The National Development Of The Philippines Commerce Essay


Necessity is the mother of invention. In the Philippines, there are many local inventions created by Filipinos that are locally and even globally used for its functionality and its usefulness. In fact, there are numerous inventions patented in the Philippines. According to the Filipino Inventor's Society, there are about 3000 patent holders and intellectual property exponents nationwide. Despite this number, there is not much recognition coming from the Filipinos themselves as some of the inventions that are considered useful are not really used commercially in the Philippines.

In lieu of this, the Philippine Government has provided laws on promoting and protecting local inventions. Among these laws are the Investors and Invention Incentives Act (RA 7459), Philippine Inventors Incentives Act (RA 3850) and the Intellectual Property Code of the Philippines. These laws are created in the belief that there are linkages among the development of science and technology, particularly the technological advancement through inventions, with national economic development.

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This paper aims to prove if there is a significant implication of local inventions to national development in the context of the Philippines. As well as to analyze the current situation of the local inventions in the Philippines and the concepts to which it revolves such as the laws governing patents and intellectual property.

Today local inventors and inventions alike are slowly decreasing due to several problems that they encounter while in the process of inventing. These problems to name a few are; lack of exposure from the media, lack of proper implementation of laws and policies regarding inventors and inventions, the need for more awareness and information regarding patents and the commercialization process. The numerous problems that an inventor encounters are what hinder him from potentially affecting national development and highlighting the innate talents of a Filipino from both the local and foreign market.

According to Carmen Peralta, Director of the IPO Information, Documentation and Technology Transfer Bureau, "if only given the needed exposure, inventors would be inspired to work harder that would eventually translate to more patents." The short number of patent applications and the much needed lack of support from the media in terms of recognition and endorsement is a reason for immediate action on both the government and the media. The lack of public exposure is what keeps local inventors away from possibly inducing technological change in national development.


This study will answer the main problem: How can local inventions induce technological change for National Development? In answering the main problem several sub-problems or sub-questions needs to be accounted first.

a) What are the current issues regarding local inventions?

b) How does the government support local inventions?

c) What model is necessary to analyze local inventions, technological change, and national development?


Local Invention:

Ho: Government support does not contribute to the development of local invention

H1: Government support contributes to the development of local invention

National Development:

Ho: Local Inventions has no significant implication to National Development

H1: Local Inventions has a significant implication to National Development.


In this paper we used one of the first frameworks in comprehending science and technology which is the Linear model of innovation (Godin, 2006) in compliance with Vernon W. Ruttan's study entitled; Usher and Shumpeter on Invention, Innovation and Technological change*1959.

In line with the study of Ruttan, he assumed that most of the social scientist follows a certain sequence in which invention, innovation and technological change are ordered in a logical sequence (Ruttan, 1959).

Invention Innovation Technological Change

After generalizing the proper sequence assumed by most social scientist in the past, he then solved the terminological problem between invention, innovation and technological change by synthesizing two prominent studies in linear model of innovation by Usher and Shumpeter. V. W Ruttan insinuated a fusion of A. P. Usher's steps in the invention process (Usher 1954) and Schumpeter's concept of innovation (Godin, 2006).

Shumpeter distinguishes invention from innovation.

"Innovation is possible without anything we should identify as invention, and invention does not necessarily induce innovation, but produces of itself ... no economically relevant effect at all.6"

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According to Ruttan, Schumpeter's definition of innovation is in terms of a change in the form of the production function (Ruttan, 1959).

"We will now define innovation more rigorously by means of the production function.... This function describes the way in which quantity of products varies if quantity of factors vary. If, instead of quantities of factors we vary the form of the function, we have an innovation.7"

Ruttan eliminated the distinction between invention and innovation as he discusses Usher's steps in invention process but incorporated the idea of defining innovation by means of production function. This is where the synthesis came about (Ruttan, 1959).

The definition of invention by Usher is in terms of "new things" that require an "act of insight" going beyond the normal exercise of technical or professional skill (Ruttan, 1959).

"Inventive acts of insight are unlearned activities that result in new organizations of prior knowledge and experience.6 Such acts of insight frequently emerge in the course of performing acts of skill, though characteristically the act of insight is induced by the conscious perception of an unsatisfactory gap in knowledge or mode of action.7"

In the Chapter IV of the revised edition of A History of Mechanical Innovations, Usher was said to discourse on the occurrence of one's inventions in contrast with the performance of acts of skill by the use of cumulative synthesis (Ruttan, 1959). With this discussion, Ruttan concluded that it is more applicable to give the definition of invention as a subsection of innovation and shifting Usher's description of invention to innovation-"Indeed, it would be more in line with both popular usage and the terminology of other disciplines to use the term innovation to designate any "new thing" in the area of science, technology, or art" (Ruttan, 1959).

The definition of technological change used by students of productivity and technological change is said to have a close similarity with the definition of innovation provided by Shumpeter. Compare, for example, a recent definition by Solow with the above quotation from Schumpeter. (Ruttan, 1959).

If Q represents output and K and L represent capital and labor in "physical" units, then the aggregate production function can be written as:

Q = F(K, L; t)

the variable t . . . appears in F to allow for technical change. I am using the phrase "technical change" as a shorthand expression for any kind of a shift in the production function."9

According to Ruttan, the only problem with this definition of technological change is that it does not emphasize the specific process of technological change. Thus a need for a proper analytical definition is a must.

After providing a clear distinction between invention, innovation and technological change, Ruttan gave three prominent suggestions in this study namely; first one must not attempt to provide an analytical definition of invention and depict it as a subset of technical innovation which is patentable. Second, the extension of the definition of innovation is needed so much as to cover the entire range of processes by which "new things" emerge in science, technology, and art. Third, The use of technological change in the functional sense-" to designate changes in the coefficients of a function relating inputs to outputs resulting from the practical application of innovations in technology and in economic organization" (Ruttan, 1959).

In compliance to the study of Ruttan, the linear model of innovation will be use as suggested in Ruttan's study. "The linear model of innovation starts with basic research, then adds applied research and development, and ends with production and diffusion" (Ruttan, 1959):

Basic research  Applied research & Development  (Production and) Diffusion

In function: Innovation = Basic research+Applied research & development+Diffusion

It has been noted that the source of this linear model has remain indefinable because it has never been documented. Despite its widespread use, there are still many criticisms that surround the theory and even proclaiming it as a dead model. The long survival of the model despite regular criticisms is because of statistics (Godin, 2006).

Overall, we will be using the definitions and suggestions provided by Ruttan. We will not provide an analysis on invention. We will use the linear model of innovation for the analysis of innovation as suggested by Ruttan-extend the concept of innovation to cover the entire range of process by which "new things" emerge. We will use the provided definition of the technological change, by Solow, in Ruttan's study in order to analyze invention to national economy.

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The linear model of innovation in compliance to V.W. Ruttan study of 1958 is a proper framework for this paper. This paper analytically analyzed innovation and technical change of the Philippine local invention as suggested by Ruttan. Also, the simpleness of the linear model can be a proper starting point in analyzing insufficient data availability such as the condition of the Philippine local invention.


In this paper we attempt to analyze innovation, as defined in Ruttan's 1959 study, and technological change of Philippine local invention in the year 1900-2010. In analyzing innovation we will use the linear model of innovation particularly the one that was defined by Ruttan in his 1959 study.

Linear model of innovation

X = f(B,A,D)

X: Innovation

B: Basic research

A: Applied research

D: Diffusion

Empirical framework

X= f(D,E,F,G)

X: #of local invention

D: # of scientist and engineer

E: Annual R&D expenditures/ government allocated funds

F: # of clients/beneficiaries

G: # of commercialized local invention

In analyzing technological change we will use Solow's function for technological change.

Solow's Technological change function

Q = F(K, L; t)

Q: Aggregate output

K: Capital

L: Labor

t: Technical change

Empirical Framework

Q=F(K,L,I; t)


K: Invesments

L: Labor force

I: Local invention

t: Technical Change


Invention and innovation have proven to be crucial components for the development of modern societies (Marton-Lefèvre, 2003). This study is important therefore in order to analyze the current status of the local inventions in the Philippines and its linkage to national development. Since it has always been based on the presence of necessity that inventions are created, there is always a need and a demand for inventions especially for the less developed countries that are in the process of industrialization. However, this demand for local invention is not quite evident in the Philippine market. This study therefore aims to analyze the current problems that local inventions face and analyze the effectiveness of the innovation system that we have in the Philippines. According to Johnson et al, the history and development of the innovation system concept indicates that it can be useful for analyzing less developed economies (Johnson, Edquist, & Lundvall, 2003). This paper therefore, is significant in order for us to become aware of the current situation of the local inventions, its history and development in the Philippines in order to create solutions to its problems. This study is important also for us to know the impact of local inventions to our economy and be able to provide basis on the applicability of the concept that inventions, being the source of technological change, can lead to national development.


The study is limited to the local inventions that were given residential patent grants. This is to make sure that the local invention passed the criteria of IPPHIL and WIPO. This means that the local invention complies with the standard definition of invention by these two patent offices. The scope of the study in terms of commercialization process only includes local inventions that were licensed, venture and assigned. These three are the basic ways to commercialize an invention. The analysis of current issues in local inventions will be limited to the data provided by the annual report of TAPI-Technology application and promoting institute, the official government institute that helps local invention to be commercialized. The timeframe of the study is from 2000-2010. This is due to the lack of availability of some data's regarding local inventions. The area of the study is in the Philippine setting. Local inventions created by a Filipino with patent grant.




"Local inventions comprised only 1.2% of over 8,000 patents granted by the IPO (Intellectual Property Office) of the Philippines over the last six years, indicating the lack of awareness on the value of IP rights" (Flores, 2007) Currently there is a lack of patent applications as stated by the IPO by Filipino inventors who wish to patent their inventions, because of lack of awareness on the value of such patent rights, inventors tend to not apply at all. The lack of knowledge of Filipino inventors on such patent rights and exclusive incentives are one of the reasons of the small percentage of patent applications. "The number one reason is the level of awareness on the availability of support services being provided by the IPO" (Gefty, 2011)

In order to solve the current problems of the Philippine local inventors, there have been laws existing to support and encourage the local inventions.

One of which is the Republic Act 7459, or the Investors and Invention Incentives Act of the Philippines whose aim is to give priority to invention and its utilization on the country's productive systems and national life; and to this end provide incentives to investors and protect their exclusive right to their invention, particularly when the invention is beneficial to the people and contributes to national development and progress. Some of its provisions are to give cash rewards amounting up to Php100,000.00 to the chosen outstanding inventors They also give tax incentives and exemptions as well as invention development assistance funds through the Technology Application and Promotion Institute in the amount of at least twelve percent (12%) of the annual operations fund of the Institute from donations, bequests, and other sources, public, private or domestic or foreign, for assisting potential or actual inventors in the initial experiments and prototype development and other inventor-development related activities of invention or innovation.

Included in Article 5 of RA 7459 is the Invention Guarantee Fund created by RA no. 3850. A continuing annual appropriation in the amount of not less than Ten Million Pesos (P10, 000,000.00) shall also be provided for this purpose in the annual budget of the Department of Science and Technology. The Fund shall also be used for special financing programs for Filipino inventions pursuant under this Act. This also includes Financial and Loan Assistance from Government Banks of not more than Two-hundred Thousand Pesos (P200, 000.00). These are Loan assistance for the commercial production of an invention, either locally or for export and duly certified by the Filipino Inventors Society and the Screening Committee created under Section 4, shall be extended by government banks: Provided, That said invention meets the criteria that would enhance the economy of the country such as profitability and viability, dollar-earning capacity, and generation of employment opportunities for Filipinos: Provided, further, That said loan shall be guaranteed by the IGF.


It has been noted that we know in our hearts what an invention is and the idea of "invention" is said to have assumed a status like that of "consciousness" or "mind," something we can express of but not quite articulate (Arthur, 2005). WIPO provided a definition of invention such as; a new product or process that solves a technical problem. Invention is an example of an intellectual property. Under the intellectual property, there are two categories namely; industrial property and copyright. Invention is categorized under industrial property. An invention must be patented in order to protect ones intellectual property rights. An invention must, in general, fulfil the following conditions to be protected by a patent. Before it can be patented, one invention must abide by the requirements of WIPO such as; "It must be of practical use; it must show an element of "novelty", meaning some new characteristic that is not part of the body of existing knowledge in its particular technical field and must show an "inventive step" that could not be deduced by a person with average knowledge of the technical field" (WIPO, 2000).

It has been emphasize that the single most important element of long term growth is the innovative activity (Rosenberg, 2004). This Innovative activity can be in terms of organization or production. Focusing on production, most of us will think about technological progress created by inventions. A handful of readings will indicate how important inventions are to our economy; in most of the developed country have economic indicators relating to technological progress. So much have been said about how important inventions are but only some will tell about how it came about.

In the study conducted by Ruttan, he cited a study of Usher; recognizing and agreeing with the statements. In Usher's Chapter IV of the revised edition of A History of Mechanical Innovations, he identifies three general approaches on how invention came about; the transcendentalist, mechanistic process and the cumulative synthesis (Ruttan, 1959). According to Usher the transcendentalists ascribe the occurrence of invention to the occasional inspiration of a genius who from time to time realizes a direct knowledge of indispensable truth through the exercise of intuition. While the Mechanistic process represents a new combination of individual elements that accumulated over time. This process came about due to necessity and that the inventor is just an instrument of the processes. Among the three approaches on how invention came about, Usher believed and agreed with the cumulative synthesis-major inventions materialize through cumulative synthesis of simple inventions, each of which entails an individual "act of insight." In case of individual invention, four steps were outlined: perception of the problem, setting the stage (the gathering of elements and data needed for the construction of the possible solution), the act of insight (the establishment of the solution to the problem) and critical revision (can be comprehended and working) (Ruttan, 1959). According to Usher, these three approaches are the possible logic behind how inventions are made, but at the same time criticizing the first two approaches and agreeing with the cumulative synthesis.

The other way of looking on how invention came about is through a sociological and economical perspective. One author noted that novel technologies are influenced by social needs; they arise from experiences outside the standard domain; they often originated in cultures that reinforce risk; they retort to economic incentives (such as demand or factor price changes); they merge with the accumulation of scientific knowledge; they start better with the interchange of information which is often mediated by networks of colleagues (Arthur, 2005). Overall, the process of invention is compound, lengthy, determined, knowledge generating, boundary-transgressing, and notable for a number of other features (THE LEMELSON-MIT PROGRAM, 2004).

Besides looking in the invention process per se, invention will not be around if not because of its creator, the inventor. There are a number of abilities and disposition that can be attributed to the production of invention such as; "resourcefulness, resilience, a commitment to practical action, nonconformity, passion for the work, unquenchable optimism and many more. Skills and ability examples: mental flexibility, alertness to practical problems and opportunities, ability to match one's talents with the problem, using a tool kit of effective ways to conceptualize and break down the problems, and self-knowledge helpful in managing one's endeavours" and etc (THE LEMELSON-MIT PROGRAM, 2004).

After knowing the process of invention and sample skills of inventors, we must recognize the importance of R&D in the invention process. As of today most of invention does not come from an individual but by groups such as research institute financed by the government or private firms. These institutes are normally called research and development (R&D) institutes. According to OECD definition, Research and development is a term used in covering three activities: basic research, applied research, and experimental development. It has been said that the common role of R&D is to encourage innovation and technology by improving the ability of firms to learn about advances in the leading edge ('absorptive capacity') (Griffith, 2001).


It is a given fact that the main goal of invention is to solve a problem by technical process with this the beneficiaries of the invention will be satisfied. But how about the inventor, aside from the sense of achievement and acknowledgement what can he benefit from his invention? Here lies the emphasis on the commercialization process of invention.

There are different ways to commercialize ones invention; either through licensing, self-venture or assignment. It has been noted that In order to reach the market, you have to find someone who can sell your invention or sell it yourself (National Renewable Energy Laboratory, 1999).

According to WIPO, Licensing occurs when a licensor grants exploitation rights over a patent to a licensee. A license is also a legal contract, and so it sets the terms and condition of the exchange of rights including other important details in using or producing one's invention (Mendes, 2000). Many inventors undertake licensing because of the huge amount of money that they can acquire and the level of responsibility is lower than using or selling your own invention (National Renewable Energy Laboratory, 1999). There are considerable pros and cons regarding the licensing process. Here's the summary: the pros; licensing multiplies the resources to develop your invention, you may make some money and you may make it soon, and licensing frees you to do something else. The cons; you lose control of the technology; your own involvement is reduced, finding the right licensee is tough and protecting your interests is crucial (National Renewable Energy Laboratory, 1999).

It has been noted by the National Renewable Energy Laboratory in United States that venturing or commercializing your technology by yourself is probably the hardest path to take especially if one does not have a background about business and marketing. It requires a lot of business skills and connections in order to successfully commercialized ones invention. There are also pros and cons with the use of this process. The pros; running a company can be exciting, in the long run, you may make a lot more money and it is your company and you control it. The cons; it's risky, resources remain limited, you'll be working and working and you probably won't make much money for quite a while (National Renewable Energy Laboratory, 1999).

In an assignment involves there is a trade and transmission of ownership of the patent by the assignor to the assignee (Mendes, 2000). It is probably the easiest way to commercialize an invention but in return the ownership of the patent does not belong to you and it is irrevocable. If you want a lump sum of money in an instant from your invention, this is probably the appropriate commercial process for you to use.

Before an invention undergoes the process of commercialization, there are general prerequisites that are needed to be accomplished. First, it must be working, specifically an engineering prototype. Second, you should have a market analysis-you ask the basic questions in economics such as who, how, when, where and how much to produce. In addition, you need to know different market channels where your invention could reach. Last, a written plan-same as writing a business plan (National Renewable Energy Laboratory, 1999).

There are two things that should be prioritized in order to lessen ones problem in the process of commercialization. An inventor must acknowledge the cost and sources of capital. Cost can be in the forms of money, time and personal life, while sources of capital can in forms of debt capital, government funds and equity capital (National Renewable Energy Laboratory, 1999).

Overall, it seems that the commercialization of one's invention is one of the goals of an inventor. It is one of the preferred end points of such activity. A report emphasized the importance of commercialization of an invention and proclaimed it as a reward to the inventor. It also included the importance of relationship with different professions in order to make one's invention into the market-"What good is an invention if it never makes it to market, or for that matter, I it never rewards its creator? Invention does not end with coming up with a new device or new process. It takes an equally adroit tenacity to form the relationships that will make the invention payoff" (McPherson, 1995). "Certain relationship must be established by the inventor with different business development professional in order to try making its invention into the market; maybe a patent attorney, market researcher, business development pro or perhaps an invention-marketing group" (McPherson, 1995).

IV. Government Support in Local Invention

There are many government agencies as well as non-government organizations that support local inventions.

Under the supervision of the Department of Science and Technology, is the establishment of the Technology Application Promotion Institute or TAPI. Its primary responsibility is to promote the commercialization of technologies and market the services of other operating units of the department (TAPI, 2008). Among others, TAPI also administers the Invention Development Assistance Fund for the initial experiments and prototype development and other invention-development related activities. Through this fund, TAPI has managed to conduct various programs that raise the level of awareness of various clients in the areas of technology application and utilization.

Among these programs is the Academe/Industry Prototype Development Assistance Program which provides financial support for the fabrication and testing of commercial prototypes, the DOST Exposition and Fairs Program that promotes and exhibits technology materials, ideas and information, the Technology-Based Enterprise Development Assistance Program which gives financial assistance to technology-based micro, small and medium scale enterprises, the Investor's Forum Program which brings together technology operators and investors to create actual business ventures, and many other programs that promotes and supports Philippine local inventions (TAPI, 2008). All these programs lie under the Technology Information and Promotion Division.

Among various programs of the TAPI caters to agricultural enterprises, manufacturing firms, students and non-government organizations through its Investment and Business Operations Division. TAPI also extends its assistance to agricultural-based enterprises through the Consultancy for Agricultural Productivity Enhancement (CAPE). It also assists small and medium scale enterprises in manufacturing to attain higher productivity through the Manufacturing Productivity Extension (MPEX) Program and the Venture Financing Program. TAPI also caters to students, young professional in developing their entrepreneurial competencies through the Small Enterprise Technology Upgrading Program - DOST-Academe Technology-Based Enterprise Development (SETUP-DATBED) Program. DOST also supports technology transfer through the Science and Technology volunteer Pool Program (STEVPP). This program basically provides experts and scientists to its interested clients in the various regions and municipalities in the Philippines in order to provide them technical assistance on technology commercialization (TAPI, 2008)

Lastly is the Invention Development Division (IDD) who is mainly responsible for providing financial assistance to Filipino inventors by upholding the intellectual property system as well as the business development of inventions and technologies (TAPI, 2008). They basically provide funding assistance for the local inventors in their activities such as securing intellectual property protection, industrial applications in private enterprises, manufacturing and testing of their inventions, developing their invention as an enterprise commodity and even travel assistance. They are also given tax and duty exemptions through an endorsement to the Bureau of Internal Revenue and the Department of Finance.

Inventors are also encouraged to showcase their inventions through the National Invention Contest and Exhibits (NICE) wherein they can have cash incentives or prizes amounting to P150,000.00 as well as WIPO Gold Medals and certificates. This contest is held annually and is open for all local inventors in the academe (high school and college level) as well as those in the private sectors.

Among the other agencies concerned in the promotion of local invention and the protection of intellectual property rights are the Filipino Inventors Society and the Intellectual Property Rights Office of the Philippines.

V. Cultivating Technological Innovation for Development

"Development or innovation in society of technologies, such as information and communication technologies should be self-cultivated rather than imported." (Corea, 2000) Based from the research paper there is a need for developing countries to improve or focus on achieving a technological adoption particularly on Information Communication Technologies to reap its benefits. There have been multiple research disciplines to support such study particularly; behavioral notion on development, concepts of change, theoretical formulations. The paper applies these ideas for understanding the macro-phenomena of national development in terms of technological innovation

Technological change as defined in the paper is "any incremental or radical changes in the application of problem-solving knowledge to the production process, resulting in increased efficiency, either in the form of a product or service produced with lower costs or in the form of a qualitative improvement in a product or service." (Mokyr, 1990; Chiaromonte & Dosi, 1993) Technological change is considered as a learning process wherein (Thomson, 1993a); involving discovery, experimentation, development, imitation and adoption (Dosi, 1988). It has been described in the paper that technological change has much potential for increasing economic output and starting endless chain reactions in the society, it has been said that technological change has unexplored potentials to instigate a cycle for change in the economy.

Innovation provided is found under the knowledge of (Corea, 2000); willingness to challenge problems perceived in the environment, using ingenious means and whatever resources available, for the sake of improvement and anticipated rewards. In general it is the solution and further improvement of a current problem observed in the society and is a means to alleviate that problem. Technological change is foreseen as the rationale that industrialized countries are able to harness self-perpetuating systems of innovation through the use of its own system of innovation achieved through years of research and development.

VI. Economic Growth and Technological Change; an Evolutionary Interpretation

The objective of the research paper is to apply the evolutionary economic theory to the question "what can explain recent trends in economic growth, with emphasis on the role of technological change?" Another question that follows is "what is evolutionary economic theory?" (Verspagen, 2000) In line with the research paper, the study referred to numerous model theories to explain and answer the question but ended up with no definite answer, so instead what the research did is that it tackled numerous literature related to evolutionary economic theory and discussed it.

To grasp evolutionary economics two concepts are vital in the model, first is that economic units; firms, consumers, countries or even technologies differ from one another. Second concept is that economic selection as a counterpart of natural selection. Firms that have a better strategy are more likely to grow more compared to firms that have worse strategies which are more likely to loose market share. What is a good or bad strategy is a matter of theory.

To set an appropriate model for evolutionary economics the research has gone through numerous models to explain it, but the search wasn't a success because a singular model limiting itself on just pure economic ideologies is too narrow to grasp evolutionary economics. The model needed to capture the extent of the social system, (technology, economy, firms, consumers, etc) and show mutually strong relation with one another. Thus the position showed by the research is that the world economy is under a constant process of transformation, just as how technologies and institutions change over time. Like how a driving force in one era can have a lesser drive on another era.

VII. Invention and Innovation for Sustainable Development

Sustainable development is a concept that has been discussed for an extensive period of time and a long term challenge and struggle to achieve. As defined in the paper it is the practice of improving human life while also protecting the environment. The foundation of the paper is that creative thinking has always been integral for improving well-being; new inventions and innovations in agriculture, mass production, transportation and communication. In reality economic development and innovations are working hand in hand for a sustainable development.

Merton Flemmings, director of the Lemelson-MIT Program defines invention as a focused application of the human mind to the world that yields an original creation with practical use. On the other hand Flemmings defines innovation as the practice of bringing inventions into widespread usage, through creative thinking, investment, and marketing. In other words an invention is an original creation for a practical use to ease a problem, while innovation is the usage and application of the said invention. Innovation and Invention begins at the fundamental stage of leaning; which is education. This is where knowledge is learned and applied for further development of ones skills. Allow students to develop their own ideas and express themselves; raise the bar for inventors by starting with students.

The findings of the study are; (1) that invention and innovation have proven to be a crucial part of development for modern societies, though not everyone is able to receive said development, (2) sustainable development is the practice of protecting the environment while improving living standards for all and invention and innovation is the key to its success, (3) Rich countries are not doing enough to stimulate and harness invention and creative thinking, while poor countries tend to suppress innovation and creativity completely because of lack of resources and other factors, (4) Innovation to help achieve the goals of sustainable development can start in many ways; copy-catting, piggy-backing, and leap-frogging.

Incentives, cooperation with the government, awareness on media and society, government provisions and policies, networking, and proper budget allotment should be one of the key factors that would evidently help innovation and invention alike to grow and help the economy to a sustainable development

VIII. Economic Development and the National System of Innovation Approach

The study discusses the concept of "innovation system", "competence building", and "interactive learning" and applies it to economic development through the national institutions on education and training which composes the national system. It argues that "The history and development of the innovation system concept indicates that it can be useful for analyzing less developed economies" (Johnson, Edquist, & Lundvall, 2003). He defined innovation in a 'broader sense' whereas, "Innovation is seen as a continuous cumulative process involving not only radical and incremental innovation but also the diffusion, absorption and use of innovation" (Johnson, Edquist, & Lundvall, 2003). Furthermore, the study presented the delimitation of the definition of 'innovation system' in terms of spatial/geographical and sectoral limitations. Whereas for the developed countries such as US, NSI approach (National System of Innovation) is focused on science and technology systems such as R&D efforts in firms, S&T organizations (universities and public policy) wherein there is a dynamic interaction among universities, government and business. While for developing countries, NSI approach focuses on incremental innovation wherein the 'absorptive capacity' and economic development as a reflection of the skills and motivation of employees (Johnson, Edquist, & Lundvall, 2003). Though there are differences in the focus of the NSI approach, there are also common characteristics or assumptions presented in the paper. These are the assumptions that 1) NSI differ in terms of specialization in production, trade and knowledge, and 2) it focuses on interactions and relationships. Moreover, the study further explained the NSI approach whereas: "It places the focus on innovation and learning processes. This reflects the understanding that innovation is a matter of producing new knowledge or combining existing (and sometimes new) elements of knowledge in new ways as well as diffusing and utilizing it." (Johnson, Edquist, & Lundvall, 2003, p. 6) Furthermore, the approach is used by policy makers in analyzing different economies in terms of innovation processes in supporting technological advancement. The study presented of the developmental thinking tendencies of the 'national system of innovation approach' in a way that it 1) focuses on capabilities rather than resource endowments as main instruments in development, 2) focuses on knowledge as a driver of development, 3) institutions a 'root causes' of development. In the application of the NSI in the 'South', it concluded that 'institutions are crucial for economic development', 'the concept of innovation systems The concept of innovation systems may be [used as] a tool for understanding the relations between different kinds of capabilities and between the constitutive and instrumental aspects of freedoms in developing countries', 'Borrowing' and adapting technologies that the technological lead countries control today is an important key to development' (Johnson, Edquist, & Lundvall, 2003).

IX. The Philippine National Innovation System: Structure and Characteristics

'This paper describes the structure and characteristics of the Philippine national innovation system, and compares it with the American, Japanese, and German national systems of innovation. It concludes that the Philippine national innovation system must gear up to the requirements of a catch-up system to fit its institutions to its economic structure. This requires all the elements of the system to address the technology capability, adaptation, assimilation, and modification needs of a catch-up economy' (Patalinghug, 2003). The study used the 'Freeman Framework' in analyzing the national system of innovation of the Philippines. The study concludes that the Philippines must adopt a 'catching-up innovation system'. This system requires institutions and infrastructures supported by the government that has the "capability to monitor, choose, adopt, disseminate, and modify existing stock of knowledge" (Patalinghug, 2003). Also, it requires the participation of private firms that are willing to incorporate new technologies in their production processes. However, the study found out that there are problems or lapses in the relationship of the government and private firms wherein, there is an assumption on the side of the private firms that the government shoulders all costs on building infrastructures for the development of R&D, this assumption leads them to produce whatever commodity even if it doesn't really have a quality demand. This can further lead to the losses in investments of the government. Moreover, the study found out that the "university-industry collaboration is practically non-existent in the Philippine innovation system" (Patalinghug, 2003) when in fact, it worked for the catching-up of the American, Japanese and German innovation systems. The Philippines must also provide quality educational and technology training system in producing large numbers of quality scientists, engineers, managers, technicians and skilled workers that will aid the diffusion, absorption and utilization of the technologies required for the catching-up stage of the country. Furthermore, the study posts the advantage of government investment on R&D in support of small and medium-scale enterprises more than the 'technology extension institutions' involved with existing private firms. "Finally, government can address the ineffectual R&D incentive scheme by implementing a catch-up innovation system that addresses the technological capability-building needs of local firms and industries" (Patalinghug, 2003).

X. Technological Innovations in Japan and S&T Experiences in the Philippines: Drawing Policy Lessons for the Philippines

When it comes to technological advancement one cannot exclude Japan as one of the most technologically advance country in the whole world. Their economic growth can be largely attributed to the technological change that they have experienced before and after the World War II. According to a study by Caesar B. Cororaton in 2001, Japan experienced technological development even before the war. There were several industrial development programs that were established before the war. After the war, the plant and equipment of heavy and chemical industries survived. The survival of several technological infrastructures made the rehabilitation of Japan faster than other countries that were affected by the war. Several moves were made by the government and private institution to further increased the benefits that Japan gathered from the use of technology. Such moves were; government subsidies to industries and corporations that are geared towards industrial development, economic laws that started the industrialization in Japan, economic institutions were established to further develop science and technology in the national level, industry sponsored research institutions were established, subcontracting system in the field of machinery, aircraft, and automobile construction, establishment of financial institutions to help industries and corporations and improvement in the welfare of the labor force (Cororaton, 2001). These were the steps that was undertaken by Japan to become of the leading technologically advance country in the world as of today. It has been mentioned in the study that there were several technological development strategy used by Japan to support the whole industrialization process. Such strategies were; importation of foreign technologies, increased in the well-educated and well-trained technical and scientific manpower, sufficient absorptive capabilities and improvement introduced to technologies, placing the private sector in forefront of R&D activities, lining the development with the industrial policy and giving motivation through government incentives and subsidies (Cororaton, 2001). These strategies really boost the development in Japan. Unfortunately, here in the Philippines the science and technology sector has not reached the level of prominence just like what happened in Japan. The economic growth of the Philippines is still minimal. Science and technology sector remained insignificant in the development strategy of the country. The comparison of the two countries, Philippines and Japan, showed the total opposite of technological development that can be experience in a country. These comparisons can lay the standards on the do's and don'ts in technological development. This study gave us a general view of the situation of the science and technology sector in the Philippines and what must be done in order to be at par with the experience of Japan. The above mentioned moves and strategy conducted by Japan could be used to measure the level of the science and technology sector in the Philippines.


A universal notion comes to mind when we mention research and development activity (R&D), basic research, applied research and experimental development. But vast number of empirical literatures focused on the whole idea of R&D and doesn't give emphasis in every stage that happens in R&D. It must be noted that most of the R&D activities have a positive effect in the productivity of one's firm either your investing on it or just adopting the technology. According to the study of Mosahid Khan and Kul B Luintel (2010), the empirical analysis that emphasize on the different stages of R&D activities which focus on the relationship of basic research and applied research to the productivity of one's firm has a long term benefit instead of generalizing the contribution of R&D in the productivity of one firm. In the study, they measured different types of knowledge among different institutions such as: academic, business, government and private non-profit sector. They also included in their measurement the foreign knowledge stocks which can be connected to the international R&D spill over. They have used non-stationary data econometrics to answer the concerns regarding the levels of regressions. The conclusion of the study was that every stage (basic research, applied research and experimental development) in the R&D contributes to the output and productivity of a firm. It is notable that international spill over associated with basic R&D, total R&D and business sector R&D gained prominence in the study. The most important conclusion in the study was the emphasis that was given to the basic research instead of applied research and experimental development due to the long term benefit that it can contribute to a firm (Luintel, 2010). In line with our study, this empirical literature gave us a broader sense on how to measure knowledge and connect it to productivity. The basic research that was discussed in the study is the first step of invention that might lead to innovation then technological change. The emphasis that was given to basic research only proves that productivity, in relation to technology, always starts at the basic step and everyone can do it as long as there are proper materials and tools provided.



Research Design

In this paper we will use Meta-analysis as the research design of the study. In Meta analysis, the researchers will gather data from larger body of research. Then the data gathered will be statistically analyzed using different powerful statistical tools. With this, it represents a larger sample and could mean a more meaningful or usable data. This kind of statistical technique developed by social scientists came about due to the limitations in the type of experiments a researcher can perform. In addition, Meta-analysis provides a quantitative tool to analyze statistically data extracted from a number of studies, executed over a period of time (Shuttleworth, 2009).

Locale of Study

The area of the study is in the Philippines.

Population / Sampling

The respondents for this study are the local inventors in the Philippines that are in the records of the Intellectual Property Rights Office of the Philippines in the year 2000-2010.

Sampling design

a. In this paper we will use cluster sampling. It is a sampling technique that gives all the clusters equal chances of being selected. In the process, researchers randomly select a number of clusters from the collection of clusters of the entire population. Hence, only a number of clusters are sampled, all the other clusters are left alone (Castillo, 2009).

Sources of data

The quantitative data presented in this study come from the TAPI Annual Report, IPO statistics, WIPO statistics, DOST statistics, DepEd, DTI, NSCB, NSO, World Bank, UNDP, UNESCO and etc.

Instrumentation & Data Collection

To acquire quantitative data we will use a secondary data coming from IPO, TAPI, WIPO, DOST, NSCB, DepEd, DTI, NSO, World Bank, UNDP, UNESCO and etc.

Tools for Data Analysis

The data gathered will be analyzed using Econometrics.