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    FRAMEWORK FOR SCIENCE, TECHNOLOGY

    AND INNOVATION POLICY

    ABSTRACT

    In assessing the needs of industry in policy development, it is essential to look at the policystructure in its entirety. It is to be noted that policy considerations have evolved overtime from

    science policy to S&T policy to STI policy.

    STI policy is all inclusive and intended to drive research, development and commercialization

    (R,D&C) which is relevant in the context of the Innovation Economy.

    The Innovation Economy is dependent on the Total National Capacity (TNC) in STI which

    encompasses the government, the scientific community, industry and the community at large.

    The involvement of industry in policy development and implementation is therefore crucial.

    Without industrys buy-in, policy objectives cannot be realized.

    A number of frameworks, based on Malaysias experience, is presented as generic templates

    which can be the basis for policy responses in different national situations.

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    SCOPE OF POLICY OVER TIME

    Science Policy doing good science

    Science and Technology Policy close relationship between science and

    technology

    Science Technology and Innovation Policy wider scope, more integrated;

    inclusive of all stakeholders

    STI POILICY IN THE INNOVATION ECONOMY

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    THE INNOVATION ECONOMY

    The Essence of the Innovation Economy is growth through economic

    restructuring and diversification into production of manufactured goods and

    other modern goods and services with high value added.

    Innovation is the driver.

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    AREAS OF INNOVATION

    Science & Technology

    Governance policies and implementation

    Business practices

    Geo-politics

    Socio-economic issues Strategies & alliances

    TECHNOLOGICAL INNOVATION Vs SOFT INNOVATION

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    SOFT INNOVATION

    Changes in aesthetics more than changes in technology

    i. Changes in products in the creative industryii. Aesthetic innovation in goods and services primarily functional in nature

    Soft innovations significant if economically important

    Soft Innovation, NESTA, UK

    Research Report July 2009

    MASS INNOVATION GRASSROOTS INNOVATION

    NOW EVERYONE CAN INNOVATE !

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    INTER-RELATION BETWEEN SOFT

    INNOVATION AND TECHNOLOGICALINNOVATION

    TECHNOLOGY-BASED BUSINESS

    BUSINESS DRIVER TECHNOLOGY PROVIDER BUSINESS ENABLER

    Sales and Marketing Products Work Force Promotion,

    Advertisement

    Devices Business Processes

    After sales services Accessories Cost cutting andproductivity increases

    Customer loyalty Financialmanagement

    SOFT INNOVATION TECHNOLOGICAL

    INNOVATION

    SOFT INNOVATION

    Soft innovation often possible only because of

    Technological Innovation

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    PRIMARY POLICY CONSIDERATIONSFOR THE INNOVATION ECONOMY

    Total National Capacity in Science, Technology and Innovation

    Integrated Human Capital Development Status of STI in Industry Industrys appetite for STI

    Information Flow And STI Advisory System

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    TOTAL NATIONAL CAPACITY IN STI

    Economic growth under NEM to be driven by Innovation Economy

    Innovation Economy dependent on Total National Capacity (TNC) in STI :

    o A scientific community able to contribute to and draw from the global pool of scientific

    and technological knowledge.o A government committed to providing a comprehensive STI Infrastructure (soft and

    hard: institutions, funds, processes, etc)

    o A private sector capable of creating wealth through application of technology and

    innovation in all sectors of the economy.o A society imbibed with a culture of creativity, innovativeness and entrepreneurship.

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    IMPLICATION OF TOTAL NATIONAL

    CAPACITY (TNC) in STI

    Doing good Science is not good enough.

    Good Science must translate into innovative technologies at the marketplace

    TNC in STI therefore requires an STI Policy encompassing

    Capacity to develop (R&D) and to acquire technology (technology transfer)

    Capacity to apply and utilize technology and innovation

    Management of the interface between the two

    (in both Government and Industry)

    The above constitute the Core Elements of STI Policy for the InnovationEconomy.

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    CORE ELEMENTS OF STI POLICY

    Technology Generation

    and Acquisition

    Technology Utilization

    And Management

    (Interface)

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    STI POLICY FRAMEWORK

    Enhancement of science advisory and consultative system and processes.

    Enhancement of capacity to generate and acquire STI.

    Enhancement of capacity to evaluate, acquire, utilize and manage STI.

    Development of human capital.

    Creation of the right environment (Ecosystem) for the Innovation Economy.

    (all the above apply to both government and industry)

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    THE ECOSYSTEM OFINNOVATION ECONOMY

    K-Generation

    and Acquisition

    K-Utilization and

    Management

    Human Capital Development Capacity and capability building

    Entrepreneur development

    Smart Partnership Practices

    K-IntensiveGovernance

    (Public/Privatesectors)

    Culture of Creativity andInnovation

    Science Ethics Practices

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    THE INNOVATION ECOSYSTEM

    MUST BE SUPPORTED BY:

    Creativity Ecosystem

    Innovation Ecosystem

    Entrepreneurship Ecosystem

    Commercialization Ecosystem

    AND

    Smart Partnership Practices

    Science Ethics Practices

    Human Capital Development

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    SMART PARTNERSHIP

    Partnering based on respect, trust, transparency and tolerance.

    Long-term, with evolving common objectives; goes beyond strategic alliance. Cooperation to succeed vs. cooperation to compete.

    Outcome: prosper thy neighbor; win-win, equitable; balance between business and

    social benefits.

    Smart Partnership framework - applicable in the specific context of Total National

    STI capacity for the Innovation Economy.

    Smart Partnership - preferred framework for the conduct of business and Government

    nationally and internationally.

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    SCIENCE ETHICS PRACTICES

    Principles according to which scientific activity should be conducted and the mechanisms by

    which conformity to such principles is promoted, fostered and ensured

    COMEST, May 09

    UNESCO

    1974 Recommendations on Status of Scientific Research:

    Integration of science ethics in science policy

    1999 Declaration on Science and the Uses of Scientific Knowledge

    Ethics to be included in all Science teaching at universities

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    Is the holistic approach to the development of the full human potential.

    The objective is to create human capital i.e. productive assets in the

    form of human competencies or a portfolio of different skills and

    assets required by both industry and government to create a nation of

    high competitiveness in the knowledge society.

    HUMAN CAPITAL DEVELOPMENT

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    Human Capital development encompasses the practices and

    the environment to develop: intellectual capital, skills capital,

    social capital, entrepreneurial capital, psychological capital andspiritual capital within individuals.

    HUMAN CAPITAL DEVELOPMENT

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    Intellectual Capital Nurtured through formal and informal education logical, strategicthought processes.

    Skills Capital Codified and tacit knowledge; technical skills from training or acquired throughexperience.

    Social Capital Social skills, communication, cooperativeness, networking, smart partnershipprinciples enhances social capital.

    Entrepreneurial Capital Creativity, innovativeness and entrepreneurship.

    Psychological Capital Commitment, passion, dedication, confidence, belief in self (MalaysiaBoleh).

    Spiritual Capital- Ethical values and principles.- Right and wrong.- Smart partnership ethos.

    BY DESIGN AND/OR BY DIFFUSION

    HUMAN CAPITAL DEVELOPMENT

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    The product of human capital development is a

    knowledge-worker or knowledge manager parexcellence.

    HUMAN CAPITAL DEVELOPMENT

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    A knowledge worker is more than just ICT literate. A knowledge worker is

    characterized by:

    Ability to provide solutions, working alone or in a team

    Possession of a core competency which is enhanced by mastery of ICT

    Being creative, innovative and entrepreneurial

    High motivation; adaptable and open to learning, including self-learning andre-learning and prepared to master new skills

    Being a risk taker, able to work boundaryless and borderless

    Work ethics based on Smart Partnership values (respect, trust, tolerance and

    transparency) and science ethics (professional, social, environmental, moral

    and ethical obligations)

    HUMAN CAPITAL DEVELOPMENT

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    A knowledge-manager possesses or is capable of developing the

    following assets:

    General management human capital

    Strategic human capital

    Domain-specific human capital (industry or public sector specific

    expertise)

    Relationship human capital

    Company/institution-specific human capital

    HUMAN CAPITAL DEVELOPMENT

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    Home: The environment at home must be conducive to the learning process at anearly age, encourage inquisitiveness and creativity

    School: New approach to learning process, teacher-pupil relationship,new subjects that promote creativity , innovativeness andentrepreneurship, assessment system that encouragesthinking out of the box.

    Development of social skills, racial mix as an asset, communication skills:debate, negotiations, consultation; smart partnership ethos.

    University: As above plus:-

    Fostering a culture of life-long learning, unlearning and relearning;commitment to R&D.

    Workplace: Open, flexible system that encourages team work, rewardscreativity and entrepreneurship; wellness culture

    PROCESS OF HUMAN CAPITAL

    DEVELOPMENT

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    STI POLICY

    MALAYSIAS EXPERIENCE

    Rukun Negara 5 years Development Plans starting 5th Plan (1986 1990)

    National Science and Technology Policy I (1986) and Policy II (2003)

    Action Plan for Industrial Technology Development 1990

    Vision 2020 February 1991

    Industrial Master Plan I (1986 1995); II (1996 2005); III (2006 2020)

    K-Economy Master Plan 2002

    Sub-sectors IT, Biotechnology, Aerospace, etc

    Various grant and support schemes to promote R&D and Commercialization

    The New Economic Model (NEM) - 2010

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    ASSESSMENT OF OUTCOME - I

    Negative press reports and analysis

    Failure to migrate to the Innovation Economy?

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    STATUS OF STI IN INDUSTRY

    The Economist March 1st 2008

    The tigers that lost their roar

    --- after all this time the regions five maineconomics Indonesia, Malaysia,

    Philippines, Singapore and Thailand are

    still notable for the near absence of

    companies that could truly be called

    world-class.

    --- the regions business scene, . . .,

    remains dominated by old-fashioned,

    mediocre, sprawling conglomerates,

    run at the whims of aging patriarchalowners.

    if they need technology, they buy it from

    abroad . . . . . The region has no

    indigenous, large-scale companies

    producing world class products and

    services

    whereas the export led growth of South

    Korea and Taiwan comes mainly from

    indigenous firms making globally

    competitive goods with their own

    technology much of South East Asiashigh value exports are made by foreign

    companies.

    These companies dont have strategies,

    they do deals.

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    STATUS OF STI IN INDUSTRY

    Dr. Mahani Zainal Abidin ISIS

    New model needed to spur economy

    NST 2 April 2009

    . . . . The economic gap between

    Malaysia and countries like Taiwan,

    Hong Kong and Singapore . . . .is now

    widening instead. We are also losing

    out to them in terms of per-capita

    income growth, technological capability

    and human capital development.

    . . .Malaysia remains a low-wage, low-skilland resource-based economy.

    Malaysia is in danger of not meeting its owntarget of being a developed country by

    2020. There is an urgent need for us to

    address critical economic crisis,

    particularly human capital, technology

    and innovation and our approaches to it .

    . . . .

    We should continue to invest in technology

    driven innovation by supporting researchand development works. At the same

    time Malaysia should acquire

    technologies and improve them to meet

    market demand

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    STATUS OF STI IN INDUSTRY

    Anna Ting Positioning Malaysia

    for long term sustainable

    growth - The Edge Malaysia, 6th

    April 2009

    - Malaysia is once again an economy

    in transition. In the past 50 or more

    years, Malaysia has successfullytransformed from a low-income

    economy to a middle-income one

    where its growth base was moved

    from primary factors of production

    such as primary commodities andunskilled labor, to that of imported

    technology mainly through foreign

    direct investment.

    . . .toughest transitional phase for any

    economy moving to develop into a high

    income economy, which involves

    becoming technology generating

    instead of technology importing where

    innovation is the key.

    . . . .in fostering a high rate of innovation and

    skills improvement the government must

    focus on providing top quality educationwith emphasis in science and mathematics

    . . . . .

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    STATUS OF STI IN INDUSTRY

    Quah Boon Huat (MIER) :

    Deindustrialiting for the wrong reasons?

    Starbiz , 20 April 2009

    - - - - - according to data from the

    Economic Report published by the

    Finance Ministry, the manufacturing

    sectors share of GDP had increased

    from 26.9% in 1990 to 32.3% in 2000,

    but fell to 30.1% in 2007

    - - - - - the growth rate of its share (the

    manufacturing sector) of total

    employment has moderatedconsiderably. It only managed to

    increase its share from 2000 to 2007 by

    a mere 1.3 percentage points to 28.9%

    - - - - one could conclude - - - the

    manufacturing sector appears to be

    losing out as a crucial component of

    the economy.

    - - - - the results do suggest that the

    manufacturing sector appears to be

    losing its shine and deindustrialization

    seems to be in the cards in Malaysia -

    - - - (where deindustrialization isdefined) as - - - a steady decline in

    the - - - sectors share of

    employment.

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    Deindustrialization can be viewed as the norm in

    successful economic growth. As per capita

    income rises during the course of economic

    development the share of employment in

    manufacturing rises at the expense of agricultureuntil a relatively high level of development is

    achieved.

    Beyond a certain threshold of per capita

    income, however, the share of services in

    employment starts to rise at the expense of

    manufacturing - - - [due to] (i) higher productivity

    growth rates - - - and (ii) a systematic change in

    consumption patterns. This form ofdeindustrialization is considered positive

    because of its associated with rising real

    incomes and full employment not because of

    failure of the manufacturing sector.

    - - - negative deindustrialization can

    be caused by - - - like high labour

    costs and failure or inability of firms

    to respond to changing market

    conditions. It results in a slow-

    down in manufacturing output and

    productivity and prevents nations

    from achieving their full economic

    potential.

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    Malaysias manufacturing sector is being

    affected by - - - rising production costs

    arising from tightening of labour market

    and cheap exports (from China and

    Vietnam). The sector has failed to

    make the transition to higher value

    added activities.

    The problems - - - can be traced back to

    a lack of industrial deepening - - - - -

    What needs to be done now is not the

    creation of more organization, but

    effective implementation of an appraisal,

    reward and penalty system to improve

    coordination of activities among the

    relevant institutions to ensure industrial

    deepening.

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    ASSESSMENT OF OUTCOME - II

    Deindustrialization lack of industrial deepening?

    What happens to manufacturing ++?

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    INDUSTRIAL MASTERPLAN II

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    ASSESSMENT OF OUTCOME - III

    Policy Failure? Implementation Failure? Coordination Failure?

    What is the reality? partial success?

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    Tim Hartford Financial Time Magazine

    July 4/5 2009

    Why getting complicated increases the

    wealth of nations.

    one of the defining characteristics of the

    modern economy is that its awfully

    complicated.

    even a fairly humble product such as a

    shirt might incorporate cotton from West

    Africa, oil from Indonesia to make the

    polyester in the button (manufactured in

    China) and designs sketched out by anItalian using an American computer

    software.

    . . . . There are probably 10 billiondistinct products and services

    available in a modern economic

    environment such as London, Tokyo

    and New York.

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    one obvious measure of complexity is how

    many types of products a country exports

    in significant quantities . . . .

    Exports are a meaningful indicator

    because if you export a product it means

    someone else is willing to pay for it

    A further measure of complexity is

    whether a countrys export are

    uncommon (many countries export T-shirts, few aircraft parts.

    Malaysia and Pakistan seem, at first glance,

    equally complex couple, each exporting 104

    product types. But many Malaysian exports

    are also exported by mighty Japan, where

    Pakistans exports have very little in

    common with those of Japan. In generalMalaysia tends to export some of the

    products that very complex, diversified

    countries export suggesting that it has a

    more complex economy than Pakistan.

    . . . . The top six most complex economies:

    Japan, Germany, Sweden, UK, Finland and

    the USA. Malawi, Cameroon and Western

    Samoa bring up the rear.

    . . . It seems that economies that are morecomplex than their level of income would

    suggest, have a tendency to catch up with a

    spurt of fast growth.

    INFORMATION FLOW AND THE STI

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    INFORMATION FLOW AND THE STI

    ADVISORY SYSTEM In the context of Innovation Economy holistic approach to policy formulation is important; not separating

    STI Development policy from National Development policy or Industrial Development or any other sectoral

    policies.

    The concept of Policy for STI and STI for Policy or Development of STI and STI for Development becomes

    evermore important and information flow between sectoral systems must be facilitated.

    Information flow between all stakeholders especially between government, technology generators and

    private sectors to get buy-in.

    An integrated and inclusive STI Advisory System is crucial.

    Moving the STI agenda requires Champions in public and private sectors and champions require advice.

    Advisory mechanism must have legitimacy, authority, capacity and linkages to deliverobjective,

    neutral and timely advice.

    PROPOSAL FOR POLICY

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    PROPOSAL FOR POLICY

    RESPONSES

    1. Intensifying the capacity for knowledge generation and acquisition

    2. Increasing knowledge intensity in traditional economic sector

    3. Increasing productivity, innovative capacity and competitiveness in manufacturingand k-economic sectors

    4. Education and human capital development

    5. Intensifying knowledge content in governance

    6. Enhancement of Entrepreneur Development

    7. Innovative Financing mechanism and support system for commercialization oftechnology and innovation

    8. Creating a national culture of creativity and innovation

    9. Enhancing knowledge management

    10. Promoting science ethics and smart partnership ethos and practices11. Securing private Sector Buy-In

    12. Enhancing the STI Advisory System

    MEASURING ACHIEVEMENT

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    MEASURING ACHIEVEMENT

    PUBLIC AND PRIVATE SECTORTechnology Management Best Practice Framework

    The technology management best practice framework, developed and promoted by CPTM, may be used as a template for

    policy formulation and implementation strategies. This framework consists of the following:

    1. Political Commitment

    2. Policy Integration

    3. S&T Advisory System

    4. S&T Development Planning and Coordination

    5. S&T Infrastructure

    6. Funding & Management of R&D

    7. Mechanism for Commercialization of Research & Technology

    8. Integrated Human Resource Development

    9. Mechanism for S&T Enculturisation

    10. Smart Partnership and Science Ethics Principles and Practices

    MOVING THE STI AGENDA

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    MOVING THE STI AGENDA THE STI HUMAN RESOURCE PYRAMID

    CHAMPIONSCHAMPIONS

    POPULARISERSPOPULARISERS

    PLANNERSPLANNERS

    MANAGERSMANAGERS

    EDUCATORSEDUCATORS

    PRACTITIONERSPRACTITIONERS

    ADVISORSADVISORS

    SCIENCE IS TOO IMPORTANT TO BE LEFT TO SCIENTISTS AND TECHNOLOGISTS ALONE !

    -Entrepreneurs-Industry leaders

    Science & technologyprofessionals

    Researchers

    UNESCOS NEW INITIATIVE

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    UNESCOS NEW INITIATIVE

    FOR STI DEVELOPMENT

    ISTIC - International Science, Technology and Innovation Centre for

    South-South Corporation

    (launched 22nd May, 2008)- UNESCO MALAYSIAN GOVERNMENT (MOSTI)

    ISTIC PRIORITY ACTION

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    ISTIC PRIORITY ACTION

    PROGRAMME

    STI policy for development

    Capacity building

    Collaborative initiatives with existing STI Network

    WEHAB (Water, Energy, Health, Agriculture and Biodiversity)

    New Technologies

    STI POLICY FOR DEVELOPMENT

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    STI POLICY FOR DEVELOPMENT

    STI Policy Consultative Unit (SPCU)

    To assist UNESCO member countries in developing capacity to formulate and

    implement a sound STI policy in support of national development objectives.

    SPCUs approach to STI Policy Development is based on Total National Capacity

    in STI.

    Template for policy formulation and implementation is CPTMs Technology

    Management Best Practice framework.

    PHASES OF ENGAGEMENT

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    PHASES OF ENGAGEMENT

    1. Sensitization, commitment and preliminary assessment

    2. Review priorities of needs in government and industry

    3. Status review of priority areas

    4. Development of Action Plan

    ISTIC Team = National Core Team

    National Core Team :

    (responsible for final formulation of STI Policy and implementation programs)

    Note: Request for SPCUs services to be made by governments directly to UNESCO

    SPCU TEAM

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    SPCU TEAM

    Coordinator : Tan Sri Datuk Dr Omar Abdul Rahman

    Collaborating Organizations:

    IEMP@MUST, Malaysia

    PRIMA Consulting, Malaysia Commonwealth Partnership for Technology Management CPTM, London

    ISTIC email : [email protected]

    website : http://www.istic-unesco.org

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    THANK YOUTHANK YOUTHANK YOUTHANK YOU

    Omar Abdul Rahman

    [email protected]