Mechanization
Introduction to Agricultural Mechanization
Definition: Agricultural mechanization involves using machinery to enhance agricultural work efficiency, greatly increasing productivity.
Learning Outcomes and Objectives
At the end of the lesson, you should be able to:
Explain the nature and principles of basic farm machinery and mechanization.
Discuss the historical significance and productivity impact of mechanization in agriculture.
Differentiate between levels and models of mechanization.
Identify sources of power utilized in farming.
Benefits of Agricultural Mechanization
Increased Cropping Intensity: Enhances farming efficiency, allowing for more crops to be produced per unit area over time.
Increased Labor Productivity: Mechanization allows farmers to work faster and more effectively, maximizing labor output.
Full Utilization of Farm Products: Reduces waste and maximizes the use of agricultural products.
Reduction of Post-Harvest Losses: Mechanization helps in better storage and processing of crops, thereby minimizing losses.
Value Addition: Mechanized processes can enhance the quality and marketability of agricultural products.
Employment Generation: Mechanization can create new jobs and enhance livelihoods in adjacent sectors.
Levels of Mechanization
Hand Tool Technology: Involves tools and simple implements powered by human efforts. Crucial even in advanced mechanized setups.
Draft Animal Technology: Utilizes animal power for implements and machines.
Mechanical Power Technology: Refers to advanced agricultural machinery that operates on mechanical energy.
Models of Mechanization
High Land Area to Farmer Ratio (USA Model): Focus on cultivating large areas with limited manpower. Aims for high mechanization to optimize resources.
Low Land Area to Farmer Ratio (Japan Model): Aims to increase mechanization levels to improve yield and intensive cropping to satisfy rising food demands.
Status of Agricultural Mechanization in the Philippines
Mechanization level remains low compared to other Asian nations:
Japan: 7.0 hp/ha
South Korea: 4.11 hp/ha
China: 4.10 hp/ha
Philippines: 1.23 hp/ha
Classification of operations:
Low Operation: Manual and animal power
Medium Operation: Combination of mechanical with manual power
High Operation: Full mechanical power usage
Mechanization Levels Over Time (Philippines)
2013: 2.31 hp/ha in rice farms
2022: 2.58 hp/ha in rice farms
Highest level recorded in Cagayan Valley: 3.51 hp/ha
Lowest in BARMM: 0.93 hp/ha
Government Initiatives and Agencies Related to Mechanization
Department of Agriculture (DA):
Agriculture and Fisheries Mechanization Committee (AFMEC)
Bureau of Postharvest Research and Extension (BPRE)
Philippine Rice Research Institute (PhilRice)
Bureau of Soils and Water Management (BSWM)
National Irrigation Administration (NIA)
Bureau of Plant Industry (BPI)
National Food Authority (NFA)
Bureau of Agricultural Research (BAR)
Philippine Center for Postharvest Development and Mechanization (PhilMech)
Regional Agricultural Engineering Group (RAEG)
University of the Philippines Los Baños (UPLB):
Agricultural Mechanization Development Program (AMDP)
Agricultural Machinery Testing and Evaluation Center (AMTEC)
Department of Science and Technology (DOST):
Philippine Council for Agriculture, Forestry and Natural Resources Research and Development (PCARRD)
Professional Regulation Commission (PRC): Regulates the agricultural engineering profession.
Private Sector Organizations:
Philippine Society of Agricultural Engineers (PSAE)
Agricultural Machinery Manufacturers, Dealers and Distributors Association (AMMDA)
Key Legislation
Agriculture and Fisheries Modernization Act of 1997: Aims to modernize the agricultural sectors in the Philippines.
Agricultural and Fisheries Mechanization Development Act of 2013: Facilitates the adoption of modern machinery for enhancing productivity in agriculture and fisheries.
References
Dangan, V.S. (2019). Agricultural Mechanization. BASC.
Accessed from various credible sources on agricultural mechanization.