Mechanization Status, Promotional Activities and Government Strategies of Thailand and Vietnam in Comparison to Bangladesh
Abstract
:1. Background
2. Methodology
3. Findings
3.1. General Status of Agriculture
3.1.1. Thailand Agriculture
3.1.2. Vietnam Agriculture
3.1.3. Bangladesh Agriculture
3.2. Mechanization Status
3.2.1. Mechanization in Thailand
3.2.2. Mechanization in Vietnam
3.2.3. Mechanization in Bangladesh
3.3. Status of the Agricultural Machinery Industry in Thailand, Vietnam and Bangladesh
3.3.1. Thailand
3.3.2. Vietnam
3.3.3. Bangladesh
3.4. National Agricultural Machinery Plans
3.4.1. Thailand
- The Twelfth National Plan (covering 2017–2021) aims to lessen production expenses and increment farmer incomes.
- The plan of action is to expand paddy cultivation to a vast area, with the expectation that the model will help reduce cultivation expenses, improving paddy quality and guaranteeing higher income for farmers.
- Besides, the intention is to establish technological rings which are gatherings of farmers and others associated with agribusiness. Technology rings will bolster this strategy with regular ventures and shared guidance of the oversight procedure of individual farms which should turn out to be more proficient and decrease cultivation costs.
3.4.2. Vietnam
- According to MARD, by the end of 2018, the level of agriculture mechanization (AM) in preparing the soil for annual crops (rice, sugarcane, corn, vegetables) reached about 94%; the stage of rice sowing with sowing tools and transplanting reached 42%; the stage of caring, spraying pesticides (rice, sugarcane, tea) reaches 77%; 50% of the rice harvest (90% in the plain provinces). The growth rate of the number of machines and equipment in agricultural production increased by 2% compared to 2017.
- In the northern provinces, MARD has set a target to 2020 and orientations to 2030 for the stage of making rice land basically MA, shifting from using two-wheel tractors to four-wheeled tractors with high productivity and efficiency resulting in more favorable working conditions. Particularly in the Red River Delta, by 2020 the level of MA land preparation will reach 100%, cultivation 70%, and harvesting 90%; in the North Central Coast and northern mountainous regions, the rice harvest stage reaches 50%.
- With maize, AM stages sowing, tending and harvesting in flat production areas, concentrating AM from 70 to 80%;
- With tea trees, in addition to tending, tilling the grass with machines, cutting and picking tea using machines more than 45%
- For sugarcane, AM focuses on planting, tending, watering and especially harvesting, loading and handling of sugarcane leaves and tops after harvesting in concentrated production areas in the North Central Coast; the northern mountainous areas reach 50%.
- In order to further promote agricultural production AM, MARD has set out a target to require specific development planning of machinery and equipment suitable to the conditions of each region, each type of crop and animal, especially in concentrated agricultural production areas, goods with advanced and modern machinery and equipment have high productivity, quality and efficiency, reducing agricultural losses; contributing to economic restructuring, labor, raising incomes for farmers and improving agricultural competitiveness.
- The Vietnamese administration has recently executed new approaches to help farming modernization by presenting projects, for example, “Assemble New Rural”. These program goals to develop new foundations to extend rustic and field roads. Users can now easily take soft loans from banks to put resources into farming technologies. There are various sorts of technologies and tillage implements under 30 hp developed by Vietnamese industries, that can be effortlessly utilized by smallholders. In the following stages, the legislation will concentrate on mechanizing the entire procedure of creating and handling paddy rice, maize, sugarcane and peanuts.
3.4.3. Bangladesh
- The government of Bangladesh has published a farm modernization policy with the aim of expanding farm profitability by accelerating the popularization of simple yet efficient technologies at the grower level. The policy framework aims to reduce the production cost because of the lack of labor for development.
- The policy is planning to inspire the development of farmer-friendly technologies taking into account the small farm size, divided land proprietorship and types of soil. It is likewise focusing on incrementing cropping intensity with the view to increasing harvest yields. A farm modernization strategy would be instrumental to guarantee the quick development of agri-technologies and address the issues of lack of farm labor and low profitability.
- Nowadays, up to 98% of the farm area is plowed by 2-WT and 4-WT. Modern technologies are likewise utilized for 90% of pesticide application and 97% of threshing activity. The government has taken up a Tk 3198 core program undertaking to advance farm modernization, with an end goal to bail out farmers who experience the ill effects of the lack of farm workers during the crop harvesting collecting season. This is the first occasion when that the administration has incorporated a farm modernization venture into spending plans in Bangladesh.
- Farmers may obtain 50 to 70 percent impetus while purchasing agrarian technologies and furthermore simple bank loans, as the administration hopes to foment cultivation rotation.
- The Government of Bangladesh also detailed modernization guides for 2021, 2031 and 2041 in of 2016 [24]. The guide recognized the difficulties which hinder the farm modernization in Bangladesh.
- The challenges referenced in the guide were the expanding rate of the decrease of farm workers, decrease of farmland, environmental changes, land fracture, fabrication of substandard quality farming technologies, suitability of farm machinery for the local soil conditions, absence of farm roads, the significant cost of the farm technologies, the low buying intensity of farmers and reduction of ground water levels.
- The mechanization guide likewise urged the improvement stakeholders to be included effectively in accomplishing the modernization objective. The guide proposed the execution procedures to arrive at the objective of modernization development. The concerned authorities should find a way to accomplish the objectives.
- The government has placed an emphasis on an all-encompassing methodology through consideration of various partners, particularly government, non-government organizations, advancement collaborators, augmentation specialists, brokers, producers, elites, tax assessment offices, media stakeholders and so on. The administration is attempting to create a suitable environment to spread the modernization actions in quicker manner.
3.5. Standardization
3.5.1. Thailand
3.5.2. Vietnam
3.5.3. Bangladesh
3.6. Limitations to Mechanization
3.6.1. Thailand
- In the past, the government didn’t help the improvement of farmmodernization and still less up to this point. Present power utilization for farming activities is about 2.3 kW/ha.
- There is a lack of suitable technologcal advances for the use of machines at the farm level, just as a work in progress in the innovation for farming technologies.
- Collaboration based on government support is likewise insufficient. Users can’t purchase modern farm machineries due to a lack of credit.
- Moreover, the cost for new technologies is high since they are mostly imported from abroad.
- The typical arable plot sizes is to small to operate such kind of machines for field activities. The contribution of relatives is less in farm practices which causes manpower shortages in farm work. Throughout the country, only 23.9 million hectares are arable land of which 68% is used for field crops. The country currently has 5.71 million farming households with four members per household on average. The average farm size is only 4 hectares per household [48].
- Custom renting was seen for above all else farm practices. In spite of the fact that farmers under downpours took care of agribusiness for paddy and sugarcane production possessed farm machines which were a bit much for their farm labor needs, they still needed to pay for the skilled help work. It had a significant impact on their yield.
3.6.2. Vietnam
- The level of modernization in farm activities is low and not uniform
- Compared with other countries in the region, the degree of penetration of more modern technologies in Vietnam is low, with an average of 1.8 kW/ha of farmland.
- Low technical infrastructure and clematis cultivation practices that obstruct the utilization of modern equipment. Field size and shape in the nation is tiny and dispersed.
- At present, Vietnam has 70 million pieces of land, every family unit has on average just 0.7 ha of farmland, made up of 3–4 pieces of land. In spite of the fact that there is an arrangement of “combination of pieces of land”, all in all in practice the land is as broken up as always. This constrains the implementation of modernization in the different stages of crop production.
- Vietnam’s mechanical industry has not met the necessities of agrarian cultivation; interest in this unfamiliar field is still low.
- Agricultural items in Vietnam just meet the amount and nature of farm technology, for example, paddy cultivators, sugarcane harvesters, maize, little farm vehicles and so on.
- Additional foreign interest in the field of design and fabrication of agrarian technologies has been practically non-existent since 2009 when KUBOTA Vietnam Co., Ltd., started working in Vietnam.
3.6.3. Bangladesh
- The lack of skill manufacturers, operators and quality materials as well as high cost due to the numerous machines involved makes all activities expensive to operate. The power utilization pattern in agricultural cultivation is about 1.82 KW/ha
- There is a lack of effective linkages among researchers, extension workers and users.
- Farmers can’t handle the machines properly due to a lack of practical knowledge and maintenance costs are very high.
- Lack of purchase ability of the users, hindered by limited support for mechanization from the government, banks and private organizations.
- Lack of availability of spare parts, after-sales service, repair-maintenance facilities and hands on training. The very few trained personnel is not always available when machines break down.
- Fragmented land and unorganized farms at the rural level. The average size of owned land stood at 0.61 ha in 1988 and thus amount has declined significantly over time to peak at 0.48 ha in 2007—a decline of 21% over the last two decades and has been followed by a further decrease to 0.39 ha in 2014 [38].
3.7. Lessons Learned
3.7.1. Thailand
- Extension centers work together with universities for the rapid dissemination of developed technology while university place an emphasis on both problem-oriented research based on farmers’ demands and basic research
- Thailand has emphasized agriculture-based industrialization. Expanding manufacturing activity throughout the country is prioritizing soil properties, land size, farmers’ economic conditions and crops.
- Nowadays they are working on precision agriculture in parallel with mechatronic-based machinery research and development.
- They are giving priority to local level fabrication of machinery only importing engines and some critical parts.
- Enhancing the local manufacturing and fabrication capacity, there is no taxation on agricultural machinery and spare parts importation.
- Land size and soil type are suitable to promote large machinery for rice cultivation mechanization
- Hydrotillers with wider size wheels are used for marshy land tillage. This technology was developed based on the demands of the country
- Only a few different types of whole feed combine harvester are used for rice. Yanmar and Kubota branded transplanting and harvesting machines are used in Thailand.
- About 95% of the rice area is harvested by combine harvesters and 75% of these harvesters are made locally under joint-venture industries with Kubota.
- Rice transplanters are still being imported from Japan and Korea. Only at the research level are they trying to develop new machines. Rice is transplanted only in lowland areas (about 20% is transplanted) while in other areas, rice is broadcast using different types of seeder machine (about 80%).
3.7.2. Vietnam
- The mechanization level is increasing rapidly in Vietnam due to the labor crisis and high labor wage rates as well as to improve the quality of grown crops.
- The percentage of mechanization varies depending on the crop, the production stage and regions.
- The mechanization rate of several stages is altogether high, but many machines are not appropriate, the level of equipment, technology and farming technique usage is still low and efficiency is not high.
- Mechanization of the harvest stages remains low and loss reduction is limited.
- Machines and equipment used in agriculture are more complex and diverse and the systems for maintenance and repair are undeveloped and the use efficiency is limited.
- Quality management of agricultural machinery has been be absent, market competition is not healthy and farmers lack information.
- On an average, every 100 farmer households have 1.05 large tractor (15 HP) and 2.4 small tractors.
- Every farm has four 4-wheel tractors; from five to six two-wheel tractors and one or two water pumps.
- Harvesting has a higher growth rate in Vietnam, from 5% in 2000 to 42% in 2014, but there is the difference between the areas.
- Harvesting mechanization in the south-east region has reached around 70% while in the north the average was 40% in 2018.
- Capacity of drying rice at now reaches about 55%, mainly with flat-bed static dryers that account for around 90%, while tower dryers represent 10%.
- In Vietnam, normally unparboiled rice is used while rice bran used as cattle feed and husks are used in the dryers as fuel.
- Planting of sugarcane by machine reaches 30% focused on several sugar companies in certain provinces (Quang Ngai, Tay Ninh, Dong Nai, Phu Yen).
- Several models of extension used sugarcane cutting machines in the form of spraying lines with a capacity of 0.1cha/h.
- Corn mechanization for preparing the land and the work for caring for the crop in the plain-producing large regions is 70% while shelling corn, picking and drying corn commodity, transportation and harvesting are mainly done manually.
- Mechanization for watering and caring for coffee-trees is around 80%, For harvesting, the application of several harvesting machines with capacities of 1.2–2.0 ton of fruit/day is beginning, but there are not many yet, and the harvest is still mainly by hand.
- In the vegetables, flowers and fruit sector mechanization for preparing land and watering almost reaches 90%. Around 60% use machines in the labors of care and plant protection. Harvesting is by hand.
- Several larger enterprises in Lam Dong, HCMC, Can Tho, and Dong Thap have purchased washing lines, cool storage and pack-houses for preliminary handling, preserving vegetables, flowers, fruits.
- Manufacture of machine and for agricultural production
- ○
- For drying machines and tractors the production capacity is about 40,000 diesel engines/year, accounting for 40% of the market share in the country (mainly by Vietnam Engine Agricultural Machinery Corporation-VEAM—Ministry of Industry and Trade of the Socialist Republic of Vietnam).
- ○
- For combine harvesters there are 15 enterprises in the whole country, in which three enterprises including Tu Sang 2 in Tien Giang province, Phan Tan in Dong Thap and An Giang Engineering Co., Ltd. in An Giang have a capacity of 1000 machines/year.
- ○
- For rice mills over 90% are manufactured by Vietnam enterprises which have reached an advanced level (Bui Van Ngo Company, SINCO, LAMICO) and are exporting machinery to Southeast Asia, the Americas, and Africa
- KUBOTA Company in Vietnam
- ○
- Design capacity is 15,000 tractors/year and 2000 combine harvesters/year
- ○
- Work is focused on assembling tractors (24–45 Hp), ground milling machines; combine harvesters (working width: 1.5–2 m); four/six-row potting machines and corn harvesting machines, making a huge contribution to the application and development of mechanization in Vietnam
3.8. Conclusions
3.9. Recommendations
- Parallel to the importation of machinery, emphasis should be given to research and development.
- Location and soil condition-specific technology should be developed.
- Spare parts should be exempted from taxes to increase the local fabrication capacity.
- Separate agricultural institutions need to be established for sustainable mechanization in agriculture.
- Universities, research organizations and extension agencies should work very closely and effectively address the present priorities.
- A significant number of zones from declared 100 economic zones should be formulated inclusively for agro-machinery and processing technology generation and fabrication.
- Joint venture companies need to be established like in Thailand and Vietnam for producing domestic transplanting and harvesting technologies.
Author Contributions
Funding
Acknowledgments
Conflicts of Interest
References
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Countries | GDP Growth (%) | Agric to GDP (%) | Industry to GDP (%) | Net FDI (million USD) | Export/GDP (%) | Import/GDP (%) | Savings/GDP (%) | Rank (EDB) | Rank (GCI) |
---|---|---|---|---|---|---|---|---|---|
Thailand | 2.4 | 10.5 | 35.0 | 6316.0 | 59.7 | 50.6 | 31 | 21 | 40 |
Vietnam | 7.0 | 21.5 | 34.3 | 15,500.0 | 107 | 103 | 23 | 70 | 67 |
Bangladesh | 8.2 | 14.23 | 28.5 | 1596.7 | 15.3 | 21.4 | 36 | 168 | 105 |
Operation | Methods | Percentage (%) | ||
---|---|---|---|---|
Bangladesh | Thailand | Vietnam | ||
Land preparation | Tillage implements (2-WT and 3-WT, leveler, different type of ploughs, tillage equipment, harrowers, etc.) | 98 | 100 | 98 (100 in the Mekong River Delta) |
Cattle/traditional | 2 | 1 | ||
Transplanting | Machine transplanting (transplanting machines, sowing machines) | 5 | 80 | 30 (65 in the Mekong River Delta) |
Human labor/conventional | 95 | 20 | ||
Weeding | Engine power and human power operated equipment (power weeders, manual weeders) | 8 | 20 | <30 |
Manual | 92 | 80 | ||
Fertilizer | Machine operated (manual and power operated applicators) | 5 | 50 | |
Human labor/conventional | 95 | 50 | ||
Irrigation | 85 | |||
Pesticide/Herbicide application | Mechanical | 92 | 70 | 78 (86 in the Mekong River Delta |
Manual | 8 | 30 | ||
Reaping | Self-operated, power tiller operated and modern combined (PTO reapers, self-propelled reapers, combine harvesters, reapers, trippers, stripper headers) | 7 | 90 | 57 (82 in the Mekong River Delta) |
Conventional (sickle) | 93 | 10 | ||
Threshing (paddy) | Machine operated | 97 | 100 | 95 |
Conventional | 3 | 0 | - | |
Post-harvest | Mechanical (dryer) | 5 | 45 | 30 (39 in the Mekong River Delta) |
Manual | 95 | - | - | |
Processing | Machine operated (de-husker, whitener, separator, polisher) | 42 | 90 | 95 (100% in Mekong River Delta) |
Mechanical (Engelburge) | 57 | 10 | 5 | |
Traditional | 1 | - | - | |
Storage | Modern | 15 | >35 | <25 |
Traditional | 85 | - | - |
Year | Bangladesh | Thailand | Vietnam |
---|---|---|---|
1980 | 0.38 | - | - |
1990 | 0.40 | - | - |
2000 | 0.81 | - | - |
2010 | 1.4 | - | - |
2018 | 1.82 | 2.3 | 1.8 |
Items | Bangladesh | Thailand | Vietnam |
---|---|---|---|
Tillage implements/tiller | Imported whole machines | Only engines imported | Only engines imported |
Self-propelled reaper | Both locally fabricated and imported | Not used | Import tractor and locally fabricate |
Combine harvester | Imported. Trying to develop and fabricate locally | Joint venture production with Kubota Company | Joint venture production with Kubota Company, importation of used machines from Japan |
Power operated rice transplanter | Imported | Imported | Imported and local fabrication |
Manual transplanter | Locally fabricate | Not used | Locally fabricated |
Spare parts | Both locally fabricated and imported | Both locally fabricated and imported | Both locally fabricated and imported |
Taxation on spare parts | High tax on spare parts (about 20 to 65%) | No tax on farming technology and spare parts | Minimum tax on farming technology and spare parts |
Taxation on whole machines | Minimum tax on whole agricultural machines (5 to 6.5%) | No tax | Minimum taxation on agricultural machineryNo tax if the machine is not yet fabricated in Vietnam |
Subsidy on interest rates of loan for agricultural machinery purchases | No subsidy | Minimum interest rate about 4–6% | Zero interest on new and big machines for new entrepreneurship |
Subsidy on machinery purchase | Project base | No subsidy | Project base. At present no subsidy. |
Graded materials produced in the country | Have steel mills but graded material is not produced. | Produce and fabricate | Imported. Have steel mills but graded material is not produced. |
Govt. subsidy programs | Project subsidies, etc | Training, demonstration, R & D, location-based activities and strengthening of local entrepreneurship | Training, demonstration, R & D, location-based activities and strengthening of local entrepreneurship |
Training program for technical manpower development | Not institutional form | Institutional form | Not institutional form |
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Hossen, M.A.; Talukder, M.R.A.; Al Mamun, M.R.; Rahaman, H.; Paul, S.; Rahman, M.M.; Miaruddin, M.; Ali, M.A.; Islam, M.N. Mechanization Status, Promotional Activities and Government Strategies of Thailand and Vietnam in Comparison to Bangladesh. AgriEngineering 2020, 2, 489-510. https://doi.org/10.3390/agriengineering2040033
Hossen MA, Talukder MRA, Al Mamun MR, Rahaman H, Paul S, Rahman MM, Miaruddin M, Ali MA, Islam MN. Mechanization Status, Promotional Activities and Government Strategies of Thailand and Vietnam in Comparison to Bangladesh. AgriEngineering. 2020; 2(4):489-510. https://doi.org/10.3390/agriengineering2040033
Chicago/Turabian StyleHossen, Md. Anwar, Md. Ruhul Amin Talukder, Muhammad Rashed Al Mamun, Hafijur Rahaman, Subrata Paul, Md. Mizanur Rahman, Md. Miaruddin, Md. Azhar Ali, and Md. Nurul Islam. 2020. "Mechanization Status, Promotional Activities and Government Strategies of Thailand and Vietnam in Comparison to Bangladesh" AgriEngineering 2, no. 4: 489-510. https://doi.org/10.3390/agriengineering2040033
APA StyleHossen, M. A., Talukder, M. R. A., Al Mamun, M. R., Rahaman, H., Paul, S., Rahman, M. M., Miaruddin, M., Ali, M. A., & Islam, M. N. (2020). Mechanization Status, Promotional Activities and Government Strategies of Thailand and Vietnam in Comparison to Bangladesh. AgriEngineering, 2(4), 489-510. https://doi.org/10.3390/agriengineering2040033