Global Agriculture Spraying Equipment Market Size, Share & Industry Analysis Report By Farm Size (Medium Farms, Large Farms, and Small Farms), By Capacity (High Volume, Low Volume, and Ultra-Low Volume), By Type (Self-propelled, Tractor-mounted, Trailed,
Description
The Global Agriculture Spraying Equipment Market size is expected to reach $4.70 billion by 2032, rising at a market growth of 7.5% CAGR during the forecast period.
Key Highlights:
The Asia Pacific region dominated the Global Market in 2024, accounting for a 38% revenue share in 2024.
The China Agriculture Spraying Equipment market is expected to continue its dominance in China region thereby reaching a market size of 462.94 MN by 2032.
Among the various propulsion type segment, the Medium Farms dominated the global market contributing a revenue share of 46% in 2024.
In terms of the Capacity segmentation, the high volume segment is projected to dominate the global market with the projected revenue share of 46.71% in 2032.
Self-propelled led the type segment in 2024, capturing a 27% revenue share and is projected to continue its dominance during projected period.
Precision agriculture and global food security have propelled the fast evolution of agricultural spraying equipment from crude manual instruments to highly sophisticated, GPS-driven systems. Efficiency has been redefined by innovations like LiDAR-enabled Smart Apply, variable-rate nozzles, and UAV-based sprayers, which minimize chemical waste, enable real-time canopy detection, and drastically lower operating costs. These developments, which are the result of partnerships between commercial OEMs like John Deere and public research institutes, demonstrate the industry's shift toward sustainability and digital integration. Precision spraying has evolved from a supporting to a crucial part of contemporary, high-output farming as the globe struggles to feed more than 9 billion people by 2050.
The agricultural spraying equipment market is experiencing a rapid evolution from basic manual instruments to very sophisticated and GPS-driven systems. The growing emphasis on food security worldwide and the precision agriculture have driven this evolution in the market. Innovations such as LiDAR-enabled Smart Apply, variable-rate nozzles, and UAV-based sprayers has led to the significant reduction in chemical waste and operating costs and enable real-time canopy identification thereby redefining the efficiency. Such developments are accredited to the partnerships between commercial OEMs such as John Deere and public research institutes and are also the representative of the transition of the industry towards the digital integration and sustainability.
Automation, electrification, and regional growth strategies targeting both large-scale and smallholder farmers are all changing the market at the same time. While OEMs and ag-tech startups compete and work together to provide scalable, tech-enabled solutions—from robotic sprayers and RTK-GPS drones to packaged Agriculture Spraying-as-a-Service (ASaaS) models—governments in emerging nations are using subsidies to encourage automation. Prominent companies are investing in sustainability, education, and regulatory compliance while using low-cost, modular technology to reach underserved populations. In order to satisfy the growing need for sustainable agricultural production, success in this dynamic environment depends on the capacity to combine engineering prowess, software intelligence, ecosystem alliances, and user-centric design.
Growth strategies with orientation towards automation, electrification and regional growth having focus on both large-scale and small-scale farmers are shaping the market. The OEMS and ag-tech startups are engaging together to develop and offer scalable and tech-enabled solutions ranging from robotic sprayers and RTK-GPS drones to packaged Agricultural Spraying-as-a-Service (ASaaS) models. Also, the government across countries are also providing subsidies to boost automation. Leading companies are investing in education, sustainability and regulatory compliance. These companies also reaching the underserved society using economic modular technology. The success roadmap to cater the rising requirement for sustainable agricultural production is influenced by the capacity to combine software intelligence, engineering prowess, user-centric design and ecosystem alliances.
The major strategies followed by the market participants are Product Launches as the key developmental strategy to keep pace with the changing demands of end users. For instance, In June, 2025, CNH Industrial N.V. unveiled advanced AI sprayer technology offering precision application beyond traditional boom boundaries. Using vision systems and machine learning, it enables real-time weed detection and targeted spraying, minimizing chemical use and environmental impact. This innovation reflects CNH’s strategic push for smart agricultural spraying equipment and sustainable farming practices. Moreover, In March, 2025, Yamaha Motor Co., Ltd. unveiled advancements in autonomous technology to boost agricultural efficiency. By enhancing field robotics and automation systems, Yamaha aims to optimize operations such as spraying and seeding, reinforcing its position in precision agriculture and contributing to the evolution of the agricultural spraying equipment market.
Product launches emerged as the major strategy adopted by the market participants in order to match the dynamic demand of the end-users. For e.g. in June 2025, CNH Industrial N.V. revealed innovative AI sprayer technology providing precision application afar conventional boom boundaries. The real-time weed identification and targeted spraying thereby significantly reducing the chemical usage and hence the environmental impact is facilitated by the vision systems and machine learning. Such innovations display CNH’s strategic commitment for smart agricultural spraying equipment and sustainable farming practices. Similarly, in March 2025, Yamaha Motor Co., Ltd. revealed the progress in autonomous technology to fuel the efficiency in agriculture sector. The optimization of the operations like seeding and spraying is the focus area of Yamaha thereby Strengthening its foothold in precision agriculture contributing to the evolution of this market.
KBV Cardinal Matrix - Agriculture Spraying Equipment Market Competition Analysis
Based on the Analysis presented in the KBV Cardinal matrix; Deere & Company is the forerunner in the Agriculture Spraying Equipment Market. In June, 2025, Deere & Company unveiled its R975i, the largest self-propelled sprayer in its European range. Featuring a 55-meter boom and a 9,000-liter tank, it’s designed for high-efficiency operations. The R975i features advanced technologies, such as ExactApply and AutoTrac, enabling precise application and boosting productivity in large-scale agricultural spraying. Companies such as Mahindra & Mahindra Limited, KUBOTA Corporation, and CNH Industrial N.V. are some of the key innovators in Agriculture Spraying Equipment Market.
Market Growth Factors
Rising Global Demand for Precision Agriculture
The precision agriculture is proving itself as a ground breaking method of farming enabling the enhancement of input efficiency, improvements in crop yields and reduction in environmental impact. Basically, this advance method utilizes data analytics, sensors, GPS-based instruments and automation to manage field fluctuations. The requirement to enhance the agricultural productivity with same farm has become more pertinent demand as the global population continues to rise. Hence, the precision agriculture is the suitable solution for producing more with less and advanced agriculture spraying equipment is one of the major components which makes this transformation possible.
Labor Shortages and the Push for Farm Mechanization
Traditional agricultural practices have always been based on the availability of labor. However, urban migration, aging rural populations, and the diminishing attraction of physical agricultural labor have all contributed to the severe labor shortage now plaguing the agriculture industry. Farms are having trouble finding enough labor at critical times like planting, weeding, and harvesting as more young people from rural areas move to cities in quest of better prospects. In nations like Brazil, China, India, and even some regions of North America and Europe, the labor shortage is especially acute.
Market Restraining Factors
High Initial Investment and Ownership Costs
As one of the most influential restraint limiting the widespread adoption of agricultural spraying equipment, the high investment required for the procurement and deployment of the agricultural spraying equipment poses a serious restraint in its widespread adoption across the regions. Though with the advancement of the technology which further cut down the costs, still the level of investment is substantial for the small and marginal farmers representing the majority share in developing countries. For instance, the self-propelled boom sprayers, drone sprayers and autonomous robotic units may cost thousands to tens of thousands of dollars. Additionally, the incremental costs related to the base machine accessories, fuel and other modifications etc further makes the condition more challenging.
Farm Size Outlook
Based on Farm Size, the market is segmented into Medium Farms, Large Farms, and Small Farms. The large farms segment procured 31% revenue share in the agriculture spraying equipment market in 2024. These farms usually have a lot of acres to work with, so they need powerful machines that can swiftly and effectively cover large areas. Due to this, big farms are more likely to spend money on new technologies that offer speed, accuracy, and data-driven application methods, such as self-propelled machines, drone-based sprayers, and autonomous systems.
Capacity Outlook
Based on Capacity, the market is segmented into High Volume, Low Volume, and Ultra-Low Volume.
High Volume Sprayers
Most of the time, large-scale farms employ high-volume sprayers since they can cover a lot of land in one refill cycle. These devices can hold hundreds of liters of fluid, which lets them spray without stopping. They are great for growing maize, wheat, and soybeans since they are strong and fast. They require more chemicals and water, but improvements in precision delivery systems are helping to cut down on overuse. The necessity for operational scale, especially in nations such as the U.S., Brazil, and China, where farming is very mechanized, is the reason that makes them so dominant in the market.
Trend:
Integration of GPS-Guided Variable Rate Application Systems
High volume sprayers are progressively equipped with GPS-based systems and variable rate application (VRA) technologies. Such equipment facilitate the farmers to apply pesticides, fertilizers, or herbicides more proficiently by regulating the flow rate in real time. The deployment of such solution is intended to maximize productivity by reducing operational costs and environmental waste. Such a trend is quite relevant for row crop farming thereby facilitating the quick and uniform coverage of large areas.
Supporting News:
At Colorado’s Commodity Classic (April 2025), John Deere unveiled updates to its sprayers featuring “See & Spray Select variable rate technology and AutoTrac automation,” enabling nozzle-level adjustments based on biomass detected by cameras.
Quote:
“High volume systems are the backbone of large area application—where speed and throughput cannot be compromised.”
— Dr. Elena Marquez, Senior Analyst, Global AgriTech Insights
Low Volume Sprayers
Low-volume sprayers are outstanding for mid-sized farms and specialist crop applications including vineyards, orchards, and vegetable farms since they balance coverage and resource use. They usually use 50 to 200 L/ha of liquid, which gives them enough coverage without using as many resources as high-volume systems. More people are using them because they work well with ecologically friendly activities and stricter rules about how chemicals can be used. Farmers also like them better since they don't have to refill the tank as often, they are easier to move around, and they apply more accurately, which is especially important in areas where over-spraying could cause runoff or damage to crops.
Trend:
Adoption of Smart Nozzle Technology and Section Control
Low volume sprayers are gradually integrating advanced nozzle control systems which can identify target zones, minimize drift, and remove overlapping. These comprise pulse-width modulation (PWM) systems and AI-powered boom section controllers, that permit precise application even in uneven shaped fields.
Supporting News:
The World Ag Expo 2025 featured Ecorobotix’s ARA Ultra-High Precision sprayer, a robotic unit capable of treating individual plants with 95% reductions in chemical use—yet showcasing how cutting-edge tech trickles into low-volume contexts.
Quote:
“Low volume units are evolving into smart delivery systems—precision-focused, environmentally aware, and perfect for targeted application.”
— Priya Singh, Director of Sustainability, AgriWorld Research
Type Outlook
Based on Type, the market is segmented into Self-propelled, Tractor-mounted, Trailed, Aerial, and Handheld. The tractor-mounted segment garnered 25% revenue share in the agriculture spraying equipment market in 2024. The important contribution is the tractor-mounted category, which medium and large farms particularly like. This kind of sprayer is mounted directly to the front or back of a tractor and runs on the tractor's engine. With their versatility, affordability, and ease of use, tractor-mounted sprayers are appropriate for a variety of crops and spraying jobs.
Regional Outlook
Region-wise, the market is analyzed across North America, Europe, Asia Pacific, and LAMEA. The Asia Pacific segment procured 38% revenue share in the agriculture spraying equipment market in 2024. The key reasons for such a significant rise are the large amount of farming that is going on and the growing focus on mechanization in countries like China, India, and Japan. Since the area has a lot of people and food needs are growing, it is now vital to adopt effective and scalable farming methods. Government programs that promote modernization of agriculture, incentives to buy equipment, and a greater knowledge of precision farming are all helping this market sector thrive.
Market Competition and Attributes
The agricultural spraying equipment market is particularly competitive since technology is changing quickly and there is a growing requirement for accuracy, automation, and sustainability. Agile agri-tech entrepreneurs are placing more and more pressure on established machinery makers with their smart, cheap solutions. As competition heats up in different sectors, companies are focusing on innovation, combining services, and adapting to local needs in order to acquire market share and meet a wide range of farming needs.
Recent Strategies Deployed in the Market
By Farm Size
Key Highlights:
The Asia Pacific region dominated the Global Market in 2024, accounting for a 38% revenue share in 2024.
The China Agriculture Spraying Equipment market is expected to continue its dominance in China region thereby reaching a market size of 462.94 MN by 2032.
Among the various propulsion type segment, the Medium Farms dominated the global market contributing a revenue share of 46% in 2024.
In terms of the Capacity segmentation, the high volume segment is projected to dominate the global market with the projected revenue share of 46.71% in 2032.
Self-propelled led the type segment in 2024, capturing a 27% revenue share and is projected to continue its dominance during projected period.
Precision agriculture and global food security have propelled the fast evolution of agricultural spraying equipment from crude manual instruments to highly sophisticated, GPS-driven systems. Efficiency has been redefined by innovations like LiDAR-enabled Smart Apply, variable-rate nozzles, and UAV-based sprayers, which minimize chemical waste, enable real-time canopy detection, and drastically lower operating costs. These developments, which are the result of partnerships between commercial OEMs like John Deere and public research institutes, demonstrate the industry's shift toward sustainability and digital integration. Precision spraying has evolved from a supporting to a crucial part of contemporary, high-output farming as the globe struggles to feed more than 9 billion people by 2050.
The agricultural spraying equipment market is experiencing a rapid evolution from basic manual instruments to very sophisticated and GPS-driven systems. The growing emphasis on food security worldwide and the precision agriculture have driven this evolution in the market. Innovations such as LiDAR-enabled Smart Apply, variable-rate nozzles, and UAV-based sprayers has led to the significant reduction in chemical waste and operating costs and enable real-time canopy identification thereby redefining the efficiency. Such developments are accredited to the partnerships between commercial OEMs such as John Deere and public research institutes and are also the representative of the transition of the industry towards the digital integration and sustainability.
Automation, electrification, and regional growth strategies targeting both large-scale and smallholder farmers are all changing the market at the same time. While OEMs and ag-tech startups compete and work together to provide scalable, tech-enabled solutions—from robotic sprayers and RTK-GPS drones to packaged Agriculture Spraying-as-a-Service (ASaaS) models—governments in emerging nations are using subsidies to encourage automation. Prominent companies are investing in sustainability, education, and regulatory compliance while using low-cost, modular technology to reach underserved populations. In order to satisfy the growing need for sustainable agricultural production, success in this dynamic environment depends on the capacity to combine engineering prowess, software intelligence, ecosystem alliances, and user-centric design.
Growth strategies with orientation towards automation, electrification and regional growth having focus on both large-scale and small-scale farmers are shaping the market. The OEMS and ag-tech startups are engaging together to develop and offer scalable and tech-enabled solutions ranging from robotic sprayers and RTK-GPS drones to packaged Agricultural Spraying-as-a-Service (ASaaS) models. Also, the government across countries are also providing subsidies to boost automation. Leading companies are investing in education, sustainability and regulatory compliance. These companies also reaching the underserved society using economic modular technology. The success roadmap to cater the rising requirement for sustainable agricultural production is influenced by the capacity to combine software intelligence, engineering prowess, user-centric design and ecosystem alliances.
The major strategies followed by the market participants are Product Launches as the key developmental strategy to keep pace with the changing demands of end users. For instance, In June, 2025, CNH Industrial N.V. unveiled advanced AI sprayer technology offering precision application beyond traditional boom boundaries. Using vision systems and machine learning, it enables real-time weed detection and targeted spraying, minimizing chemical use and environmental impact. This innovation reflects CNH’s strategic push for smart agricultural spraying equipment and sustainable farming practices. Moreover, In March, 2025, Yamaha Motor Co., Ltd. unveiled advancements in autonomous technology to boost agricultural efficiency. By enhancing field robotics and automation systems, Yamaha aims to optimize operations such as spraying and seeding, reinforcing its position in precision agriculture and contributing to the evolution of the agricultural spraying equipment market.
Product launches emerged as the major strategy adopted by the market participants in order to match the dynamic demand of the end-users. For e.g. in June 2025, CNH Industrial N.V. revealed innovative AI sprayer technology providing precision application afar conventional boom boundaries. The real-time weed identification and targeted spraying thereby significantly reducing the chemical usage and hence the environmental impact is facilitated by the vision systems and machine learning. Such innovations display CNH’s strategic commitment for smart agricultural spraying equipment and sustainable farming practices. Similarly, in March 2025, Yamaha Motor Co., Ltd. revealed the progress in autonomous technology to fuel the efficiency in agriculture sector. The optimization of the operations like seeding and spraying is the focus area of Yamaha thereby Strengthening its foothold in precision agriculture contributing to the evolution of this market.
KBV Cardinal Matrix - Agriculture Spraying Equipment Market Competition Analysis
Based on the Analysis presented in the KBV Cardinal matrix; Deere & Company is the forerunner in the Agriculture Spraying Equipment Market. In June, 2025, Deere & Company unveiled its R975i, the largest self-propelled sprayer in its European range. Featuring a 55-meter boom and a 9,000-liter tank, it’s designed for high-efficiency operations. The R975i features advanced technologies, such as ExactApply and AutoTrac, enabling precise application and boosting productivity in large-scale agricultural spraying. Companies such as Mahindra & Mahindra Limited, KUBOTA Corporation, and CNH Industrial N.V. are some of the key innovators in Agriculture Spraying Equipment Market.
Market Growth Factors
Rising Global Demand for Precision Agriculture
The precision agriculture is proving itself as a ground breaking method of farming enabling the enhancement of input efficiency, improvements in crop yields and reduction in environmental impact. Basically, this advance method utilizes data analytics, sensors, GPS-based instruments and automation to manage field fluctuations. The requirement to enhance the agricultural productivity with same farm has become more pertinent demand as the global population continues to rise. Hence, the precision agriculture is the suitable solution for producing more with less and advanced agriculture spraying equipment is one of the major components which makes this transformation possible.
Labor Shortages and the Push for Farm Mechanization
Traditional agricultural practices have always been based on the availability of labor. However, urban migration, aging rural populations, and the diminishing attraction of physical agricultural labor have all contributed to the severe labor shortage now plaguing the agriculture industry. Farms are having trouble finding enough labor at critical times like planting, weeding, and harvesting as more young people from rural areas move to cities in quest of better prospects. In nations like Brazil, China, India, and even some regions of North America and Europe, the labor shortage is especially acute.
Market Restraining Factors
High Initial Investment and Ownership Costs
As one of the most influential restraint limiting the widespread adoption of agricultural spraying equipment, the high investment required for the procurement and deployment of the agricultural spraying equipment poses a serious restraint in its widespread adoption across the regions. Though with the advancement of the technology which further cut down the costs, still the level of investment is substantial for the small and marginal farmers representing the majority share in developing countries. For instance, the self-propelled boom sprayers, drone sprayers and autonomous robotic units may cost thousands to tens of thousands of dollars. Additionally, the incremental costs related to the base machine accessories, fuel and other modifications etc further makes the condition more challenging.
Farm Size Outlook
Based on Farm Size, the market is segmented into Medium Farms, Large Farms, and Small Farms. The large farms segment procured 31% revenue share in the agriculture spraying equipment market in 2024. These farms usually have a lot of acres to work with, so they need powerful machines that can swiftly and effectively cover large areas. Due to this, big farms are more likely to spend money on new technologies that offer speed, accuracy, and data-driven application methods, such as self-propelled machines, drone-based sprayers, and autonomous systems.
Capacity Outlook
Based on Capacity, the market is segmented into High Volume, Low Volume, and Ultra-Low Volume.
High Volume Sprayers
Most of the time, large-scale farms employ high-volume sprayers since they can cover a lot of land in one refill cycle. These devices can hold hundreds of liters of fluid, which lets them spray without stopping. They are great for growing maize, wheat, and soybeans since they are strong and fast. They require more chemicals and water, but improvements in precision delivery systems are helping to cut down on overuse. The necessity for operational scale, especially in nations such as the U.S., Brazil, and China, where farming is very mechanized, is the reason that makes them so dominant in the market.
Trend:
Integration of GPS-Guided Variable Rate Application Systems
High volume sprayers are progressively equipped with GPS-based systems and variable rate application (VRA) technologies. Such equipment facilitate the farmers to apply pesticides, fertilizers, or herbicides more proficiently by regulating the flow rate in real time. The deployment of such solution is intended to maximize productivity by reducing operational costs and environmental waste. Such a trend is quite relevant for row crop farming thereby facilitating the quick and uniform coverage of large areas.
Supporting News:
At Colorado’s Commodity Classic (April 2025), John Deere unveiled updates to its sprayers featuring “See & Spray Select variable rate technology and AutoTrac automation,” enabling nozzle-level adjustments based on biomass detected by cameras.
Quote:
“High volume systems are the backbone of large area application—where speed and throughput cannot be compromised.”
— Dr. Elena Marquez, Senior Analyst, Global AgriTech Insights
Low Volume Sprayers
Low-volume sprayers are outstanding for mid-sized farms and specialist crop applications including vineyards, orchards, and vegetable farms since they balance coverage and resource use. They usually use 50 to 200 L/ha of liquid, which gives them enough coverage without using as many resources as high-volume systems. More people are using them because they work well with ecologically friendly activities and stricter rules about how chemicals can be used. Farmers also like them better since they don't have to refill the tank as often, they are easier to move around, and they apply more accurately, which is especially important in areas where over-spraying could cause runoff or damage to crops.
Trend:
Adoption of Smart Nozzle Technology and Section Control
Low volume sprayers are gradually integrating advanced nozzle control systems which can identify target zones, minimize drift, and remove overlapping. These comprise pulse-width modulation (PWM) systems and AI-powered boom section controllers, that permit precise application even in uneven shaped fields.
Supporting News:
The World Ag Expo 2025 featured Ecorobotix’s ARA Ultra-High Precision sprayer, a robotic unit capable of treating individual plants with 95% reductions in chemical use—yet showcasing how cutting-edge tech trickles into low-volume contexts.
Quote:
“Low volume units are evolving into smart delivery systems—precision-focused, environmentally aware, and perfect for targeted application.”
— Priya Singh, Director of Sustainability, AgriWorld Research
Type Outlook
Based on Type, the market is segmented into Self-propelled, Tractor-mounted, Trailed, Aerial, and Handheld. The tractor-mounted segment garnered 25% revenue share in the agriculture spraying equipment market in 2024. The important contribution is the tractor-mounted category, which medium and large farms particularly like. This kind of sprayer is mounted directly to the front or back of a tractor and runs on the tractor's engine. With their versatility, affordability, and ease of use, tractor-mounted sprayers are appropriate for a variety of crops and spraying jobs.
Regional Outlook
Region-wise, the market is analyzed across North America, Europe, Asia Pacific, and LAMEA. The Asia Pacific segment procured 38% revenue share in the agriculture spraying equipment market in 2024. The key reasons for such a significant rise are the large amount of farming that is going on and the growing focus on mechanization in countries like China, India, and Japan. Since the area has a lot of people and food needs are growing, it is now vital to adopt effective and scalable farming methods. Government programs that promote modernization of agriculture, incentives to buy equipment, and a greater knowledge of precision farming are all helping this market sector thrive.
Market Competition and Attributes
The agricultural spraying equipment market is particularly competitive since technology is changing quickly and there is a growing requirement for accuracy, automation, and sustainability. Agile agri-tech entrepreneurs are placing more and more pressure on established machinery makers with their smart, cheap solutions. As competition heats up in different sectors, companies are focusing on innovation, combining services, and adapting to local needs in order to acquire market share and meet a wide range of farming needs.
Recent Strategies Deployed in the Market
- Jun-2025: KUBOTA Corporation and Agtonomy worked together to make self-driving M5N tractors for people who grow specialized crops. This partnership improves spraying and farming operations by automating them, which increases accuracy, labor efficiency, and sustainability. The agreement helps meet the growing need for smart spraying solutions in the agricultural equipment sector.
- May-2025: Deere & Company declared the acquisition of Sentera, a company offering drones and analytics technology, to improve its precision spraying capabilities. The goal of the integration is to improve real-time field reconnaissance, which will help farmers secure their crops better. By merging aerial insights with smart spraying systems, this move makes Deere's digital agriculture products even better.
- Jan-2025: Deere & Company demonstrated an electric tractor that can drive itself and is made for use in orchards and vineyards. The device works with GUSS's air-blast sprayer to allow for accurate spraying without a driver. This new idea helps with methods that save time and are good for the environment, which is a big step forward for specialty crop spraying equipment.
- Aug-2024: AGCO Corporation revealed off new farming tools that focus on innovation that helps farmers. The display features new spraying technologies that improve efficiency and accuracy. These changes show that AGCO is still putting money into agricultural spraying solutions to meet the changing needs of the market for more effective and environmentally friendly farming methods.
- Apr-2024: Trimble and AGCO Corporation worked together to make PTx Trimble. By combining Trimble's GPS with AGCO's machinery, this partnership improves precision agriculture, including spraying technologies. The goal of the project is to improve the efficiency and precision of spraying, which will have a direct effect on the markets for agricultural spraying equipment with next-generation smart solutions.
- Feb-2024: Yamaha Motor Co., Ltd. stated it acquired Robotics Plus, an agri-tech firm based in New Zealand, to improve its ability to automate farming tasks. The move expands Yamaha's portfolio in autonomous spraying and crop-handling systems, which is in line with the growing demand for smart spraying and precision farming equipment in the worldwide agriculture spraying equipment market.
- Deere & Company
- CNH Industrial N.V.
- AGCO Corporation
- KUBOTA Corporation
- Andreas Stihl AG and Co KG
- Buhler Industries Inc.
- Yamaha Motor Co., Ltd.
- ISEKI & Co., Ltd.
- Mahindra & Mahindra Limited (Mahindra Group)
- SZ DJI Technology Co., Ltd.
By Farm Size
- Medium Farms
- Large Farms
- Small Farms
- High Volume
- Low Volume
- Ultra-Low Volume
- Self-propelled
- Tractor-mounted
- Trailed
- Aerial
- Handheld
- North America
- US
- Canada
- Mexico
- Rest of North America
- Europe
- Germany
- UK
- France
- Russia
- Spain
- Italy
- Rest of Europe
- Asia Pacific
- China
- Japan
- India
- South Korea
- Australia
- Malaysia
- Rest of Asia Pacific
- LAMEA
- Brazil
- Argentina
- Egypt
- Kenya
- South Africa
- Nigeria
- Rest of LAMEA
Table of Contents
440 Pages
- Chapter 1. Market Scope & Methodology
- 1.1 Market Definition
- 1.2 Objectives
- 1.3 Market Scope
- 1.4 Segmentation
- 1.4.1 Global Agriculture Spraying Equipment Market, by Farm Size
- 1.4.2 Global Agriculture Spraying Equipment Market, by Capacity
- 1.4.3 Global Agriculture Spraying Equipment Market, by Type
- 1.4.4 Global Agriculture Spraying Equipment Market, by Geography
- 1.5 Methodology for the research
- Chapter 2. Market at a Glance
- 2.1 Key Highlights
- Chapter 3. Market Overview
- 3.1 Introduction
- 3.1.1 Overview
- 3.1.1.1 Market Composition and Scenario
- 3.2 Key Factors Impacting the Market
- 3.2.1 Market Drivers
- 3.2.2 Market Restraints
- 3.2.3 Market Opportunities
- 3.2.4 Market Challenges
- Chapter 4. Market Trends - Agriculture Spraying Equipment Market
- Chapter 5. State of Competition - Agriculture Spraying Equipment Market
- Chapter 6. Key Costumer Criteria - Agriculture Spraying Equipment Market
- Chapter 7. Product Life Cycle (PLC): Agriculture Spraying Equipment Market
- Chapter 8. Market Consolidation Analysis of Agriculture Spraying Equipment Market
- Chapter 9. Competition Analysis - Global
- 9.1 KBV Cardinal Matrix
- 9.2 Recent Industry Wide Strategic Developments
- 9.2.1 Partnerships, Collaborations and Agreements
- 9.2.2 Product Launches and Product Expansions
- 9.2.3 Acquisition and Mergers
- 9.3 Top Winning Strategies
- 9.3.1 Key Leading Strategies: Percentage Distribution (2021-2025)
- 9.3.2 Key Strategic Move: (Product Launches and Product Expansions: 2022, Jul – 2025, Jun) Leading Players
- 9.4 Porter Five Forces Analysis
- Chapter 10. Value Chain Analysis of Agriculture Spraying Equipment Market
- 10.1 Inbound Logistics
- 10.2 Operations
- 10.3 Outbound Logistics
- 10.4 Marketing and Sales
- 10.5 Services
- Chapter 11. Global Agriculture Spraying Equipment Market by Farm Size
- 11.1 Global Medium Farms Market by Region
- 11.2 Global Large Farms Market by Region
- 11.3 Global Small Farms Market by Region
- Chapter 12. Global Agriculture Spraying Equipment Market by Capacity
- 12.1 Global High Volume Market by Region
- 12.2 Global Low Volume Market by Region
- 12.3 Global Ultra-Low Volume Market by Region
- Chapter 13. Global Agriculture Spraying Equipment Market by Type
- 13.1 Global Self-propelled Market by Region
- 13.2 Global Tractor-mounted Market by Region
- 13.3 Global Trailed Market by Region
- 13.4 Global Aerial Market by Region
- 13.5 Global Handheld Market by Region
- Chapter 14. Global Agriculture Spraying Equipment Market by Region
- 14.1 North America Agriculture Spraying Equipment Market
- 14.2 Key Factors Impacting the Market
- 14.2.1 Market Drivers
- 14.2.2 Market Restraints
- 14.2.3 Market Opportunities
- 14.2.4 Market Challenges
- 14.2.5 North America Agriculture Spraying Equipment Market by Farm Size
- 14.2.5.1 North America Medium Farms Market by Country
- 14.2.5.2 North America Large Farms Market by Country
- 14.2.5.3 North America Small Farms Market by Country
- 14.2.6 North America Agriculture Spraying Equipment Market by Capacity
- 14.2.6.1 North America High Volume Market by Country
- 14.2.6.2 North America Low Volume Market by Country
- 14.2.6.3 North America Ultra-Low Volume Market by Country
- 14.2.7 North America Agriculture Spraying Equipment Market by Type
- 14.2.7.1 North America Self-propelled Market by Country
- 14.2.7.2 North America Tractor-mounted Market by Country
- 14.2.7.3 North America Trailed Market by Country
- 14.2.7.4 North America Aerial Market by Country
- 14.2.7.5 North America Handheld Market by Country
- 14.2.8 North America Agriculture Spraying Equipment Market by Country
- 14.2.8.1 US Agriculture Spraying Equipment Market
- 14.2.8.1.1 US Agriculture Spraying Equipment Market by Farm Size
- 14.2.8.1.2 US Agriculture Spraying Equipment Market by Capacity
- 14.2.8.1.3 US Agriculture Spraying Equipment Market by Type
- 14.2.8.2 Canada Agriculture Spraying Equipment Market
- 14.2.8.2.1 Canada Agriculture Spraying Equipment Market by Farm Size
- 14.2.8.2.2 Canada Agriculture Spraying Equipment Market by Capacity
- 14.2.8.2.3 Canada Agriculture Spraying Equipment Market by Type
- 14.2.8.3 Mexico Agriculture Spraying Equipment Market
- 14.2.8.3.1 Mexico Agriculture Spraying Equipment Market by Farm Size
- 14.2.8.3.2 Mexico Agriculture Spraying Equipment Market by Capacity
- 14.2.8.3.3 Mexico Agriculture Spraying Equipment Market by Type
- 14.2.8.4 Rest of North America Agriculture Spraying Equipment Market
- 14.2.8.4.1 Rest of North America Agriculture Spraying Equipment Market by Farm Size
- 14.2.8.4.2 Rest of North America Agriculture Spraying Equipment Market by Capacity
- 14.2.8.4.3 Rest of North America Agriculture Spraying Equipment Market by Type
- 14.3 Europe Agriculture Spraying Equipment Market
- 14.4 Key Factors Impacting the Market
- 14.4.1 Market Drivers
- 14.4.2 Market Restraints
- 14.4.3 Market Opportunities
- 14.4.4 Market Challenges
- 14.4.5 Europe Agriculture Spraying Equipment Market by Farm Size
- 14.4.5.1 Europe Medium Farms Market by Country
- 14.4.5.2 Europe Large Farms Market by Country
- 14.4.5.3 Europe Small Farms Market by Country
- 14.4.6 Europe Agriculture Spraying Equipment Market by Capacity
- 14.4.6.1 Europe High Volume Market by Country
- 14.4.6.2 Europe Low Volume Market by Country
- 14.4.6.3 Europe Ultra-Low Volume Market by Country
- 14.4.7 Europe Agriculture Spraying Equipment Market by Type
- 14.4.7.1 Europe Self-propelled Market by Country
- 14.4.7.2 Europe Tractor-mounted Market by Country
- 14.4.7.3 Europe Trailed Market by Country
- 14.4.7.4 Europe Aerial Market by Country
- 14.4.7.5 Europe Handheld Market by Country
- 14.4.8 Europe Agriculture Spraying Equipment Market by Country
- 14.4.8.1 Germany Agriculture Spraying Equipment Market
- 14.4.8.1.1 Germany Agriculture Spraying Equipment Market by Farm Size
- 14.4.8.1.2 Germany Agriculture Spraying Equipment Market by Capacity
- 14.4.8.1.3 Germany Agriculture Spraying Equipment Market by Type
- 14.4.8.2 France Agriculture Spraying Equipment Market
- 14.4.8.2.1 France Agriculture Spraying Equipment Market by Farm Size
- 14.4.8.2.2 France Agriculture Spraying Equipment Market by Capacity
- 14.4.8.2.3 France Agriculture Spraying Equipment Market by Type
- 14.4.8.3 UK Agriculture Spraying Equipment Market
- 14.4.8.3.1 UK Agriculture Spraying Equipment Market by Farm Size
- 14.4.8.3.2 UK Agriculture Spraying Equipment Market by Capacity
- 14.4.8.3.3 UK Agriculture Spraying Equipment Market by Type
- 14.4.8.4 Russia Agriculture Spraying Equipment Market
- 14.4.8.4.1 Russia Agriculture Spraying Equipment Market by Farm Size
- 14.4.8.4.2 Russia Agriculture Spraying Equipment Market by Capacity
- 14.4.8.4.3 Russia Agriculture Spraying Equipment Market by Type
- 14.4.8.5 Spain Agriculture Spraying Equipment Market
- 14.4.8.5.1 Spain Agriculture Spraying Equipment Market by Farm Size
- 14.4.8.5.2 Spain Agriculture Spraying Equipment Market by Capacity
- 14.4.8.5.3 Spain Agriculture Spraying Equipment Market by Type
- 14.4.8.6 Italy Agriculture Spraying Equipment Market
- 14.4.8.6.1 Italy Agriculture Spraying Equipment Market by Farm Size
- 14.4.8.6.2 Italy Agriculture Spraying Equipment Market by Capacity
- 14.4.8.6.3 Italy Agriculture Spraying Equipment Market by Type
- 14.4.8.7 Rest of Europe Agriculture Spraying Equipment Market
- 14.4.8.7.1 Rest of Europe Agriculture Spraying Equipment Market by Farm Size
- 14.4.8.7.2 Rest of Europe Agriculture Spraying Equipment Market by Capacity
- 14.4.8.7.3 Rest of Europe Agriculture Spraying Equipment Market by Type
- 14.5 Asia Pacific Agriculture Spraying Equipment Market
- 14.6 Key Factors Impacting the Market
- 14.6.1 Market Drivers
- 14.6.2 Market
- 14.6.3 Restraints
- 14.6.4 Market Opportunities
- 14.6.5 Market Challenges
- 14.6.6 Asia Pacific Agriculture Spraying Equipment Market by Farm Size
- 14.6.6.1 Asia Pacific Medium Farms Market by Country
- 14.6.6.2 Asia Pacific Large Farms Market by Country
- 14.6.6.3 Asia Pacific Small Farms Market by Country
- 14.6.7 Asia Pacific Agriculture Spraying Equipment Market by Capacity
- 14.6.7.1 Asia Pacific High Volume Market by Country
- 14.6.7.2 Asia Pacific Low Volume Market by Country
- 14.6.7.3 Asia Pacific Ultra-Low Volume Market by Country
- 14.6.8 Asia Pacific Agriculture Spraying Equipment Market by Type
- 14.6.8.1 Asia Pacific Self-propelled Market by Country
- 14.6.8.2 Asia Pacific Tractor-mounted Market by Country
- 14.6.8.3 Asia Pacific Trailed Market by Country
- 14.6.8.4 Asia Pacific Aerial Market by Country
- 14.6.8.5 Asia Pacific Handheld Market by Country
- 14.6.9 Asia Pacific Agriculture Spraying Equipment Market by Country
- 14.6.9.1 China Agriculture Spraying Equipment Market
- 14.6.9.1.1 China Agriculture Spraying Equipment Market by Farm Size
- 14.6.9.1.2 China Agriculture Spraying Equipment Market by Capacity
- 14.6.9.1.3 China Agriculture Spraying Equipment Market by Type
- 14.6.9.2 Japan Agriculture Spraying Equipment Market
- 14.6.9.2.1 Japan Agriculture Spraying Equipment Market by Farm Size
- 14.6.9.2.2 Japan Agriculture Spraying Equipment Market by Capacity
- 14.6.9.2.3 Japan Agriculture Spraying Equipment Market by Type
- 14.6.9.3 India Agriculture Spraying Equipment Market
- 14.6.9.3.1 India Agriculture Spraying Equipment Market by Farm Size
- 14.6.9.3.2 India Agriculture Spraying Equipment Market by Capacity
- 14.6.9.3.3 India Agriculture Spraying Equipment Market by Type
- 14.6.9.4 South Korea Agriculture Spraying Equipment Market
- 14.6.9.4.1 South Korea Agriculture Spraying Equipment Market by Farm Size
- 14.6.9.4.2 South Korea Agriculture Spraying Equipment Market by Capacity
- 14.6.9.4.3 South Korea Agriculture Spraying Equipment Market by Type
- 14.6.9.5 Australia Agriculture Spraying Equipment Market
- 14.6.9.5.1 Australia Agriculture Spraying Equipment Market by Farm Size
- 14.6.9.5.2 Australia Agriculture Spraying Equipment Market by Capacity
- 14.6.9.5.3 Australia Agriculture Spraying Equipment Market by Type
- 14.6.9.6 Malaysia Agriculture Spraying Equipment Market
- 14.6.9.6.1 Malaysia Agriculture Spraying Equipment Market by Farm Size
- 14.6.9.6.2 Malaysia Agriculture Spraying Equipment Market by Capacity
- 14.6.9.6.3 Malaysia Agriculture Spraying Equipment Market by Type
- 14.6.9.7 Rest of Asia Pacific Agriculture Spraying Equipment Market
- 14.6.9.7.1 Rest of Asia Pacific Agriculture Spraying Equipment Market by Farm Size
- 14.6.9.7.2 Rest of Asia Pacific Agriculture Spraying Equipment Market by Capacity
- 14.6.9.7.3 Rest of Asia Pacific Agriculture Spraying Equipment Market by Type
- 14.7 LAMEA Agriculture Spraying Equipment Market
- 14.8 Key Factors Impacting the Market
- 14.8.1 Market Drivers
- 14.8.2 Market Restraints
- 14.8.3 Market Opportunities
- 14.8.4 Market Challenges
- 14.8.5 LAMEA Agriculture Spraying Equipment Market by Farm Size
- 14.8.5.1 LAMEA Medium Farms Market by Country
- 14.8.5.2 LAMEA Large Farms Market by Country
- 14.8.5.3 LAMEA Small Farms Market by Country
- 14.8.6 LAMEA Agriculture Spraying Equipment Market by Capacity
- 14.8.6.1 LAMEA High Volume Market by Country
- 14.8.6.2 LAMEA Low Volume Market by Country
- 14.8.6.3 LAMEA Ultra-Low Volume Market by Country
- 14.8.7 LAMEA Agriculture Spraying Equipment Market by Type
- 14.8.7.1 LAMEA Self-propelled Market by Country
- 14.8.7.2 LAMEA Tractor-mounted Market by Country
- 14.8.7.3 LAMEA Trailed Market by Country
- 14.8.7.4 LAMEA Aerial Market by Country
- 14.8.7.5 LAMEA Handheld Market by Country
- 14.8.8 LAMEA Agriculture Spraying Equipment Market by Country
- 14.8.8.1 Brazil Agriculture Spraying Equipment Market
- 14.8.8.1.1 Brazil Agriculture Spraying Equipment Market by Farm Size
- 14.8.8.1.2 Brazil Agriculture Spraying Equipment Market by Capacity
- 14.8.8.1.3 Brazil Agriculture Spraying Equipment Market by Type
- 14.8.8.2 Argentina Agriculture Spraying Equipment Market
- 14.8.8.2.1 Argentina Agriculture Spraying Equipment Market by Farm Size
- 14.8.8.2.2 Argentina Agriculture Spraying Equipment Market by Capacity
- 14.8.8.2.3 Argentina Agriculture Spraying Equipment Market by Type
- 14.8.8.3 Egypt Agriculture Spraying Equipment Market
- 14.8.8.3.1 Egypt Agriculture Spraying Equipment Market by Farm Size
- 14.8.8.3.2 Egypt Agriculture Spraying Equipment Market by Capacity
- 14.8.8.3.3 Egypt Agriculture Spraying Equipment Market by Type
- 14.8.8.4 Kenya Agriculture Spraying Equipment Market
- 14.8.8.4.1 Kenya Agriculture Spraying Equipment Market by Farm Size
- 14.8.8.4.2 Kenya Agriculture Spraying Equipment Market by Capacity
- 14.8.8.4.3 Kenya Agriculture Spraying Equipment Market by Type
- 14.8.8.5 South Africa Agriculture Spraying Equipment Market
- 14.8.8.5.1 South Africa Agriculture Spraying Equipment Market by Farm Size
- 14.8.8.5.2 South Africa Agriculture Spraying Equipment Market by Capacity
- 14.8.8.5.3 South Africa Agriculture Spraying Equipment Market by Type
- 14.8.8.6 Nigeria Agriculture Spraying Equipment Market
- 14.8.8.6.1 Nigeria Agriculture Spraying Equipment Market by Farm Size
- 14.8.8.6.2 Nigeria Agriculture Spraying Equipment Market by Capacity
- 14.8.8.6.3 Nigeria Agriculture Spraying Equipment Market by Type
- 14.8.8.7 Rest of LAMEA Agriculture Spraying Equipment Market
- 14.8.8.7.1 Rest of LAMEA Agriculture Spraying Equipment Market by Farm Size
- 14.8.8.7.2 Rest of LAMEA Agriculture Spraying Equipment Market by Capacity
- 14.8.8.7.3 Rest of LAMEA Agriculture Spraying Equipment Market by Type
- Chapter 15. Company Profiles
- 15.1 Deere & Company
- 15.1.1 Company Overview
- 15.1.2 Financial Analysis
- 15.1.3 Segmental and Regional Analysis
- 15.1.4 Research & Development Expenses
- 15.1.5 Recent strategies and developments:
- 15.1.5.1 Product Launches and Product Expansions:
- 15.1.5.2 Acquisition and Mergers:
- 15.1.6 SWOT Analysis
- 15.2 CNH Industrial N.V
- 15.2.1 Company Overview
- 15.2.2 Financial Analysis
- 15.2.3 Regional & Segmental Analysis
- 15.2.4 Research & Development Expenses
- 15.2.5 Recent strategies and developments:
- 15.2.5.1 Partnerships, Collaborations, and Agreements:
- 15.2.5.2 Product Launches and Product Expansions:
- 15.2.6 SWOT Analysis
- 15.3 AGCO Corporation
- 15.3.1 Company Overview
- 15.3.2 Financial Analysis
- 15.3.3 Segmental Analysis
- 15.3.4 Research & Development Expenses
- 15.3.5 Recent strategies and developments:
- 15.3.5.1 Partnerships, Collaborations, and Agreements:
- 15.3.5.2 Product Launches and Product Expansions:
- 15.3.6 SWOT Analysis
- 15.4 KUBOTA Corporation
- 15.4.1 Company Overview
- 15.4.2 Financial Analysis
- 15.4.3 Segmental and Regional Analysis
- 15.4.4 Research & Development Expenses
- 15.4.5 Recent strategies and developments:
- 15.4.5.1 Partnerships, Collaborations, and Agreements:
- 15.4.5.2 Product Launches and Product Expansions:
- 15.4.6 SWOT Analysis
- 15.5 Andreas Stihl AG & Co. KG
- 15.5.1 Company Overview
- 15.6 Buhler Industries Inc.
- 15.6.1 Company Overview
- 15.7 Yamaha Motor Co., Ltd.
- 15.7.1 Company Overview
- 15.7.2 Financial Analysis
- 15.7.3 Segmental and Regional Analysis
- 15.7.4 Research & Development Expense
- 15.7.5 Recent strategies and developments:
- 15.7.5.1 Product Launches and Product Expansions:
- 15.7.5.2 Acquisition and Mergers:
- 15.8 ISEKI & Co., Ltd.
- 15.8.1 Company Overview
- 15.8.2 Financial Analysis
- 15.9 Mahindra & Mahindra Limited (Mahindra Group)
- 15.9.1 Company Overview
- 15.9.2 Financial Analysis
- 15.9.3 Segmental and Regional Analysis
- 15.9.4 Research & Development Expense
- 15.9.5 Recent strategies and developments:
- 15.9.5.1 Product Launches and Product Expansions:
- 15.9.6 SWOT Analysis
- 15.10. SZ DJI Technology Co., Ltd.
- 15.10.1 Company Overview
- Chapter 16. Winning Imperatives of Agriculture Spraying Equipment Market
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