Summary

Global Agriculture Robots Market Research Report Information By Type (Single-Functioned Agriculture Robots {Weeding, Seeding, Spraying, Harvesting, Others}, By others - single-functioned agriculture robots type {Cultivating, Plowing, Tilling, Spreading, Others}), Multi-Functioned Agriculture Robots{Seeding-Weeding-Fertilizing, Seeding-Watering-Fertilizing-Weeding-Monitoring, Field Analysis-Soil Levelling-Soil Moisture Analysis), By Region( US, Europe, Australia,  South Korea) –Industry Forecast Till 2032

Market Synopsis
In 2023, the market for agricultural robots was estimated to be worth USD 3165.5 million. The industry for agricultural robots is expected to develop at a compound annual growth rate (CAGR) of 15.81% between 2024 and 2032, from USD 3665.6 million in 2024 to USD 11,859.7 million.
The need for sustainable agricultural methods, labor shortages, and the growing requirement for precision farming have all contributed to a notable growth in the global market for agricultural robots in recent years. Often referred to as agribots or agri-robots, agricultural robots are a revolutionary technical advancement that incorporate automation and robotics into a range of farming operations. These robots are made to work with greater accuracy and efficiency than conventional farming techniques, carrying out duties including planting, harvesting, weeding, applying pesticides, and keeping an eye on crop conditions.


The goal of increasing productivity, lowering labor dependency, and lessening the environmental impact of conventional farming is at the core of the agricultural robot business. These robots gather and process field data by utilizing cutting-edge technology such as artificial intelligence (AI), machine learning, and the Internet of Things (IoT). They are able to make judgments in real time, maximizing resource consumption and reducing waste, thanks to the integration of sensors and cameras. The market for agricultural robots includes a wide range of robot types, such as robotic arms for delicate jobs like fruit picking and autonomous tractors and unmanned aerial aircraft (UAVs) for crop monitoring. Because of this, the market offers a wide variety of applications that address various phases of the agricultural value chain.
IoT, on the other hand, makes it easier for devices to connect to one another and allows for real-time data sharing. This connectivity facilitates smooth communication between various robotic systems, as well as between agricultural robots and other farm equipment and central control systems. For example, the robots' sensors can gather information about the weather, crop health, and soil conditions, which is then sent to a central system. In order to make well-informed judgments, AI algorithms analyze this data. Examples of these decisions include determining and treating crop diseases, optimizing planting patterns, and varying the amount of irrigation or pesticide application.


insights on market segments
The market for agricultural robots has been divided into two categories based on type: single-function and multi-function robots.
They are further divided into two categories: single-function agriculture robots and cultivating, plowing, tilling, spreading, and others. The former category includes Weeding, Seeding, Spraying, Harvesting, and Others. Additionally, Seeding-Watering-Fertilizing-Weeding-Monitoring, Field Analysis-Soil Leveling-Soil Moisture Analysis, and Seeding-Weeding-Fertilizing are the categories into which Multi-Functioned Agriculture Robots are separated.

Regional Perspectives

The report offers market insights by region for the US, Europe, Australia, and South Korea. In 2022, Europe will have the largest market share (57.1%), with the US having the second-highest share. Looking more closely at the reasons behind the need for agricultural robots in various nations, the need to address manpower shortages is what is driving Germany's adoption. The country's determination to converting its agriculture sector into a technologically advanced and sustainable industry is seen in the incorporation of innovative technologies like robotic harvesters and autonomous tractors.

Applications for precision agriculture, a significant segment of the US agricultural robots market, are expanding rapidly. Farmers can monitor and manage their fields with extreme precision thanks to drones and autonomous vehicles equipped with sensors and GPS technology. This maximizes resource usage and reduces costs. Farmers are able to make better decisions based on up-to-date information when data analytics and artificial intelligence are integrated.

Due to the country's large size and sparse population, connection issues are impeding the adoption of agricultural robots and autonomous tractors in Australia. The employment of smaller, autonomous machines is seen as a solution as the farming industry struggles with a lack of workers and the need to lower input costs through precision agriculture.

Robotics and autonomous tractors have been connected across various Australian farm enterprises thanks in large part to Connected Farms.

Principal Players

XMACHINES, FFRobotics, Naïo Technologies, Nexus Robotics, Ecorobotix SA, ROBOTICS PLUS, Automato Robotics, Advanced Farms Technologies, Inc., AgXeed B.V., Agrobot, Korechi Innovations, and FarmDroid are some of the major players that have contributed to the expansion of the industry.

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Table of Contents

TABLE OF CONTENTS
1 EXECUTIVE SUMMARY 13
1.1 GLOBAL AGRICULTURAL ROBOTS MARKET, BY TYPE 15
1.2 GLOBAL AGRICULTURAL ROBOTS MARKET, BY REGION 15
2 MARKET INTRODUCTION 16
2.1 DEFINITION 16
2.2 SCOPE OF THE STUDY 16
2.3 MARKET STRUCTURE 17
2.4 KEY BUYING CRITERIA 17
3 RESEARCH METHODOLOGY 18
3.1 RESEARCH PROCESS 18
3.2 PRIMARY RESEARCH 19
3.3 SECONDARY RESEARCH 20
3.4 MARKET SIZE ESTIMATION 20
3.5 TOP DOWN & BOTTOM-UP APPROACH 21
3.6 FORECAST MODEL 22
3.7 LIST OF ASSUMPTIONS 23
4 MARKET DYNAMICS 24
4.1 INTRODUCTION 24
4.2 DRIVERS 25
4.2.1 INCREASING SCARCITY OF FARM LABOR DRIVES DEMAND FOR AUTOMATION 25
4.2.2 GROWING NEED FOR PRECISE FARMING PRACTICES BOOSTS ROBOTIC ADOPTION 26
4.2.3 RISING FOCUS ON OVERALL COST REDUCTION 27
4.2.4 DRIVERS IMPACT ANALYSIS 27
4.3 RESTRAINTS 28
4.3.1 IMPLEMENTATION COSTS DETER ADOPTION FOR SMALLER FARMS 28
4.3.2 LIMITED COMPATIBILITY WITH EXISTING FARMING INFRASTRUCTURE AND EQUIPMENT 28
4.3.3 RESTRAINTS IMPACT ANALYSIS 29
4.4 OPPORTUNITIES 29
4.4.1 INTEGRATION OF AI AND IOT IN AGRICULTURE BOOSTING ROBOTIC TECHNOLOGY 29
4.5 IMPACT OF COVID-19 ON GLOBAL ECONOMY 30
4.6 IMPACT OF COVID-19 ON THE GLOBAL AGRICULTURAL ROBOTS MARKET 30
5 MARKET FACTOR ANALYSIS 32
5.1 SUPPLY/VALUE CHAIN ANALYSIS 32
5.1.1 RESEARCH AND DEVELOPMENT (R&D) 32
5.1.2 PRODUCT DEVELOPMENT 33
5.1.3 SYSTEM INTEGRATIONS 33
5.1.4 DISTRIBUTION AND LOGISTICS 34
5.1.5 END-USE 34
5.2 PORTER’S FIVE FORCES MODEL 35
5.2.1 THREAT OF NEW ENTRANTS 36
5.2.2 BARGAINING POWER OF SUPPLIERS 36
5.2.3 BARGAINING POWER OF BUYERS 36
5.2.4 THREAT OF SUBSTITUTES 36
5.2.5 INTENSITY OF RIVALRY 37
6 GLOBAL AGRICULTURAL ROBOTS MARKET, BY TYPE 38
6.1 OVERVIEW 38
6.2 GLOBAL AGRICULTURAL ROBOTS MARKET SIZE, MARKET ESTIMATES & FORECAST BY TYPE, 2024-2032 40
6.2.1 GLOBAL AGRICULTURAL ROBOTS MARKET SIZE: MARKET ESTIMATES & FORECAST BY TYPE, 2024-2032 40
7 GLOBAL AGRICULTURAL ROBOTS MARKET, BY REGION 42
7.1 OVERVIEW 42
7.2 US 43
7.3 EUROPE 46
7.3.1 GERMANY 49
7.3.2 UK 50
7.3.3 FRANCE 52
7.3.4 PORTUGAL 53
7.3.5 NETHERLANDS 54
7.3.6 ITALY 56
7.3.7 REST OF EUROPE 57
7.4 AUSTRALIA 59
7.5 SOUTH KOREA 62
8 COMPETITIVE LANDSCAPE 65
8.1 COMPETITIVE OVERVIEW 65
8.2 COMPETITIVE BENCHMARKING 65
8.3 MAJOR PLAYERS IN THE GLOBAL AGRICULTURAL ROBOTS MARKET 66
9 COMPANY PROFILES 67
9.1 XMACHINES 67
9.1.1 COMPANY OVERVIEW 67
9.1.2 FINANCIAL OVERVIEW 67
9.1.3 PRODUCTS OFFERED 67
9.1.4 KEY DEVELOPMENTS 67
9.1.5 SWOT ANALYSIS 68
9.1.6 KEY STRATEGIES 68
9.2 FFROBOTICS 69
9.2.1 COMPANY OVERVIEW 69
9.2.2 FINANCIAL OVERVIEW 69
9.2.3 PRODUCTS OFFERED 69
9.2.4 KEY DEVELOPMENTS 69
9.2.5 SWOT ANALYSIS 70
9.2.6 KEY STRATEGIES 70
9.3 NAÏO TECHNOLOGIES 71
9.3.1 COMPANY OVERVIEW 71
9.3.2 FINANCIAL OVERVIEW 71
9.3.3 PRODUCTS OFFERED 71
9.3.4 KEY DEVELOPMENTS 71
9.3.5 SWOT ANALYSIS 72
9.3.6 KEY STRATEGIES 72
9.4 NEXUS ROBOTICS 73
9.4.1 COMPANY OVERVIEW 73
9.4.2 FINANCIAL OVERVIEW 73
9.4.3 PRODUCTS/SERVICES OFFERED 73
9.4.4 KEY DEVELOPMENTS 73
9.4.5 SWOT ANALYSIS 74
9.4.6 KEY STRATEGIES 74
9.5 ECOROBOTIX SA 75
9.5.1 COMPANY OVERVIEW 75
9.5.2 FINANCIAL OVERVIEW 75
9.5.3 PRODUCTS/SERVICES OFFERED 75
9.5.4 KEY DEVELOPMENTS 75
9.5.5 SWOT ANALYSIS 76
9.5.6 KEY STRATEGIES 76
9.6 ROBOTICS PLUS 77
9.6.1 COMPANY OVERVIEW 77
9.6.2 FINANCIAL OVERVIEW 77
9.6.3 PRODUCTS/SERVICES OFFERED 77
9.6.4 KEY DEVELOPMENTS 78
9.6.5 SWOT ANALYSIS 78
9.6.6 KEY STRATEGIES 79
9.7 AUTOMATO ROBOTICS 80
9.7.1 COMPANY OVERVIEW 80
9.7.2 FINANCIAL OVERVIEW 80
9.7.3 PRODUCTS/SERVICES OFFERED 80
9.7.4 KEY DEVELOPMENTS 80
9.7.5 SWOT ANALYSIS 81
9.7.6 KEY STRATEGIES 81
9.8 ADVANCED FARMS TECHNOLOGIES, INC. 82
9.8.1 COMPANY OVERVIEW 82
9.8.2 FINANCIAL OVERVIEW 82
9.8.3 PRODUCTS/SERVICES OFFERED 82
9.8.4 KEY DEVELOPMENTS 82
9.8.5 SWOT ANALYSIS 83
9.8.6 KEY STRATEGIES 83
9.9 AGXEED B.V. 84
9.9.1 COMPANY OVERVIEW 84
9.9.2 FINANCIAL OVERVIEW 84
9.9.3 PRODUCTS OFFERED 84
9.9.4 KEY DEVELOPMENTS 84
9.9.5 SWOT ANALYSIS 85
9.9.6 KEY STRATEGIES 85
9.10 AGROBOT 86
9.10.1 COMPANY OVERVIEW 86
9.10.2 FINANCIAL OVERVIEW 86
9.10.3 PRODUCTS OFFERED 86
9.10.4 KEY DEVELOPMENTS 86
9.10.5 SWOT ANALYSIS 87
9.10.6 KEY STRATEGIES 87
9.11 KORECHI INNOVATIONS 88
9.11.1 COMPANY OVERVIEW 88
9.11.2 FINANCIAL OVERVIEW 88
9.11.3 PRODUCTS OFFERED 88
9.11.4 KEY DEVELOPMENTS 88
9.11.5 SWOT ANALYSIS 89
9.11.6 KEY STRATEGIES 89
9.12 FARMDROID 90
9.12.1 COMPANY OVERVIEW 90
9.12.2 FINANCIAL OVERVIEW 90
9.12.3 PRODUCTS OFFERED 90
9.12.4 KEY DEVELOPMENTS 90
9.12.5 SWOT ANALYSIS 91
9.12.6 KEY STRATEGIES 91