Summary
Highlights
Before Spanish colonization, early Filipinos possessed indigenous knowledge in agriculture, fishing, crafting, and medicinal plants. Technology was crucial for daily life, building houses, irrigation, tools for various activities, transportation, and even musical instruments. The Metal Age significantly influenced early Filipino life with advanced craftsmanship in gold, silver, and ceramics, and trade with neighboring countries facilitated cultural and technological exchange. Indigenous knowledge and folklores were also integral to their culture.
The Spanish introduced formal education with schools for boys and girls, making science and technology subjects. Learning focused on understanding human bodies, plants, animals, and heavenly bodies, while technology involved developing tools for everyday life. Western technologies were adapted using indigenous materials. Medicines and advanced sciences were introduced through colleges and universities established by Catholic orders. The Galleon Trade further brought technology and development, positioning the Philippines as a prominent trade center. However, superstitious beliefs and Catholic doctrines sometimes hindered scientific growth.
The American period brought significant development to science and technology. They established a public education system, improved engineering and health conditions, and founded modern research universities like the University of the Philippines, as well as more public hospitals. This era also saw increased exploration and exploitation of mineral resources, and improvements in transportation and communication. Science was integrated into both public and private schools, with a focus on natural studies and sanitation in basic education, and research on tropical diseases in higher education. World War II severely disrupted these developments, destroying institutions and public facilities.
After World War II, the Philippines focused on enhancing its science and technology capabilities despite limited resources. Overseas development aid (ODA) supported scientific productivity and technological capability, particularly through human resources development, aiming to produce more engineers, scientists, and technology experts. Internal factors like survival, culture, and economic activities, along with external factors such as foreign colonizers and international trade, shaped the development of science and technology. Improving science education remains a challenge due to slow improvements in science schools and low enrollment in STEM courses.
The Philippine government, through the Department of Science and Technology (DOST) and the National Research Council of the Philippines (NCRP), has initiated efforts to prepare the nation for a technology-driven world. The NCRP organizes its policies into four clusters: social sciences, humanities, education, international policies, and governance; physics, engineering, industrial research, Earth and space science, and mathematics; medical, chemical, and pharmaceutical sciences; and biological sciences, agriculture, and forestry. These policies aim to integrate ASEAN community awareness into education, promote mother tongue instruction, improve school infrastructure, ensure food security, and enhance opportunities in STEM fields.
Government policies include ensuring drug manufacturing firms comply with standards, creating educational councils for pharmaceutical services, empowering the FDA for research (with 2% GDP allocation), and supporting human genome projects. Key objectives also involve biodiversity protection, collaboration with ASEAN countries on biosafety, and promoting indigenous knowledge in conservation. Existing government programs include funding for basic research, scholarships for STEM students (managed by institutions like the PCHRD and SEI), establishing Philippine Science High Schools, and creating science and technology parks. The balik scientist program encourages expatriate Filipino scientists to contribute to national development. Noted Filipino scientists include Ramon Cabanos Barba (mango induction), Jose "Josino" Cacas Misola (Antarctica observation), Jose Bejar Cruz Jr. (electrical engineering), Lourdes J. Cruz (sea snail toxins), Bienvenido Milar Day Read (lagundi development), Rafael Dineros Guerrero III (tilapia sex reversal), Enrique Ostrea Jr. (meconium drug testing), Lilian F. Patena (plant biotechnology), Marho Panganiban Ruiz (graph theories), Gregory Liod Tangonan (communication technology), Cesar A. Saloma (physics), Edgardo Gomez (marine science), and William Padolina (National Academy of Science and Technology president).
Education in the Philippines has evolved from informal, survival-oriented learning in the pre-Spanish era to structured systems under colonial influences. During the Spanish period, education aimed to propagate Christianity and enforce vocational training, often through dictation and memorization. The American period introduced democratic ideals, English as the medium of instruction, and universal free education, establishing institutions like the University of the Philippines. The Japanese occupation emphasized Japanese language, manual labor, and vocational training, while post-war Republic era focused on democratic ideals, social orientation, and community development. Science education today emphasizes teaching science (pedagogy), learning science (understanding concepts like data representation and information retrieval), and understanding science (applying the scientific method). John Dewey stressed utilizing the natural environment and experiential learning. Science education is crucial for developing scientific literacy and fostering innovation.
The Philippine educational system promotes science through basic and tertiary education. The Philippine Science High School system aims to develop scholars with scientific minds. Special Science Elementary Project and Science High Schools like Manila Science High School aim to equip children with scientific knowledge and skills. Initiatives like the Dynamic Learning Program foster higher-level learning and creativity. Science education, at its core, is about teaching, learning, and understanding science, contributing to scientific literacy and fostering innovation and research for national development.