)
Kn
ow
led
ge
tra
nsfe
r
Ne
w c
olla
bo
ratio
ns
(Ne
w p
rod
ucts
& p
roce
sse
s in
the
lo
ng
er
term
)
Ne
two
rks h
ave
no
de
dic
ate
d p
ub
lic s
ecto
r
rese
arc
h f
un
ds b
ut
aim
to
stim
ula
te n
ew
R&
D
co
llab
ora
tio
ns a
nd
kn
ow
led
ge
tra
nsfe
r
Second Report: International Lessons and Examples Page 56 Revised
In summary, the HEFCE report finds that there are numerous approaches to the creation of
Global Innovation Environments to support innovation, which relate closely to universities
and which aim to retain and attract private sector R&D and innovation activities. Despite
differences in initial economic and policy contexts, all are based on the interdisciplinary
nature of innovation activities and the need for knowledge exchange and collaboration across
organisational boundaries – public and private, academic and business, small and large
companies, national and international. At a minimum level pro-active networking activities
are required to bring together the individuals to stimulate technology and knowledge
transfer and create new collaborations. Throughout the 1980s and 1990s further support for
Global Innovation Environments resulted in the provision of public programmes for
collaborative research aimed at solving technical challenges and deepening relationships and
networks. More recent approaches appear to be centred on the development of identifiable
physical infrastructures to support technology and sector clusters. These clusters are
integrating many of the features of the earlier models with the physical proximity of private
and public R&D, creating increased opportunities for structured and unstructured
interactions. Biopolis and Designium are intentionally international in focus and,
simultaneously, regional in nature.
There is no suggestion that the Western Cape and the CHEC partners should pick one of
these four categories or seek to emulate one of the exemplars. The Western Cape needs to
develop its own approach based on its own circumstances and making use of the particular
national and regional policies that impact on innovation. The COFISA report on the Western
Cape identifies regional innovation strengths – in innovation assets and centres of
excellence. These can be part of a platform for better co-operation and to build critical mass.
Several additional pointers towards this goal can be extracted from CHEC’s 2009 study tour.
3. CHEC conclusions from Barcelona and England
CHEC partners went on a study tour to North England and Barcelona in 2009 to look at the
role of universities in regional development. The general aim was to inform a joint
understanding of the structure and nature of successful university, business and government
partnerships with colleagues in the Provincial Government of the Western Cape and the City
of Cape Town37. The general lesson, perhaps, was the critical contribution of strong higher
education institutions in local development, social reconstruction and place-making. The
37 The City was included in the invitation, but did not in fact join the October study tour, having visited Barcelona with two CHEC representatives in June 2009. The Cape Biotech Trust (now TIA) participated in the October study tour to Barcelona.
Second Report: International Lessons and Examples Page 57 Revised
particular lesson was the need for the roles and responsibilities of the various partners to be
clear.
Specific objectives included the investigation of how universities have addressed knowledge
transfer and innovation in a regional context.
In both the UK and Spain they found a heavy emphasis on innovation. Initiatives range from
networks and partnerships to incubators to Science Parks. Attraction of talent to the region
is seen as a priority and higher education is seen as a key instrument for this goal.
In the North of England (and in the UK generally) higher education is recognised as a key
partner in leveraging growth. Universities (either individually or through their collective
associations) are involved in three key levels of engagement :
o As a partner in policy and strategy development with both business and
government, particularly through the Regional Development Associations.
The RDAs are controversial instruments of regional government, unique to
England, which control very considerable resources, both from national
government and from the European Union.
o In collaborative developments where there are complimentary interests38;
o As a provider of services – research and innovation, consultancy, skills,
including teaching and learning.
While the primary role of higher education is seen to be teaching and research, there is much
more than a recognition of technology transfer within the context of research. The ‘third
mission’ of universities in knowledge transfer to society in general is an area of increasing
emphasis and integration. In this context, however, the roles and responsibilities of the
various stakeholders are clear. The view is that if talent is attracted to the universities, other
forms of talent will follow and this will benefit the region in a general sense.
In Barcelona, the CHEC delegation was most impressed by two initiatives related to regional
development, both of which include higher education institutions and make full use of their
contributions to leadership, skills, research and innovation.
38 For example, the Daresbury Science and Innovation Campus, listed as one of the major innovation assets in the North of England (SQW Consulting, 2008, p.10), was created by the Northwest Regional Development Agency, the local authority and the universities of Manchester, Liverpool and Lancaster, with support from the Government. Daresbury won the UK’s Outstanding Science Park 2009 award and is home to 100 high-tech companies.
Second Report: International Lessons and Examples Page 58 Revised
Barcelona Activa has a twenty five year history as the development agency of the City of
Barcelona. It is responsible for business creation and growth, the promotion of innovation
and human capital development. Its activities include tailored programmes of support for
entrepreneurs (acknowledging different levels of capability) and various mechanisms to ease
knowledge transfer from universities to business ventures. Many of their programmes draw
on support from universities or were led by universities in their establishment.
22@Barcelona is an urban regeneration project, which has transformed two hundred
hectares of industrial land “into an innovative district offering modern spaces for the
strategic concentration of intensive knowledge-based activities. ...It is the most important
project of urban transformation of Barcelona city of recent years” (website). Prior to the
establishment of this project, the City of Barcelona had long-standing strategies to
regenerate the city, using funding for the 1986 Olympic Games as a springboard. Following
more than a decade of infrastructure developments that improved the accessibility of the
area, the 22@ Plan was approved in 2000 for the refurbishment of the Poblenou industrial
areas. University expertise was used in these initiatives, both as expert advice and in chairing
key workgroups, but there was also direct collaboration in development of physical
infrastructure for identified university faculties in areas marked for regeneration and
innovation. One of the regenerated sites had been prepared for the relocation of the media
and communication faculty of one of the leading universities as an anchor for a major media
hub, which includes the head office of a leading media house, amongst others. Other areas of
focus include energy, health technology, design and ICT.
CHEC found that many of the same lessons from the north of England also applied to
Barcelona. Higher education is fully included as a valued partner in the triple helix. The role
of higher education is recognised as a long-term one without inappropriate short-term
service provision expectations. Roles and responsibilities of the various partners are clear
and goals for different interventions are clearly understood.
Barcelona (and Catalonia) seeks to promote itself as a study centre. Increasing numbers of
post-graduate enrolments and successful efforts to market the MBA offerings of its several
universities have established the higher education sector as an important contributor to the
local economy in its own right. Collaboration of the city with the state and the universities
has been a feature of this process. There are various projects to support this, for example
one of the initiatives to make the City more attractive to new academics staff and students
helps them to find suitable accommodation.
Second Report: International Lessons and Examples Page 59 Revised
The CHEC delegation visited two Science Parks, the University of Barcelona Science Park
(Parc Científic de Barcelona—PCB)39 and the Scientific and Technological park of the
University of Girona (Parc Científic i Tecnològic de la Universitat de Girona).40 Each has a
range of focal areas from high level research to spin-offs from research, to start up
companies. Both matched this with outreach to the public as well as to school students in
particular and saw their role also to promote science in society.
Science Parks are a recent phenomenon in Spain, none being more than a decade old. They
were seen as a way to change practices across the whole university. In Girona, for example,
university curricula across the board emphasised entrepreneurship. The advice to the CHEC
delegation was to start small with one project and to concentrate efforts before growing. The
role of the university and academic activities were pivotal in avoiding a real estate type
development. Developing a critical mass of experienced researchers, post-graduate students
and innovative companies is a condition for success.
All the successful initiatives demonstrated:
Shared vision and commitment, built up over a long period
The vision, demonstrated even in funding provided by regional government, tended
to be long-term rather than focussed on short-term issues such as immediate job
creation.
Leadership at the highest levels of all the stakeholders
In addition to this, the role of what colleagues at the University of Salford termed
“academic politicians” had been important in taking their universities to new levels.
They worked together with a committed group of “can-dos” who could implement the
vision at every level and work through challenges. Visionary leaders and effective
implementers, who were consistently able to marshall support for resources were
necessary for each project.
.
39 Founded by the University of Barcelona in 1997, it was the first science park in Spain. The first tenants moved in 2001 and the present space was fully occupied in 2003. At present the park is home to 3 research institutes, 75 companies, an incubator for biotechnology companies and more than 70 research groups . 2,200 people work in the park. Present buildings provide 25,000 m2 of space. In 2011 the Barcelona Science Park will finish its current expansion project and it will then have a total area of 96,000m2. (PCB website) 40 Founded by the University of Girona in 2001, on land provided by the Town Council of Girona, 100km north-east of Barcelona. The first buildings were occupied in 2007. The park covers 7,5ha, with 6 buildings (36.000 m2) constructed. 29 Research Groups and 66 companies are located in the Park. 1,000 people are employed at the Park.
Second Report: International Lessons and Examples Page 60 Revised
An appreciation of important, and multifold, role of strong universities
Universities were seen as assets to each of the regions. Regional and city government
would mention universities not only as skills providers in presentations to attract
investors. They helped to promote and market universities to students who would
relocate to the city and to businesses who could make use of university research
expertise and patents. Universities also contribute generally to a creative and
attractive living environment.
There was strong evidence of joined up work in all the regions visited. Barcelona Activa and
22@Barcelona were particularly impressive because of the interconnections between various
components of their work and the integration of social and economic dimensions.
Mechanisms for the cross-pollination of ideas were encouraged as being key to overall
promotion of innovation. All had a broader view of development, which incorporated social
as well as economic and technological elements.
The CHEC delegation was told that Science Parks are only likely to succeed if there is a
critical mass of researchers as well as companies. Science Parks must be located close to
universities. One key to their success was the generation of new research and ideas by
locating people from different disciplines together. Large investments by government and
business, including banks, and the ability to raise venture capital are required and this will
have to be ongoing. Science Parks in themselves are not necessarily profitable entities.
Second Report: International Lessons and Examples Page 61 Revised
4. Science Park issues in the literature
The idea of a science park41 was the starting point for this study.
Science Parks are mentioned specifically only once in the Department of Science and
Technology “Ten-Year Innovation Plan” of 2008. But science park approaches are very
strongly favoured in the DST’s 2009 Draft Regional Innovation Systems Strategy document
and by the Cofisa research (See the Cofisa book, Enhancing Innovation in South Africa: The
COFISA Experience, 2010), which inspired the National Science Park Draft Strategy (DST,
2009). Science Parks are under serious consideration at present in the North West and in the
Eastern Cape, where two are planned, one for the East London Industrial Development Zone
and one adjacent to the NMMU, in Port Elizabeth.
But the case for a science park in the Western Cape as an immediate strategy is not clear. It is
weakened by the experiences of two unsuccessful science park efforts in the Western Cape –
those of the Stellenbosch Technopark and Capricorn – and by the 2009 Cofisa report on
innovation networks in the Western Cape. This found that while “science parks may be a
good idea in the long term” they are probably not a useful focus in the short term.
The report said that “there are fundamental issues that need to be addressed in the short to
medium term before a science park can succeed e.g. promoting a culture where learning and
innovation are prioritised by the majority of triple helix players, building trust across the
triple helix, and generating a sufficient volume of innovation activity to sustain a science
park” (p. 57)
The ten-year experience of the Innovation Hub, South Africa’s only accredited science park,
also contains lessons for the Western Cape. These are explored in a chapter specifically
researched for CHEC for the present study (see page 9, above). The conclusion echoes the
cautionary messages of the Western Cape Cofisa report.
Link and Scott (2007) undertake a useful survey of international literature on university
research parks, how the best parks operate and their impact. They use the following
definition:
41 According to Link (2009): “The term research park is more prevalent in the United States, the term science park is more prevalent in Europe, and the term technology park is more prevalent in Asia.”
Second Report: International Lessons and Examples Page 62 Revised
“A university research park is a cluster of technology-based organizations that locate
on or near a university campus in order to benefit from the university’s knowledge
base and ongoing research. The university not only transfers knowledge but expects
to develop knowledge more effectively given the association with the tenants in the
research park.” (citing Link and Scott 2006)
They conclude that there is sound evidence that “parks enhance the two-way flow of
knowledge between firms and universities. Thus, parks enhance innovation and,
subsequently, competitiveness.” But the authors also find that while science parks may have
a galvanizing effect on the knowledge flow between universities and industry; they do not
necessarily create this flow. It follows, in their view, that university research parks (URPs)
“should not a priori be considered a primary element of a nation’s innovation system. A
national innovation system “includes competitive firms and a competitive environment, an
effective educational system, strong university research, a legal system with property rights,
and a capital market that includes venture capital”. “Successful two-way knowledge flow
between universities and industry is a key ingredient for a national innovation system, and
we do have evidence that URPs play a role in that knowledge flow. However, URPs are not a
sine qua non of the knowledge flow”.
The international literature shows that science parks can play a part in assisting regions to
develop. They provide agglomeration benefits for companies and sectors, independent of the
knowledge flows they encourage between universities and businesses. This brings us to the
relationship between innovation and space.
Miles and Daniels (2007) in their commentary on The State of the Innovation Economy in
the UK give instances of the way that regional advantage (for example in an area such as
ELAt—Eindhoven, Leuven, Aachen Growth Triangle in the Netherlands) “is purposefully
‘constructed’ by enabling collaboration focused on key industrial-innovation platforms using
pervasive technologies.... The ‘full constructed advantage’ approach involves building
creative regions and cities that are attractive cultural environments in which innovation is
increasingly fostered and promoted; talent, that drives the innovation economy, requires an
excellent quality of life.”
They comment that “Building an innovation-industrial platform is perhaps best done at a
sub-regional level, as it is often easier to marshal resources, networks and a ‘communality of
sentiments’ at a more confined geographical scale than a nation state.”
Second Report: International Lessons and Examples Page 63 Revised
Simmie (2005) states that “innovation is an economic and social phenomenon that at first
sight has no necessary relationship to space”. But he presents a survey of empirical studies
that “have increasingly shown that there is a distinctive geography of innovation ... This is
significant both from a theoretical perspective and because of the possible insights that it
gives for public policies that seek to generate or accelerate innovation in particular
localities”.
The way that innovation advantages can flow from science park initiatives is the uniting
theme of the Cofisa book (2010) – which presents Finnish experiences in the context of a
project to promote innovation in South Africa.
This study on how to drive innovation in the Western Cape has found many persuasive
arguments against making the construction of a science park a prominent element in the
solution to the innovation problems that have been identified in the region. One of the early
working hypotheses for the research was that the vision of a science park – “or similar
physical facility” – could be a catalyst to get all the parties working together on one project
and to use common activities towards a common goal as a way of strengthening networks,
developing collaboration and challenging the silo-minded cultures of separation which
characterise our regional innovation ecosystem.
This idea still lingers – but we are convinced that a science park is not the appropriate
catalytic project to provide a shared agenda for all stakeholders. Nevertheless, we do think
that a case should be made for the Bellville precinct to be transformed in ways that will
enhance its contribution to innovation, triple-helix networks and City development.
We do not think that CHEC is the right vehicle to lead a proposal on the Bellville precinct,
but CHEC can play a useful role in outlining the issues and stimulating a debate.
Bellville
The Bellville proposal is centred on access to a particular piece of land. The proposal is able
to accommodate the findings of the Cofisa report “against” a science park, because it would
agree that this is a long-term proposal and that it depends upon the improvements in
collaboration and co-operation that are suggested as the short and medium-term steps for
strengthening innovation networks in the Western Cape.
Second Report: International Lessons and Examples Page 64 Revised
The proposal endorsed by CHEC in 2009 calls for the City to put in place planning and land
use frameworks that would make the development of the site as a science park a possible
goal over a long period of time, in the context of urban regeneration and the creation of
innovation communities.
The 340 hectare size of the whole site42 is large for a science park – the International
Association of Science Parks (IASP) describes science parks that are over 1 million square
meters as “the giants of our industry”43. The Turku science park in Finland, named as a
possible model for Bellville, is 500 hectares. The Innovation Hub site in Pretoria extends to
60 hectares. Many members of the IASP are much smaller. Some are just single buildings,
others are large expanses that include residential areas, universities, parks and streets.
Total surface (area) of your Park or Incubator (including built areas, green areas, roads, etc)
Science Park ha Sq km No of companies
Research Triangle Park, NC 2,833 28.3 170
Turku, Finland 500 5.0 352
”Bellville precint” 340 3.4
22@Barcelona district 200 2.0 ?
The Innovation Hub, Pretoria 60 0.6 52
Daresbury Science and Innovation Campus, UK 25 0.3 100
University of Warwick Science Park, UK 17 0.2 150
Cambridge Science Park 15 0.1 85
Barcelona Science Park 10 0.1 75
Girona Science Park, Spain 8 0.1 66
Manchester Science Parks 6 0.1 80
Source: IASP, Daresbury, PCB and UdG websites
Part of the reason for including the table above, which is selective, is to illustrate how flexible
the concept of a science park can be when it comes to its manifestation in space. The IASP
has a particular definition of a science park, which emphasises the way that it fosters a
climate hospitable to innovation as opposed to developments that may call themselves
technology parks but which are simply business parks that offer space to tenants.44
42 A City of Cape Town document states that “The Bellcon precinct is ±233 ha in extent” (“Transnet Marshalling Yards (Bellcon)” Tygerberg District planning document - Executive summary, August 2009) 43 Only 19% of IASP members in 2006/7 were larger than 100 hectares. 44 This definition is used in presentations on the Bellville Science Park (Ridge, 2010), in Cofisa (2009b), in DST (2009) and also in Wessner (2009) who comments: “Alternatively referred to as research parks, science parks, technology parks, technopoles, science centers, business innovation centers, and centers for advanced technology, there appears to be no singular characterization of a research park.”
Second Report: International Lessons and Examples Page 65 Revised
Definition: A Science Park is an organisation managed by specialised professionals,
whose main aim is to increase the wealth of its community by promoting the culture
of innovation and the competitiveness of its associated businesses and knowledge-
based institutions.
To enable these goals to be met, a Science Park stimulates and manages the flow of
knowledge and technology amongst universities, R&D institutions, companies and
markets; it facilitates the creation and growth of innovation-based companies
through incubation and spin-off processes; and provides other value-added services
together with high quality space and facilities.
—International Association of Science Parks, April 2002
Many people who have responded to the proposal for the Bellville science park have
interpreted it in the context of this definition, and they have therefore been blind to the
spatial implications of the proposal which are integral to it.
“The envisaged developments will also make a major contribution to the development
of new, post-apartheid spaces in the Western Cape, triggering a highly desirable
pattern of urban transformation.”
– “Preliminary information on Science Parks”, Addendum A to DST (2009)
The spatial aspects of the proposal for the Bellville precinct (Ridge, 2010) are extremely
ambitious. Some would say they are fanciful, even when seen in the long term.
They embody a vision of a nodal “smart city” centre within Cape Town with the following
features:
a. Excellent high-density housing in mixed-use, Transit Oriented
Development45 near a revamped station: trigger for other renewal of
Bellville CBD
b. State-supported Science Park in middle (managed facilities, broadband,
secure electricity, specialist services, incubation)
c. Excellent recreational and social facilities (parks, sport, gymnasium,
galleries, theatres, restaurants, coffee shops)
d. Interface developments near the institutions (medical and legal clinics,
model schools, retirement village etc.)
45 “Transit Oriented Development is the exciting new fast growing trend in creating vibrant, liveable communities. Also known as Transit Oriented Design, or TOD, it is the creation of compact, walk able communities centered around high quality train systems. This makes it possible to live a higher quality life without complete dependence on a car for mobility and survival”. TOD is a major solution to the serious and growing problems of peak oil and global warming because it reduces burning of fossil fuels. (http://www.transitorienteddevelopment.org/)
Second Report: International Lessons and Examples Page 66 Revised
e. Excellent public transport: Rapid Transit System, Bellville Station
upgrade.
The proposal is motivated by the opportunity that is presented to leverage innovation off the
existing capacity and achievement of the academic institutions, hospitals, research facilities,
colleges and major companies that surround the Transnet-owned Belcon site. It then leaps
into a plan to develop the freight yard with new buildings, roads and parks. It shifts the focus
from innovation to land use in the crudest possible way.
We have approached the question differently. We recognise the opportunity presented by the
knowledge institutions that surround the site. We know that spatial arrangements can
improve their inter-action and can possibly assist in constructing an innovation-industrial
platform or in forming the critical mass of capable researchers, well-governed institutions
and targeted public support that is needed for improved innovation performance.
One option would, indeed, be to build something new and good on the 340ha site. But that
might not be the first goal to set, even if the site were easily available. If the Belcon site was a
lake, or quicksand, what steps could be taken to work with the space around it?
The research reports we have compiled outline complex, practical difficulties that surround
the use of the site. For this reason alone, it is sensible to look for alternatives. But we would
argue that the alternatives make better sense. They allow immediate actions to be taken to
improve the innovation ecosystem. They do not exclude the eventual use of the Transnet site
for developments that will enhance the environment for innovation, but they do not depend
upon it.
We have structured this alternative under an arbitrary name, the “Bellville Innovation Zone”
[this proposal arises out of this study and will be better defined for the workshop after the
completion of Report 3]
It is important to emphasise that the “Bellville Innovation Zone” is fully aligned with the
recommendations of the Cofisa Western Cape Report (a document that is deserving of wider
attention and more careful reading than it has received to date).
Second Report: International Lessons and Examples Page 67 Revised
The Bellville Innovation Zone will
1. Have a specific location and defined (but alterable) borders,
2. Be a space that can accommodate all agendas related to innovation - a
knowledge economy, information sharing, collaborative projects, social
engagement towards a fairer city...
3. Concentrate energy that is presently dissipated or never assembled (especially
from township areas in Bellville, Khayalitsha, Mitchells Plain and the south)
4. Attract participation from other parts of the City. (Something new, something
extra, something special – but embodying the spirit of constructive
competition)
5. Be regulated by City measures that provide for Special Rating Areas46 and by a
Charter that ‘inhabitants’ can develop and then subscribe to.
6. Allow the universities, colleges, research facilities and hospitals in the
identified area to begin to live now in an “innovation zone” that includes them
all and the character of which they can begin to define. This could include:
i. a green building, sustainability theme.
ii. a common branding and signage for buildings.
iii. a public transport system
The Bellville Innovation Zone will be a defined place to illustrate new ways of living and
doing and which draws on the universities and other institutions to provide leadership and
content. The universities (individually and collectively) have a choice on how they will
participate and the amount of effort they dedicate. They will have the opportunity to shape a
new relationship between learning and research, business and community.
46 SRAs are used by communities to provide top-up services when those provided by councils are seen as inferior to their needs. More than half of a community's members have to agree to the imposition of the extra rates involved. The expenditure is in terms of an approved business plan and is ring-fenced within the community's area. The total of all SRA income in Cape Town at present is R81 million. The SRA for the Cape Town CBD, the Cape Town Partnership, has the largest budget. For the other 21 SRA's in existence, the average budget is just short of R200 000 a month. UCT, with its concern for the safety and security of its staff and students, recently led the way in forming the Groote Schuur CID. Athlone, Claremont, Rondebosch and Observatory already have SRAs. (Includes information from “Special Rating Area the wrong vehicle for upliftment” Cape Times September 30, 2010)
Second Report: International Lessons and Examples Page 68 Revised
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http://www.stevecurrall.com/pdf/Currall_CE_Pipeline.pdf.
Preston, L. (2007) “National Science Foundation (NSF) Engineering Research Centers
(ERC) Program”,23 PowerPoint slides
www.nsf.gov/eng/cbet/aiche/53_engrg_research_centers.ppt
Ridge, S. (2010) “Belleville and the Knowledge Economy”, 40 PowerPoint slides
Simmie, J., Carpenter, J., Chadwick, A. and Martin, R. (2008) ‘History Matters: Path
dependence and innovation in British city-regions.’ (London: NESTA), pp.96
Simmie, J. (2005) “Innovation and space: a critical review of the literature.”, Regional
Studies, vol. 39, no. 6, pp. 789-804
SQW Consulting (2008) “Major Innovation Assets in the North of England - A Report to
the Northern Way”, October 2008, pp.28
Toronto Regional Research Alliance (TRRA) (2006) “At the Crossroads – Strengthening
the Toronto Region’s Research and Innovation Economy. Lessons from leading
high-tech centres around the world”.
Toronto Regional Research Alliance (TRRA), (2007) “The Role of Universities in
Economic Development, June 2007, A discussion document prepared for TRRA's
Research Working Group”, pp.63, viewed on 7-Jun-2009,
http://www.trra.ca/en/reports/TRRAReports.asp
Unctad, Commission on Science and Technology for Development (2006) “Bridging the
technology gap between and within nations”, E/CN.16/2006/2, 31 March 2006,
pp. 20 http://www.unctad.org/en/docs/ecn162006d2_en.pdf
Second Report: International Lessons and Examples Page 71 Revised
Wessner, C.W. (ed) (2009) “Understanding Research, Science and Technology Parks:
Global Best Practice: Report of a Symposium”, pp.214 (NAP: Committee on
Comparative Innovation Policy: Best Practice for the 21st Century; National
Research Council) downloaded from: http://www.nap.edu/catalog/12546.html
World Conference on Higher Education (1998) “The Role of Universities in Regional
Development” Thematic debate: Contributing to National and Regional
Development (Unesco: Paris, 5-9 October); includes working paper authored by
Prof John Goddard, Newcastle upon Tyne
Articles from newspapers, magazines and websites
“Concerted intervention needed to escalate South Africa’s PhD numbers”, Academy of
Science of South Africa (ASSAf) website, October 11, 2010
“Europe 2020: Commission proposes new economic strategy in Europe”, IP/10/225,
Brussels, 3rd March 2010
“New Oxford Fund to Bridge 'Innovation Gap'”, Isis Innovation website, June 2010
Websites
22@ Barcelona (“the innovation district”) website
http://www.22barcelona.com/index.php?lang=en
Academy of Science of South Africa (ASSAf) website: http://www.assaf.org.za
Barcelona Activa website: http://www.barcelonactiva.cat/barcelonactiva/en/index.jsp
Barcelona Innova! Website:
http://w3.bcn.es/V42/Home/V42HomeLinkPl/0,3555,83057194_83070514_3,0
0.html
Barcelona Science Park (Parc Científic de Barcelona—PCB) website:
www.pcb.ub.es/homePCB/live/en/p1.asp
Cape Town Activa website: http://capetownactiva.com/ and
http://www.creativecapetown.net/cape-town-activa/ {links do not work}
Daresbury Science and Innovation Campus website: http://www.daresburysic.co.uk/
Engineering Research Center (ERC) Program (USA) website: http://www.erc-assoc.org
European Commission (2010) “Europe 2020: A strategy for smart, sustainable and
inclusive growth”, March 2010, website:
http://ec.europa.eu/eu2020/index_en.htm
Georgia Research Alliance (GRA) website: www.gra.org
National Advisory Council on Innovation website: http://www.naci.org.za/
NRF website: http://www.nrf.ac.za
Scientific and Technological park of the University of Girona (Parc Científic i Tecnològic
de la Universitat de Girona Website: http://www.parcudg.com
Sunrise Valley Science and Technology Park, Vilnius, Lithuania website:
http://www.sunrisevalley.lt.
Second Report: International Lessons and Examples Page 72 Revised
Appendix
CHEC, “Planning to make the best use of Universities in promoting
economic and social development” (2009)
CAPE HIGHER EDUCATION CONSORTIUM
PLANNING TO MAKE THE BEST USE OF UNIVERSITIES IN PROMOTING
ECONOMIC AND SOCIAL DEVELOPMENT
The City of Cape Town (the City) and the universities in the city, working together in the Cape Higher
Education Consortium (CHEC), signed a Collaboration Protocol in 2008. In the spirit of that
agreement, the universities wish to put before the City the kinds of planning considerations which
would be conducive to their making a sustained and strong contribution to economic and social
development in and around Cape Town. CHEC has attempted to bring together best international
practice on innovation with the dynamic planning initiatives already undertaken by the City,
especially the City Development Strategy, the Integrated Development Plan, and the District Spatial
Development Frameworks. A particular point of engagement is the notion of “directed growth or
development”. CHEC has also attempted to take into account major directional documents like the
OECD report on Innovation in South Africa, and current initiatives which promise considerable
synergies with City planning, such as the National Innovation Strategy, National Research Chairs,
National Centres of Competence, the promotion of a five-fold increase in doctoral graduations, and
the work of COFISA, the Finnish-South African cooperation on Innovation.
The key to global competitiveness is the so-called “knowledge economy”. Countries which have
neglected it to improve employment through the provision of cheap labour have soon recognised
that false oppositions are traps: meeting immediate needs for employment and developing capacity
for higher level work are mutual imperatives in a country like South Africa. CHEC’s concern is
primarily with the knowledge economy, but it has attempted to bear the full picture in mind.
The successful city is increasingly measured by its capacity to attract and retain talent. To a very
significant extent this depends on there being an integration of four factors in particular local
environments:
• attractive living conditions (safe, convenient, within easy reach of major amenities, with
adequate recreational space nearby, and well-served for e-activities)
• the proximity of knowledge institutions (universities, research councils, R&D laboratories)
• the productive engagement of business and industry in setting up laboratories and related
businesses in the area, and
• the active role of city and regional authorities in promoting and supporting incubation and
relevant economic development activities.
The expertise of COFISA (the Cooperation Framework on Innovation Systems between Finland and
South Africa) and the range of knowledge brought to South Africa through the world conference of
the International Association of Science Parks in Sandton in 2008 and through visitors sponsored by
Second Report: International Lessons and Examples Page 73 Revised
the National Business Initiative, Accelerate Cape Town and the Cape Town Partnership confirms that
planning for innovation and participation in the global knowledge economy cannot be separated
from planning of attractive and convenient integrated environments. The modern science park is
thus not an industrial area or a business park: it is an integrated environment in which excellent
technical facilities in workable proximity to universities go along with safe and comfortable living
conditions and good cultural and recreational facilities to attract and retain concentrations of talent.
The City and the Western Cape region are generally very attractive, and the universities in the area
are among the best in the country. However, we are not able to make the best use of these assets
because of low levels of spatial integration and inadequately synergised investment. Work is
currently under way nationally in exploring the potential for enhanced innovation activities of four
areas in and near the city:
1. The Stellenbosch Technopark site
2. The Bellville precinct
3. The Cape Biotech site in Observatory
4. The area close to CPUT’s Cape Town campus for a design centre
It is clear that progress in all four sites will require new levels of cooperation and partnership
between universities, business and various levels of government, with the City playing a prominent
role in three of the sites.
As the process of investigation and development proceeds, CHEC may make recommendations
about all the Cape Town sites as a respectful partner with City, business and other tiers of
government. At this point we wish to raise our concern about the medium to long-term future of the
Bellville precinct and request that the City gives attention to it in the light of current developments
and of its potential significance.
The Bellville precinct is in the centre of metropolitan Cape Town, as has been noted as significant by
City planners since the late 90s. For our part, we can point out that such sites have proved
outstandingly suitable for urban regeneration and the development of innovation communities and
science parks in Aarhus (Denmark), Barcelona (Spain), Newcastle (UK) and Turku (Finland), to name a
few places. In our opinion, the Bellville precinct is a site with critical potential for the economic and
social progress of the City of Cape Town and of the Western Cape Province. In Bellville, the city has a
concentration of leading academic, research and health services institutions which we think would
be extraordinary in almost any country.47
However, most of them have a marginal location around a
340 hectare Transnet freight yard which was superimposed on planned urban development. This
47 These include the Health Sciences campus and Business School of the University of Stellenbosch, the Science
and Engineering campus of the Cape Peninsula University of Technology, the Oral Health campus and the main
campus of the University of the Western Cape, and several campuses of Northlink College, along with the
Medical Research Council, Tygerberg Hospital (the largest teaching hospital on the continent) and six other
hospitals. Other university campuses are within a 25km radius east and west and 20kms to the south. As some
indices of the competitive standing of the institutions in the area, there are three WHO Collaborating Centres,
the most developed capacity in Bioinformatics with a National Research Chair in Bioinformatics and Human
Health, a Unesco Chair in Hydrogeology heading a team which advises the African Council of Ministers on
water affairs, a cluster of distinguished medical research groups, and national centres in the hydrogen
economy and fuel cells, nanotechnology, biosensing, biolabelling, and indigenous herbal medicine.
Second Report: International Lessons and Examples Page 74 Revised
radically undermines their potential. For the City of Cape Town and the Western Cape Province to
make best use of these major assets a way has to be found of securing a vision for the medium term
that would see the freight yard transformed into a modern urban centre hospitable to innovation. At
present there is a tendency to increased low-level industrialisation on the site. Settling the vision for
the area would counter that tendency and enable modest steps towards the new identity to be
taken with confidence on any land which Transnet could free. Such developments would not be
random initiatives, then, but steps towards the achievement of the comprehensive vision.
Underlying our request are the following considerations:
1. The potential for the economic development of the city and the province in a global
knowledge economy which requires a physical and regulatory environment conducive to
innovation and to cooperation on an unprecedented scale. No other site in South Africa is
more conducive to development of this kind or better equipped to benefit from national
innovation strategies. It is relatively undeveloped, the planned urban linkages which had the
railways imposed on them are still viable, the institutions are in exemplary proximity, and
there is keen business interest. There is also high-end capacity in ICT, Health-related
disciplines including Drug Discovery, Biotechnology, Nanotechnology, and Alternative
Energy.
2. The impact on the social and economic development of disadvantaged communities and on
efforts to counter the structured inefficiencies of apartheid socio-physical planning in
socially and economically sustainable ways. The development would break through the
apartheid-imposed industrial cordon sanitaire separating the amenities of the city from the
people in the townships, signalling a new beginning. More constructively, it would create a
post-apartheid space with high potential for modelling socially healthy patterns of
interaction. The development would also create new SMMEs with the opportunity for
upskilling people from the areas to the south.
3. The exceptional opportunities for high-impact synergies between a concentration of
eminent knowledge and service institutions in the area. To a remarkable degree, the site
meets the characteristics of the models presented by the OECD in its report on innovation in
South Africa. A critical factor for our development is scale: we have excellent researchers
and innovators but we still tend to go for relatively small research groups with disastrous
effects on sustainability and scale. This site offers a unique opportunity to enable institutions
in its vicinity to work together on “neutral” ground and thereby build extended innovation
capacity. This neutral ground strategy has been highly successful in other countries, with
Finland a major example. In Turku the ICT departments of the three universities there are
now housed in one building with Nokia and two other companies, and overall productivity
levels have soared.
4. The opportunities for economical and environmentally responsible urban development,
including:
• Transit-oriented development in a key metropolitan focus area, demonstrating the
principles of the “new mobility”. The area immediately south of the station offers
major opportunities for such development. It requires really good high-rise
accommodation (probably with businesses on the ground floor), safe paths to
transport points, good recreational areas, and other amenities like theatres and
Second Report: International Lessons and Examples Page 75 Revised
cinemas which people from elsewhere can reach using public transport. Such high-
density, low-traffic, city-centre living areas with easy access to recreational and
cultural facilities, serve both as a means of attracting and retaining talent for the
innovation economy, and as a model alternative to costly urban sprawl. An
important consideration is that they should have widespread broadband access
factored into the development, as the kind of people the development is intended
to attract require such access as a condition of their being able to work properly.
The example of Recife in Brazil illustrates this well.
• The establishment of innovation industries and a business incubator. These would
probably require dedicated space to start with. Different models of ownership apply
in different parts of the world. At Aarhus, the university foundation owns the land
and buildings. At Turku, the facilities are owned by the city and regional
governments. But the need for these areas to be planned in coherence with the
other urban aspects is common to the examples. The overall plan must be of the
kind which enables the region to attract and retain talent more effectively.
• The best use of major transport infrastructure: the site is accessible to a large station
and a major bus station, close to the airport , and is positioned between the major
transport axes. Attention would have to be paid to the station and bus station,
particularly as the development would be “new mobility” inspired.
• Providing for the qualitative development of the environment of the universities and
other major institutions in ways conducive to achieving the City’s goals as a major
centre in the knowledge economy. It should be noted that national planning would
have enrolment on the Bellville campuses of the universities grow from 30 000 to
50 000 over a 12 year period and would see a major growth in science and business
enrolment. The synergies achieved if this growth is accompanied by the influx of
significant numbers of knowledge workers in innovation enterprises form the
foundation for the kind of success CHEC and the City envision.
Against this background, the universities in the Cape Higher Education Consortium (CHEC) ask the
City of Cape Town to make decisions at a macro planning level which would secure the site from
fragmented industrial development and establish the vision of a revitalising, innovation-friendly
central area for Bellville as a planning imperative. The tonic effects on the existing CBD which hosts
the national headquarters of SANLAM and Vodacom, the regional offices of Eskom and several state
departments would soon be evident. And with the assurance that the macro-level decisions had
been taken, it would be possible to proceed with the envisioned development of the area in smaller
parts against a horizon of 10 – 15 years.
In conclusion, we undertake that our discussions with Transnet, with the City, with Province, and
with the national departments of Public Enterprises, Education, and Science and Technology will
continue, and that we will vigorously pursue outcomes of benefit to Cape Town and our province
and country.