The Association of Equipment Manufacturers (AEM) recently hosted its third agricultural equipment Demo Day for Government of Canada officials. Approximately 100 federal staff, including Assistant Deputy Minister of Agriculture and Agri-Food Canada Tom Rosser, attended the event. The Demo Day featured equipment demonstrations and expert discussions from top manufacturers such as Case IH, John Deere, and Kubota. The event showcased cutting-edge technologies, including precision agriculture spraying tools, automated dairy equipment, and fertilizer applications. These innovations aim to help growers conserve resources and boost operational efficiency. The event was the largest Demo Day to date, with staff from various government agencies, including Agriculture and Agri-Food Canada and Innovation Science Economic Development, in attendance. The Demo Day provided a firsthand look at the future of farming and highlighted the benefits of adopting innovative technologies in the agricultural sector.
Zacks Industry Outlook shines spotlight on CNH Industrial, AGCO, and Lindsay.
The Zacks Manufacturing – Farm Equipment industry is expected to benefit from increased agricultural equipment demand due to a growing population. Companies like CNH Industrial N.V., AGCO Corp., and Lindsay Corp. are well-poised to benefit from this demand. The industry is investing heavily in technology, including precision agriculture and automation, to improve farming efficiency. Despite current weaknesses in commodity prices, agricultural equipment demand will be supported by global food demand and government subsidies for machinery purchases.
The industry has outperformed the broader market over the past 12 months, with a 29.8% growth rate. Companies like AGCO, Lindsay, and CNH Industrial have implemented pricing and cost-reduction actions to sustain margins. AGCO has gained 25.9% in the past year, while Lindsay has gained 13.6%. CNH Industrial has developed state-of-the-art agricultural products and is advancing in automation and digital technology. The industry’s forward EV/EBITDA ratio is 50.53X, indicating bright prospects for the near term. The Zacks Industry Rank #104 suggests that the industry will outperform the broader market.
Expanded Indoor Farming Operations : controlled environment agriculture
80 Acres Farms and Soli Organic have merged to form a larger entity under the 80 Acres Farms name, with anticipated first-year revenue of nearly $200 million. The merger combines 80 Acres Farms’ proprietary GroLoop technology, which uses automation, AI, and environmental controls for precision farming, with Soli Organic’s extensive retail distribution network and 30 years of expertise in organic agronomy. The combined operation will manage a nationwide network of vertical farms, producing millions of pounds of herbs, salad greens, and tomatoes annually for over 17,000 retail locations. The partnership aims to improve supply chain resilience, reduce food waste, and ensure consistent product quality. The merged entity will leverage the strengths of both companies to create a more efficient and sustainable indoor agriculture operation. With a strong focus on technology and expertise, 80 Acres Farms is poised to become a leader in the indoor agriculture industry.
OUAT Celebrates 64th Foundation Day: Governor Calls for Boost in Agripreneurship Efforts
The Odisha University of Agriculture and Technology (OUAT) celebrated its 64th Foundation Day with a call to promote agricultural entrepreneurship. Governor Dr. Hari Babu Kambhampati emphasized the university’s role in driving innovation and economic growth through agriculture-based enterprises. He urged OUAT to create detailed project profiles for various agricultural ventures to empower students and farmers. The Governor highlighted the cultural significance of agriculture and its potential to foster rural economic development. He also emphasized the need for precision agriculture, biotechnology, and sustainable resource management to enhance processing and exports.
Deputy Chief Minister Kanak Vardhan Singh Deo and Minister Gokulananda Mallik also spoke at the event, emphasizing the importance of organic farming and government schemes to support farmers. The ceremony included the felicitation of progressive farmers, students, and staff, and the release of a commemorative booklet. A new Wi-Fi facility was also inaugurated on campus. The event aimed to promote agricultural entrepreneurship and strengthen Odisha’s presence in global markets, aligning with the vision of Atmanirbhar Bharat (Self-Reliant India). OUAT was recognized as a leading nodal center for agricultural startups, having mentored 24 startups.
AGCO to unveil autonomous technology and latest tractor models at Farm Progress 2025 event.
AGCO, a global leader in agricultural machinery and precision ag technology, will showcase its latest innovations at the 2025 Farm Progress Show in Decatur, Illinois. The company will debut new tractors, planters, autonomy solutions, and crop protection technologies across its Fendt, Massey Ferguson, and PTx brands. Media representatives are invited to an exclusive pre-show event to get hands-on access to the new equipment and insights from AGCO leaders.
Fendt will launch a new high-horsepower tractor and planter, while Massey Ferguson will debut the 5M Series tractor. PTx will highlight its autonomy solutions, including the Precision Planting CornerStone planting system and the OutRun autonomous grain cart. AGCO will also showcase its retrofit options for existing equipment, allowing farmers to upgrade their machinery with the latest technology. The company’s booths will feature interactive displays, product demonstrations, and special events, including a Farming Simulator bale stacking challenge. Visitors can learn more about AGCO’s innovative brands and products at the show or by visiting AGCOcorp.com.
Innovations in Philippine Smart Farming for 2025
The Philippines is expected to have over 60% of its farms using AI-powered data platforms for precision agriculture by 2025. Smart farming is transforming the agricultural sector in the Philippines, enhancing yields, reducing costs, and strengthening resilience against climate threats. The use of Internet of Things (IoT) sensors, satellite imaging, drones, Artificial Intelligence (AI), and big data analytics is becoming increasingly popular among farmers. These technologies enable farmers to monitor environmental variables, predict pest outbreaks, and optimize resource allocation.
The Philippine government and private sector are supporting the adoption of smart agriculture through initiatives such as training programs, rural broadband expansion, and affordable sensor kits. Farmonaut, a digital platform, is providing satellite-based monitoring, AI-driven advisory systems, and blockchain traceability to Filipino farmers. The benefits of smart farming include higher crop yields, reduced input costs, and expanded market access. Despite challenges such as digital divide and upfront investment, solutions such as affordable technology bundles and training programs are being implemented to ensure inclusive adoption. By 2025, smart farming is expected to become mainstream in the Philippines, leading to increased productivity, food security, and rural development.
GARVEE.com shines a spotlight on key Precision Ag Equipment Trends in the face of mounting U.S. farming difficulties.
The US farming industry is facing a challenging landscape with a 4% decline in net farm income forecasted for 2024. To stay competitive, farmers are adopting precision agriculture technologies, with 68% of large crop operations using GPS-guided auto-steer and yield-mapping systems. However, smaller farms are opting for budget-friendly solutions such as tractor attachments and mechanical harvest aids. GARVEE.com is positioning itself as a resource for farmers, offering a range of affordable and durable ag-tech implements.
The company tracks demand trends for three-point hitch implements, loader accessories, and field-ready mechanical tools, providing a trusted source for Ag equipment that delivers value and reliability. The US precision-agriculture market is projected to grow to $4.3 billion by 2032, with a compound annual growth rate of 9.5%. GARVEE.com aims to support farmers in making informed decisions by offering practical guidance, curated product ranges, and budget-friendly solutions. By providing access to reliable information and adaptable precision-ag equipment, GARVEE.com helps farmers modernize their operations without compromising financial resilience or environmental stewardship.
World’s first extensive GPS network specifically designed for drone and agricultural use has been launched.
FreshMiners, a Dutch company, is launching a service that provides extra-accurate GPS technology for drone pilots, farmers, and others. The technology, known as RTK corrections, allows users to correct their GPS positions down to the centimeter. This is achieved through a global network of over 19,000 base stations in 140 countries, making it the largest RTK network in the world. The service is essential for applications such as precision agriculture, land surveying, and drone navigation. The demand for accurate positioning is growing rapidly, with 60% of arable farmers in the Netherlands already using precision technologies. The market for precision agriculture is expected to reach €3 billion in 2025, with annual growth of over 10% until 2030. A subscription to the service gives users access to the GEODNET network, providing them with easy and direct access to high-precision GPS correction signals. The company aims to make high-precision GPS available to a wide audience, including farmers, drone pilots, and others who require accurate positioning for their work.
FMC Introduces Mobile App for Pest Control to Enhance Farming Predictability
FMC Corp, an agricultural services company, has launched a mobile app to help farmers determine the best time to apply insecticides, fungicides, and other treatments. The app, which is part of the company’s Arc farm intelligence project, uses data from IoT sensors, insect traps, and historical weather data to predict pest pressure on individual fields. The app currently covers 45 pests and 28 crops across 25 countries, and FMC plans to expand its use to 32 million acres and 35 crops in 2025. The goal of the project is to support sustainable pest management and business scalability by optimizing resource use, reducing costs, and improving decision-making. The app provides farmers with predictive insights and helps them identify growth opportunities and plan expansions. With 6,000 active users already, the app has the potential to make a significant impact on the farming industry. By giving farmers more information about pest control, FMC aims to help them achieve better results and reduce uncertainty.
Scalable Farming Solutions: Projected Trends and Outlook for the Agriculture Drones Market Through 2033
The global agriculture drones market is expected to reach $31,882.58 million by 2033, growing at a CAGR of 27.97% from 2025 to 2033. The market was valued at $2,706.74 million in 2024. AI-powered drones are revolutionizing crop scouting, precision spraying, and farming practices, leading to increased yields and reduced chemical usage. Government initiatives, such as India’s Drone Didi Yojana, are promoting drone adoption among farmers. Key trends in the market include precision farming, autonomous drones, and government support. The market is dominated by hardware, with fixed-wing drones leading the way. Cameras are also a crucial component, providing high-resolution imaging for crop monitoring and mapping. North America is a significant market, driven by its strong technological infrastructure. Leading companies operating in the industry include DJI, Trimble Inc., and AgEagle Aerial Systems Inc. The market is expected to grow due to factors such as surge in precision farming needs, tech advancements, government support, labor shortages, and sustainability concerns. The report provides a comprehensive overview of the market, including regional insights, recent news, and developments.
The Agricultural Vehicle Market is projected to experience rapid growth, with a forecasted Compound Annual Growth Rate (CAGR) of 13.86% between 2024 and 2032.
The Electronic Control Unit (ECU) for Agricultural Vehicle Market is expected to grow from $4.36 billion in 2024 to $12.32 billion by 2032, at a Compound Annual Growth Rate (CAGR) of 13.86%. This growth is driven by the increasing adoption of advanced farming technologies, precision agriculture, and government incentives supporting smart farming. The market is undergoing a rapid transformation with the integration of digital technologies and automation in farming equipment. Key drivers include the adoption of autonomous tractors, GPS-guided systems, and precision planting machinery, as well as the growing demand for fuel efficiency and emissions control. The market is segmented by vehicle type, ECU function, vehicle power, and region, with North America, Europe, and Asia-Pacific being key regions. Key players in the market include Robert Bosch GmbH, Continental AG, and Denso Corporation, among others. The market offers tremendous growth potential over the next decade, driven by the convergence of digital farming technologies, IoT integration, and sustainability regulations.
AGR405 TECHNOLOGY IN PLANTATION :PRECISION AGRICULTURE 2024426162
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and differentiate between type of P third is Target treatment instead of applying pesti side uniformly across the entire field PR agriculture used to like variable ve technology [Music] and automated spray to apply treatment only way P are dicted this reduce pesticide use and lower cost so for the four four is biological control and natural enemies Precision APM can also support the the use of benificial insect or natural vator as data have determine the best time and location to release them so for the last one is remote sensing so how remote changing in agriculture work and involve in agriculture they involve by using satellite drone or airb sensor to collect data about crop and environment without direct physical contact this data help crop have access Sol condition and make more informed decision here how remote Ching work in agriculture first by data collection by by using drone drone will equip with various sensors such as multi spectral hypers spectral and thermal camera can fly over field to capture high resolution image of smaller more and localized area second one is data processing Decor data is process is processed and analyz using specializ software often employing and machine learning to detect pattern and an normalize so with this type technology andion agriculture can of environmental impact best and disase control level shortage and resource efficiency so in Precision agriculture also have advantage and this Advantage so for Advantage is increase efficiency that’s by using data driv inside farmer can optimize input like water fertilizer and pesticide second improve field PR agriculture allow F to monitor crop health and soil condition in real time helping them make inform decision that can lead to better yield and higher quality crop so for the next one is can improve sustainability with better management of resource Precision agriculture can contribute to environmental sustainable by minimize overuse of chemical and the last one is reduce labor requirement Automation and use of AI tool can reduce the amount of Labor required for TAS irrigation fertilization and P management and for the disadvantage is high cost because the technology is very very expensive and Technical complexity there are using ping agriculture tool required a certain level of experience workers and finally limited access in some place because some rural area or de developing area assess the internet or the necessary infrastructure may be limited May making it it difficult to implement PR agriculture effectively in conclusion PR agriculture represent a transformative approach to Modern farming by daging technology to optimize resource use and hand productivity and improve envir environmental sustainability through the use of tool like GPS remote sensing and data analysis farmer can make informed decision that reduce W increase crop and minimize the environmental impact of Agriculture practice as technology continues to evolve prion agriculture has the potential to rev Revolution the industry making food production more efficient sustainable and resilient to challenge such as climate chain however its widespread adoption will depend on overcoming challenge relate to cost accessibility and knowledge this mination to Ure that its benefit are realized across all scale of farming operation thank you [Music]
Construction of Sg Sibiew Precision Farming Park kicks off to propel Sarawak’s agricultural modernisation efforts forward
The groundbreaking ceremony for the 13-hectare Sungai Sebiew Precision Farming Park was held on July 29, 2025, in Bintulu, marking a significant step forward in Sarawak’s efforts to modernize its agriculture sector. Minister of Food Industry, Commodity and Regional Development Dato Sri Dr. Stephen Rundi Utom officiated the ceremony, stating that the park will be a hub for modern agriculture, focusing on precision farming using advanced technologies such as the Internet of Things (IoT). The initiative aims to attract youth participation in the agriculture sector, which is seen as the future of modern agriculture. Dr. Rundi emphasized the importance of quality and sustainability over land size, and expressed hope that the project will surpass similar initiatives. The park is expected to contribute to Sarawak’s digitalization agenda and increase revenue through the export of live animals. The project is a collaboration between the Ministry of Food Industry, Commodity and Regional Development, the Sarawak Department of Agriculture, and the Sarawak Land Development Board.
Dr Rundi: Embracing technology and boosting exports are key to unlocking Sarawak’s agricultural potential.
Sarawak is accelerating its efforts to become a net food exporter through the integration of smart farming and Internet of Things (IoT) technology. The Sungai Sebiew Precision Farming Park, a 13-hectare site, will serve as a model for sustainable and technology-driven agriculture in the state. Minister of Food Industry, Commodity and Regional Development Dato Sri Dr Stephen Rundi Utom emphasized that the focus will be on high-quality production using modern precision farming methods. The park will feature IoT-enabled greenhouses, a nursery, and a command center to monitor and manage farm operations. The project aims to attract youth to agriculture by making it more digital and less labor-intensive. Dr Rundi highlighted the potential for Sarawak to become a hub for net food exports, citing Taiwan as an inspiring model. The project is expected to become a catalyst for future smart agriculture developments in Sarawak, with the goal of reducing the state’s food import-export deficit and generating better revenue.
China’s inaugural autonomous farm sees 20% increase in wheat production thanks to artificial intelligence integration
In China’s Henan province, a 233-hectare farm in Qingfeng county has achieved a milestone by becoming the country’s first fully unmanned wheat-corn rotation farm. The farm, designed by scientists from Henan Agricultural University, uses intelligent drones, driverless harvesters, and precision irrigation systems to achieve a 20% increase in wheat yields. The autonomous technology has reduced harvesting time from seven days to four, labor requirements by 80%, and overall human costs by 40%. The precision irrigation system, which divides the farm into six zones, has reduced irrigation labor by 90% and fertilizer use by 20%. The farm’s success is attributed to the use of China’s domestically developed Beidou navigation satellites, drones, and AI for coordination. The model is designed to be replicable and scalable, with researchers working to refine the technology and reduce costs to facilitate broader adoption across China’s agricultural landscape. The Qingfeng farm is a pioneering example of how technology can transform agriculture, increasing efficiency, sustainability, and yields.
UK Digital Farming Tractor Market Growth 2021-2037 in USD.
The UK smart tractors market is expected to grow from 2021 to 2037 as farmers adopt precision agriculture to increase efficiency and sustainability. Smart tractors equipped with GPS, sensors, and real-time connectivity are becoming essential tools for modern crop management. Leading manufacturers such as John Deere and Claas are introducing smart tractor models tailored to UK farming conditions, featuring auto-guidance, field mapping, and remote diagnostics. Government initiatives and leasing options are supporting the adoption of smart tractors, particularly in regions like East Anglia and the Scottish Lowlands. The key drivers of the market include digital farming adoption, innovation, policy support, and the push towards sustainable food production. Smart tractors help farmers reduce input costs, minimize overlap, and optimize processes, supporting real-time data analysis and smarter use of resources. The market is expected to grow steadily, with Global Data Route Analytics providing research and guidance to businesses in the industry.
Topcon broadens its precision agriculture offerings with the introduction of its Value Line Steering system.
Topcon has launched its Value Line Steering solution, a retrofit autosteer package for front-wheel-steer tractors. The system includes a Global Navigation Satellite System (GNSS) receiver, an electric steering wheel controller, a touchscreen console, and Horizon Lite software. It is designed to be intuitive and user-friendly, with an on-steer keypad for quick access to frequently used functions. The package supports various steering patterns, including straight, curved, and mixed paths, as well as pivot and headland turns.
Installation is straightforward, and the system is compatible with both pre-installed and factory-fitted vehicle components. It is also portable and easy to transfer between vehicles. The system supports GPS, GLONASS, GALILEO, BEIDOU, and QZSS satellite networks, with additional PPP support for RTK subscribers. Prices start at €6,000 (approximately US $7,000). The company plans to add support for Virtual Section Control, used to manage sprayers and seed drills, as a standard feature soon. The Value Line Steering solution is available with 7-inch and 10-inch touchscreen terminals, depending on the region.
The global nano fertilizer market is projected to exceed $12.6 billion in value by 2034.
The global nano fertilizer market is expected to reach $12.6 billion by 2034, growing at a CAGR of 14.5%. Nano-fertilizers combine traditional agricultural methods with nanotechnology to enhance fertilizer efficacy and performance. The increasing global population and demand for food production are driving the market’s growth. Nano-fertilizers provide advantages in nutrient management, improving nutrient use efficiency and reducing environmental pollution. Key players in the market include Indian Farmers Fertilizer Cooperative Limited, EuroChem, and Geolife Group.
The market is driven by the growing demand for sustainable and eco-friendly fertilizers, while inconsistent product performance is a challenge. North America is expected to dominate the market, followed by the Asia-Pacific region. Recent developments, such as EuroChem’s acquisition of Borealis’ nitrogen business, are expected to stimulate innovation and market growth. The market is segmented by raw material, method of application, and application, with nitrogen, spray or foliar, and cereals & grains being the leading segments. InsightAce Analytic provides market research and consulting services to help clients make strategic decisions in the nano fertilizer market.
33 Key Milestones that Shaped the Evolution of Precision Agriculture
Here is a 200-word summary of the major breakthroughs in agricultural history:
Farm Equipment’s updated timeline of ag equipment “firsts” highlights pivotal moments in the evolution of precision agriculture. Key milestones include:
* 1978: Raven introduces the first speed-compensated, automatic rate control system
* 1991: Initial optical sensing research at Oklahoma State University focuses on detecting and spraying weeds
* 1992: Ag Leader releases the first accurate combine yield monitor, and Trimble develops real-time kinematic (RTK) technology
* 1994: The precision age begins with farmers using GPS receivers to determine specific quantities of water, fertilizer, and pesticides
* 1996: John Deere launches its first production-grade GPS receiver, the GreenStar Precision Farming System
* 2006: AutoFarm introduces the first implement steering system based on RTK GPS
* 2010: Remote monitoring appears, enabling real-time data collection and planned maintenance
* 2015: The “digital ag” era begins, allowing for the collection, storage, analysis, and sharing of electronic data
* 2020: Monarch Tractor introduces the world’s first fully electric, driver or driverless optional, smart tractor
* 2021: John Deere introduces its See & Spray Select Technology, allowing farmers to reduce herbicide use by targeting growing weeds.
These breakthroughs have transformed the agricultural industry, increasing efficiency, precision, and sustainability.
Local professionals provide instructional guidance to agribusiness students
Ogeechee Technical College’s Agribusiness program partnered with Blanchard Equipment to provide students with hands-on experience with modern agricultural technology. Industry professionals, including OTC alumni, led an interactive session where students learned about the John Deere 6110R tractor and the GreenStar system, a suite of precision agriculture technologies. The students then had the opportunity to operate the tractor themselves, using the autoTrac feature with GPS-guided steering. Blanchard Equipment also donated a modem to the program, which will allow students to better utilize precision agriculture technologies.
The partnership highlights OTC’s commitment to providing career-focused training that prepares students for the evolving agricultural industry. Agribusiness Instructor Nicholas Cassell expressed gratitude for the partnership, stating that it provides students with valuable experience and insight into modern agricultural technology. The program’s focus on hands-on training and industry partnerships aims to equip students with the skills and knowledge needed to succeed in the agricultural industry. To learn more about the Agribusiness program, visit the Ogeechee Technical College website.
Revolutionizing Farming in Asia: The Emergence of AgriTech Innovations
Agriculture is the backbone of Asia, providing food for 60% of the world’s population. The industry is expected to grow 3.28% by FY25, driven by agriculture technology (AgriTech). AgriTech is transforming traditional farming by introducing precision farming, smart farming, and sustainable practices. Key trends include farm automation, blockchain, vertical farming, smart farming using AI and IoT, and drone-based crop monitoring. These innovations are increasing productivity, reducing labor and water usage, and promoting environmental sustainability.
AgriTech is also addressing environmental concerns by reducing chemical use and cutting food waste. The use of drones, AI, and blockchain is making farming more efficient and transparent. Companies like DiMuto and Sustenir Agriculture are already seeing success with these technologies. The future of agriculture looks promising, with AgriTech expected to grow to $23.16 billion by 2030. The integration of digital methodologies and technological advancements will continue to drive innovation and sustainability in the industry.
Overall, AgriTech is revolutionizing the agricultural sector in Asia, making it more efficient, sustainable, and productive. With the increasing demand for food and the need to address environmental concerns, AgriTech is playing a crucial role in shaping the future of agriculture. The industry is expected to continue growing, driven by innovations and technological advancements, and is likely to have a significant impact on the global food supply chain.
Government accelerates digital agricultural reforms with the introduction of DBT 2.0 and the NaMo Drone Didi portal.
The Ministry of Agriculture and Farmers’ Welfare has launched the Direct Benefit Transfer (DBT) Platform 2.0 and the enhanced NaMo Drone Didi Portal. The DBT Platform 2.0 aims to automate subsidy disbursement, reduce manual errors, and provide real-time tracking and Aadhaar-based verification. The NaMo Drone Didi Portal promotes women’s participation in mechanized agriculture by training women from Self-Help Groups (SHGs) to operate agricultural drones for input spraying. The portal features a real-time drone operation tracker, pilot training and certification modules, and a central dashboard for monitoring performance.
The initiatives aim to streamline service delivery, reduce input misuse, and ensure targeted subsidy reach. The integrated use of drones and real-time DBT monitoring is expected to transform the agricultural ecosystem. The reforms align with national goals to digitize rural development, encourage climate-smart farming, and enable precision agriculture. The Ministry believes that these initiatives will play a pivotal role in shaping the future of smallholder farming in India. The launch of these platforms marks a significant step towards modernizing India’s agricultural governance and promoting technological advancements in the sector.
Market Opportunities for Low-Carbon Precision Agriculture Methods
The global low-carbon agriculture market is expected to reach $1,719.02 million by 2032, growing at a CAGR of 14.76% from 2025-2032. The market involves sustainable farming practices that minimize greenhouse gas emissions, such as precision farming, conservation tillage, and organic farming. Key trends driving the market include rising government incentives, adoption of smart farming technologies, and growing consumer demand for sustainable products. Industry giants such as Yara International, BASF SE, and Bayer AG are investing in low-carbon technologies and practices.
The market is segmented by practice type, offering, crop type, and end-user. Regional analysis covers North America, Europe, Asia-Pacific, South America, and the Middle East & Africa. The report provides a comprehensive analysis of the market, including market trends, competitive landscape, and industry news. DataM Intelligence offers a detailed sample report and customization options for stakeholders to navigate the rapidly evolving marketplace. The company provides market research and consulting services, leveraging trademark trends and insights to deliver business solutions to organizations worldwide.
The global Agricultural Rear Mount Rotary Cutter market is projected to reach USD 12.6 billion by 2032, growing at a CAGR of 2.71% driven by increasing adoption of precision farming techniques.
The Agricultural Rear Mount Rotary Cutter Market is expected to reach $12.6 billion by 2032, growing at a CAGR of 2.71%. The market is driven by the increasing adoption of precision farming technologies, rising demand for efficient land-clearing equipment, and a growing emphasis on agricultural productivity and sustainability. The market is dominated by North America, followed by Europe and Asia-Pacific. Key players in the market include Ardent Companies, Deere and Company, and Alamo Group.
The market is expected to grow due to the increasing demand for precision farming, technological advancements in agricultural machinery, and the expanding use of rotary cutters in diverse agricultural applications. However, challenges such as high initial investment costs and maintenance requirements may limit growth. To overcome these challenges, manufacturers are innovating to make equipment more affordable, serviceable, and accessible. The market is expected to witness steady growth, with emerging economies transitioning from traditional farming methods to more mechanized systems, driving demand for rear mount rotary cutters.
The global Intelligent Irrigation Market is projected to reach USD 41.5 billion by 2032, growing at a CAGR of 9.24%, driven largely by the increasing demand for precision farming practices.
The Intelligent Irrigation Market is projected to reach $41.53 billion by 2032, growing at a CAGR of 9.24%. The market is driven by precision farming, water conservation, and climate resilience. Intelligent irrigation systems leverage sensor technology, satellite data, and automation to optimize water usage, reducing waste and improving crop yields. The adoption of precision agriculture is a key factor driving market demand, with governments and organizations promoting sustainable farming practices.
Technological innovations, such as AI and machine learning, are also accelerating system adoption. The market is expected to play a critical role in global efforts to achieve sustainable agriculture, with a focus on scalable solutions that address productivity and conservation. North America currently leads the market, followed by Europe and Asia-Pacific. The future of intelligent irrigation will be shaped by advancements in data analytics, increased interoperability, and broader integration into farm management platforms. Key players in the market include Hunter Industries, Lindsay, and Toro Company, among others. The market is expected to experience exponential growth, driven by the need for efficient and sustainable irrigation solutions.
Precision Farming through Smart Spraying: 5 Major Advantages
Intelligent spraying in agriculture uses AI, sensors, and automation to target pests, diseases, and weeds, reducing chemical usage by up to 50% and minimizing environmental impact. This technology-driven approach also enhances crop health and yield, increases operational efficiency, and provides advanced data collection and decision support. The benefits of intelligent spraying include reduced chemical usage, environmental sustainability, enhanced crop health and yield, operational efficiency, and advanced data collection.
Key components of intelligent spraying systems include sensors and imaging technologies, artificial intelligence and machine learning, variable rate technology, and automation and robotics. The future of intelligent spraying in agriculture is promising, with ongoing advancements and decreasing costs facilitating wider adoption. Companies like Farmonaut are making precision agriculture more accessible and affordable for farmers, providing real-time satellite crop health data, AI-powered advisory, and resource management tools. Overall, intelligent spraying in agriculture has the potential to transform farm management, making it more efficient, sustainable, and cost-effective. By adopting this technology, farmers can improve crop yields, reduce waste, and contribute to a more sustainable food system.
Soft robots inspired by plants – interview with Isabella Fiorello
Claire chatted to Isabella Fiorello from the University of Freiburg about plant-inspired robots made from living materials. Isabella …
[Music] robot talk is the podcast that sits down with robot enthusiasts from around the world and ask them the questions you always want it answered like is that a robot or a plant and how does that thing work [Music] hello everyone welcome to robot talk I’m your host Claire Asher and this week’s episode is exploring an exciting new area of research that is taking inspiration from Plants to create robots that are soft adaptable and biodegradable before we get started I’d like to remind you that you can send in questions for my future guests and there are a few different ways you can do that you can submit questions on the website at robot talk.org or on patreon at patreon.com slcl aser or you can contact me on social media at robot talkpod so with all that said let’s get on with this week’s interview I recently had a really interesting conversation with Isabella fiell from the University of fryberg about plant inspired robots made from living [Music] materials this week I’m chatting to Isabella fiell a researcher at the University of fryberg working on biologically inspired hybrid materials hi Isabella welcome to robot talk hi Claire so you lead the bioinspired plant hybrid materials group uh where you’re developing new materials for applications in Soft Robotics Precision Agriculture and space exploration so first of all can you explain what a plant hybrid material is so thank you so much for the question actually I start my group here just recently in fror where my group is working on these materials that are not only bio inspired but also bioh hybrid in the sense that this material not only Tak in IR Iration from living organism especially plants in my case but also embed parts of the plants itself in the materials for example I create some materials that have actuation properties thanks to the parts of the plants embedded in the material or for example these materials can have sensing properties respect to the parts that you embed in the material itself so actually we can create materials that have the morphology let’s say the biomechanics of plants and also can be like functionalized to do some specific task like for example moving over the soil like in my last paper um or for example like send some parameters and so on amazing I mean it’s yeah truly quite sci-fi I love it thank you so much how do you go about like embedding parts of a plant into I guess a synthetic material yeah actually in my last paper the one publish in advanced material I create these biohybrid robots which was inspired by aena sterilis which is the common wild o maybe you know it it’s very common you can find everywhere in the field in many different habitats and so my idea was to create artificially the head the capsule of the robots and this I did using different micromanufacturing technique but then I remove some parts from the natural fruits of the plants these parts are calleded owns and there are some parts that thanks to humidity can move uh in different environments so what I did was really to embed these parts in the synthetic materials and so then thanks to this Parts the robots can move on and into the soils because the owns of the natural plants itself can do it so actually the idea was to mimic really the behavior of the plants but also the morphology and the mechanics of the plants and then functionalize the head of the robots with for example in our case with some other seats okay for reforestation applications okay so yeah the it buries itself in the soil right yes exactly you have these robot that can uh move autonomously so don’t need any energy because the energy is embedded in the material itself and can be functionalized uh like I say with other seeds for example or fertilizer and so on and then can move inside for example the soil cracks or irregularities so the robots find autonomously this cracks and then it go inside that and it start to degrade to be us it to deliver something like for example fertilizer as I say or others that’s that’s amazing so yeah completely biodegradable automatic planting or fertilizing of the soil yes exactly it’s fully biodegradable I would say it’s also edible so it’s not affect the biodiversity let’s say because it’s made by a flow material the capsule is totally biodegradable and edible and the owns are taken from the natural plants so actually you don’t have any uh dangerous or toxic materials in the environment that’s really cool um so where do you get your inspiration from do you start with the problem or do you start from like observing the natural world and going oh this is a really cool property what can I do with that yes or a bit of both maybe the idea at the beginning was to create a new actuators inspired by this plans but then after looking at the plants which is this plant I told you AA sterilis which has two interactive sister ownes that actually interact each other they rotate interact and then accumulate elastic energy and then the robots release the energy and the robots can also move by jumping over the soil so this is the moment so what I would really do is to let me say really create a biohybrid system because this was the first hybrid system inspired also by by wild fruid and also the first system that really embed parts of the plant itself and these are dead tissue of the plants so it’s not a living tissue it’s not like you are removing don’t know for example a leaf or something and then the the leaf will of course die know because nutrients and so on but in this case because it’s a dead tissue also if you remove from the plants it’s remain with the properties with the proper functionalities and so I can use it as actuator for the robots and the inspiration I have just really looking at the at the fluids and uh at the beginning I was thinking to do these actuators but then really was too difficult to mimic and so I decided to also embed the part of the plant itself and plus was working so yeah fantastic decide to continue with this yeah I think I’ve spoken to a lot of people who do like bioinspired robotics but usually they are trying to you know copy a mechanism rather than actually embed the once living material into the into the robot itself yeah exactly that’s also the novelty know the of this work that we publish in advanced material yeah I think maybe a lot of listeners might not actually be aware like there’s an awful lot of plants that have different structures that kind of change in response to different conditions like I’m aware of like pine cones which open up to release their seeds and these these structures that sort of essentially sense the environment and then and then respond in somewhere quite quite amazing yeah actually what you say it’s uh perfectly correct because for example also the pine cones can be used for a similar applications actually here in fror there are a lot of peoples also working on this Pine con mechanism and it could be also cool to do a robots that Ed this part I mean because the the field is so new there are also so many applications that can be done in this direction so also my group we are working more on bio inspired of FS but also biohybrid system and for biohybrid I really mean in this moment to embed that issue of plants for example or also in the last period I’m working on some materials which are inspired by plants but that for example also embed some microalga inside okay this I did during my stay at the California Institute of Technology for five month and in this case this material can also for example self heal so like some selfing properties but as like the shape and the morphology of natural plants that’s really cool yeah I haven’t come across anyone else who’s really working in this area is it is it really kind of really new yeah it’s a really new area there are very few people in the world that I mean on this bio hybrid I think really it’s really a new field but there are some group that work on plant inspired structures of course my past supervisor Barbara matai she’s the pioneer of the plant inspired robotics because in ha lab they create for example the first robots inspired by the plant roots that can also grow inside the soil and be use it to monitor different parameters and yeah and now there are also other groups in the world that start working on this yeah I think most of the bioinspired robots I’ve seen before are usually inspired by animals yes yes yes exactly people don’t give plants enough credit for like being really smart and adaptable and responding and and moving and doing all kinds of things that we don’t kind of traditionally think of plants as doing yeah that’s true actually there are a lot of groups that work on animals for example there are robots inspired by the gofit or by the be by the octopus and so on uh but there are uh yeah very few group working on Plants but I will say in the last per there were also a lot of materials especially materials not really robots sometimes it’s just a material that is inspired by the micro structures especially of plants or the internal structure of the plants especially because plants are really important for the biomechanical properties because they they can’t move like animals so they can’t escape the environment in which they grow so they have to ADT to the environments and to do it they develop different biomechanical and morphological properties that can be really interesting for different application in robotics in architecture in space Explorer I mean there are many different application one one project of yours that caught my eye was a a tiny climbing robot um that’s inspired by the hooked leaves of plants um so can you tell us a bit about that yes sure actually this was my PhD project okay and um to do it I took inspiration from a plants which is called garina and this plants are some small micro oops over the leaf what I did was to take inspiration from the morphology and biomechanics of these microbes to create a materials a micro patterned materials which has the same shape of the micro HS of gum aerin and so I created these ades that were um use it for reversible attachment to many different surfaces like for example I tested to textile tissue or skin tissue or also to LIF tissue I actually have also a early career National Geographic Grant on this topic especially the micro oops on the leaf attachment and what we did in my past group was to embed also these micro with sensors to create a multiparameter sensor that can like attach over the upper and lower side of the leaf to monitor remotely different parameters or we did this tiny climbing robots actually we create this sort of mini car where we attach the micro HS and the robots with the micro HS was able to climb but different surface while the robots without was not able to do it that was very funny then I did also some other work connected to to that that’s really cool yeah so it’s kind of the plant version of velcro it’s a sort of velcro but there is a one main difference with velcro because with velcro you have first of all a micro hook that has a different shape and this shape I mean when you have a loop part and a hook part you need a force to detach the two parts yeah instead in my specific case I have um let me say a micro hook that is Direction based so actually you can just remove the micro hook just changing the direction of the applied low so this is very useful for example for application like climbing robots or for example for manipulation applications and also another big difference is that our micro can be used not only to textiles but also over Leaf surface for example and especially in the leaf surface I forgot to say that the microps can not only attach but can also be used to deliver molecules inside the plant vascular tissue right and actually we have also a patent on this technology because was the first technology that can really attach sense and also deliver molecules inside the plant vascular tissue yeah it sounds like there’s probably an lot of applications for that but do you have any specific ones in mind yeah actually I would love that in the future this technology can be used for yeah of course Precision agriculture so especially you can think to use this kind of device for example to treat some disease in plants for example there is Cella fastidiosa that is a very a very dangerous disease for plants and this is inside the FL and the celum of the plants and with the micro hooks you can directly access to the cilum and the FL of the plants and you could directly derive for example some bacter sides inside them to to fight with this kind of disease instead of spraying the pesticides over the cuticle of so for listeners who aren’t familiar the xylm and flum is kind of like the circulatory system of a plant for lack of a better way of explaining it yeah yeah so you’re you’re kind of injecting a medicine into the plant essentially yes exactly it’s like it’s a sort of let’s say micro needle device you know there are this device used especially for skin tissue but in our case we are developing a micro device that is instead to treat plants yeah so you can think to use this technology for something like this or for example also for research purpose if you need that tool to deliver something in a precise way inside the Lea surface yeah yeah so I I just love the idea of like a little robot wandering around the field and then like finding a plant that’s infected and kind of climbing up and injecting it with some medicine that’s that would be really cool yeah yeah at the moment we are a bit far from this but I mean we have some let’s say preliminary encouraging Publications sure yeah I I do tend to get ahead of myself with imagining where this this stuff could go we’ve talked quite a lot about applications in Precision agriculture um you also mentioned space exploration how do you see plant hybrid materials or or bioinspired materials being used in that kind of domain yeah that’s a very nice question actually I really love space applications is one of my main passion let’s say and I would love to apply the technology that I develop the one of the aen aets I mean the biohybrid robots that can move on and into the soil also in space simulants like for example Mars simulants or for example also lunar simulants because you can for example use this kind of robots to increase the fertility of the soil in space right like imagine you have this device that is autonomously moving over of course at the beginning will be a reconstructed space environment but you can like release these robots and these robots can move and plant itself in the soil and you know that we have a big problem of I mean we can’t plant anything in the soil in space at the moment so this can be a first um tool biohybrid tool inspired by plants that can be used to plant plants in space yeah like part of a kind of terraforming project I guess yes something like this yes yes like for a sort of reforestation in Bas scenario yeah when I hear about ideas about how we might colonize another planet obviously the common theme is that we send robots to kind of get things set up for us first yeah um but yeah they rarely talk about robots being able to plant forests for us so that would be cool yeah but is there soil on like Mars or the moon isn’t it just like Dusty yeah yeah I mean there actually I I have now because I bought from a startup so it’s possible to buy this Mars soil simulant so oh and uh I plan to test it in the future yeah I hope also to get some big grants on this so that I will have some people working on Space projects awesome yeah that’s that’s really cool um there any other projects you’d like to talk about yeah I mean the last period I’m working more on um aquatic plants so not only terrestrial plants okay and so I hope in the near future to have a publication on this because we are in the last phase at the moment and also my PhD students she just started eight months ago and we are working on also an aquatic robot so stay tuned at because yeah absolutely I mean this is it’s a really Noel fascinating area of research and I can see there being like just so many different areas you could apply this to so I’m very excited to hear about what you get up to in the future thank you so much Isabella it’s been really fun talking to you today I’ve been speaking to Isabella fiell from the University of fryberg thank you thank you so [Music] much thanks for listening if you enjoy robot talk please share the podcast subscribe and leave a review it really helps boost the podcast so thanks in advance and make sure you check out at robot talkpod on social media to see a photo of the miniature biohybrid robot that can bury itself in the soil which Isabella and I talked about I thought you might like to hear a sneak peek of this month’s bonus episode what is one thing about your field that you wish more people knew I think I would like people to know that robots are not only very complex robust and impressive systems but they are also a bit dumb they’re a bit dummies in a way because they require a lot of work to make them work you know you have to know exactly how to Wrangle them uh to make them work so I think that that’ be nice thing to communicate to people yeah absolutely yeah I think people assume when because they see that the robot is kind of autonomous and is doing some things on its own they kind of assume that it is like you know a cat or a dog and kind of can just look after itself and we’ll just be fine and and functional without any kind of input yeah scale drone operations is technically crazy hard we do more engineering that most people would never assume we do that that yeah it boggles people’s minds when they see it if you’d like to hear more from this bonus episode sign up as a supporter on patreon by going to patreon.com slcl aser and you’ll get access to the full catalog of bonus content next week I’m talking to keen and wbec from zipline about delivering Medicine by drone until then I’ve been Claire Asher and this has been robot talk robot talk is brought to you by the Hamlin Center Imperial College London [Music] oh
Market Outlook and Projections for Agricultural Equipment Dealerships.
The agriculture dealers market is experiencing rapid transformation due to technological advancements, sustainability demands, and consolidation among dealers. The market consists of entities that distribute essential farming tools and inputs, such as machinery, seeds, and precision technologies. BIS Research segments the market into three main categories: equipment dealers, input dealers, and precision agriculture dealers. Key drivers of growth include digital transformation, focus on sustainability and efficiency, government support programs, and growing global food demand.
The market is expected to grow, with emerging regions in Asia-Pacific, Latin America, and Africa offering untapped potential. Dealers that embrace digital solutions and strategic alliances will gain a competitive edge. However, the industry faces challenges such as supply chain vulnerabilities, price volatility in commodities, and evolving regulatory standards. Notable players in the market include King Ranch Ag & Turf, and tech-savvy dealers are collaborating with agri-tech innovators to expand their digital farming solutions portfolio. BIS Research provides insights and reports on the agriculture dealers market, helping businesses stay ahead in the industry.
Maharashtra government greenlights Rs 500 crore project to transform agriculture sector with artificial intelligence.
The Maharashtra government has approved the MahaAgri-AI Policy 2025-2029, a comprehensive strategy to transform agriculture in the state using AI, drones, and blockchain. With a budget of Rs 500 crore, the policy aims to promote precision farming, weather forecasting, and farmer advisories, while supporting startups and digital infrastructure. The policy has several key features, including AI-powered platforms, digital public infrastructure, blockchain traceability, and farmer-centric initiatives. It also includes plans for institutional support, startup and PPP focus, and digital literacy programs.
The policy will be implemented in four phases, with a focus on strengthening weather advisory services and setting up automated weather stations in every gram panchayat. The government also announced an Annual Global AI in Agriculture Conference & Investor Summit to attract international collaboration and investment in agri-tech. The MahaAgri-AI Policy 2025-2029 aims to position Maharashtra as a national and global leader in AI-powered, sustainable farming, and is set to usher in a new era of smart, data-driven agriculture in India.
Intelligent Farming Robots Market for Automated Harvesting and Crop Management
The Agricultural Robots market was valued at $6,928.63 million in 2021 and is expected to grow at a CAGR of 20.80% from 2024 to 2031. The market is driven by the adoption of automation to enhance productivity, reduce labor dependency, and increase precision in farm operations. Trends include the rise of AI-powered vision systems, autonomous tractors, and swarm robotics. Key players in the market include Lely, BouMatic Robotics, DeLaval, and DJI Technology.
The market is segmented by type, application, product type, and farm environment. Regional analysis covers North America, Europe, Asia-Pacific, South America, and the Middle East & Africa. The report provides insights into market trends, growth opportunities, and challenges, and is based on a comprehensive research methodology that combines primary and secondary data collection.
DataM Intelligence offers a report on the Agricultural Robots market, which provides actionable intelligence to businesses to make informed decisions and stay ahead of the competition. The report is available for download, and the company also offers subscription and consultation services to clients.
Leveraging Artificial Intelligence to Track Crop Health
Hieu Nguyen, a professor of mathematics, is using smart drones and artificial intelligence (AI) to help farmers in South Jersey monitor their blueberry and cranberry fields for diseases and invasive weeds. The AI-powered drones capture photos of the fields, which are then stitched together to create a mosaic that farmers can use to detect issues such as the blueberry scorch virus and Carolina redroot weeds. Early detection and prevention can improve crop yields and reduce costs. Additionally, AI models can count berries to estimate crop yield, allowing farmers to plan labor and negotiate prices. Nguyen’s project is funded by the New Jersey Department of Agriculture and aims to benefit farmers while providing students with hands-on experience. The use of AI in agriculture is under-investigated, but Nguyen believes it has the potential to make a significant impact on the industry.
Enhancing Canadian farming practices with innovative precision agriculture techniques for a more sustainable future
Canada aims to create a more sustainable and environmentally responsible agricultural sector, with precision agriculture (PA) playing a crucial role. PA can help Canadian farmers enhance productivity, safeguard natural resources, and secure long-term food sustainability. Key focus areas for advancing sustainable agriculture in Canada include improving soil health, managing water usage, implementing regenerative agriculture, and using sensor-based smart applicators. Additionally, profitability mapping, remote sensing services, and training highly qualified personnel are essential for promoting sustainable agriculture.
Canada can become a global leader in sustainable farming by integrating Indigenous and traditional knowledge with PA technologies. A comprehensive approach is required, including economic incentives, infrastructure investment, and supportive policies. The country needs to invest in broadband and data infrastructure, provide financial incentives, and offer tailored education programs to promote the adoption of sustainable practices. By combining these efforts, Canada can empower its agricultural sector to embrace PA, boosting productivity, sustainability, and global competitiveness. This will help reduce the environmental impact of farming, improve soil health, and ensure long-term food security, while also supporting Canada’s climate goals.
Uttar Pradesh Government Introduces Drone Technology for Crop Protection: Rediff Moneynews
The Uttar Pradesh government has launched a drone-based crop protection program in six districts to boost farmers’ income and modernize agriculture. As part of a pilot project, drones are being used to spray nano urea and pesticides in Lucknow, Gorakhpur, Bahraich, Muzaffarnagar, Ghaziabad, and Kanpur Nagar. The drones can spray up to 12 acres in an hour, increasing productivity and reducing labor and time. This initiative is part of the Atmanirbhar Krishak Samanvit Vikas Yojana and the Agriculture Infrastructure Fund, aiming to modernize agriculture and provide economic benefits to farmers. Nine drone projects have been launched so far, and farmers are being trained to operate drones and adopt modern farming techniques. The use of drones allows for precise and timely monitoring of crop health and spraying of pesticides and nano urea. The state government plans to expand the initiative to more districts, further enhancing the technological backbone of agriculture in UP. This move is expected to increase farmers’ income and introduce efficient, science-backed methods in agriculture.
Kansas State University conference assists students in discovering opportunities within the precision agriculture field
Kansas State University is hosting a conference from July 27-29 for high school seniors and college students to explore careers in precision agriculture. The Smart Farm Challenge Precision Agriculture Workshop will provide hands-on activities, such as flying drones and collecting field data, and opportunities to engage with industry partners. Students of any skill level are welcome to attend and will learn from faculty at the university’s agronomy facilities and farms. The cost of the workshop is $50, which includes meals and housing, and registration is available online until July 11 or when full.
The workshop is sponsored by the College of Agriculture’s department of agronomy and the CHS Foundation, and is part of the Precision Agronomy Teaching Hub (PATH) initiative at K-State. The initiative aims to advance digital agriculture and data analytics, aligning with the university’s vision. Up to 30 participants will attend the workshop, which will provide a comprehensive introduction to precision agriculture, data analysis, and variable rate application equipment. By attending the workshop, students will gain a deeper understanding of the career opportunities available in precision agriculture and make connections with industry professionals.
Market Intelligence for Agricultural Gateways: Unveiling New Opportunities
The Agriculture Gateway Market is growing significantly, driven by the need for efficient and sustainable farming practices. Technological advancements, government policies, and increasing demand for food security are fueling the market’s growth. Agriculture gateways enable precision farming, livestock monitoring, and efficient irrigation management, leading to improved yields and reduced environmental impact. The market is expected to reach $52.97 billion by 2032, growing at a CAGR of 11.3% from 2025 to 2032.
Key players in the market include Advantech, Cisco, Deere & Company, and Huawei. The market is segmented by component, deployment model, connectivity, application, and end-user. Drivers of the market include technological advancements, government policies, and increasing demand for sustainability. However, the market faces challenges such as high initial costs, connectivity issues, and data security concerns. Despite these challenges, the market is expected to continue growing, driven by the need for efficient and sustainable agriculture practices. The Asia-Pacific region is expected to experience rapid growth, driven by increasing food demand and government support for smart agriculture initiatives.
The Future of Farming: Unlocking the Potential of Precision Agriculture 2.0
The agricultural industry is on the cusp of a revolution with the integration of quantum computing. This technology has the potential to solve complex problems that are currently beyond the reach of traditional computers. Quantum computing can simulate complex scenarios, optimize resource allocation, and ensure food security in an unpredictable world. It can also improve crop modeling, genetic optimization, and supply chain logistics, reducing food waste and environmental impact. The integration of quantum computing with digital farming platforms is crucial, but it poses significant technical challenges. Leading agricultural technology providers are already exploring how to interface their digital farming platforms with quantum systems. The potential applications of quantum computing in agriculture are diverse, including climate resilience modeling, genetic optimization, and soil microbiome analysis. While practical applications are likely to emerge gradually, industry experts project a phased adoption timeline, with initial commercial applications in areas like supply chain optimization and financial risk modeling.
Smart Farming Revolution: How IoT is Transforming Agriculture for a Greener Tomorrow
The global IoT in Agriculture Market is transforming traditional farming methods with smart farming practices. The market is expected to grow significantly over the next decade, driven by innovations in wireless sensors, data analytics, and connected equipment. Key drivers of growth include precision farming, rising global food demand, government initiatives, and the integration of AI and big data. IoT technologies enable farmers to monitor field conditions, automate irrigation systems, and manage supply chains more effectively. The market is moderately fragmented, with key players including John Deere, Trimble Inc., and Bosch.
Regional insights show that North America leads the market, followed by Europe and Asia-Pacific. Despite its potential, the market faces challenges such as high initial costs, lack of digital literacy, and data privacy concerns. To overcome these hurdles, public-private partnerships and innovations in low-cost IoT devices are necessary. The future outlook is promising, with the market expected to play a pivotal role in reshaping the agricultural industry towards predictive, autonomous, and precision-driven farming.
Agricultural experts and growers convened at a forum to discuss the impact of artificial intelligence on the farming industry.
Artificial Intelligence (AI) is revolutionizing the agriculture industry, changing how farmers approach planting, harvesting, and equipment maintenance. At the CIFT Agribusiness Forum, experts discussed the practical applications of AI in farming, including weed-sensing technology, predictive diagnostics, and autonomous tractors. Andrew Drerup, a 20-year industry veteran, explained how AI is helping farmers increase efficiency, reduce costs, and stay ahead of labor shortages and shifting demands. He demonstrated an AI-driven sprayer that targets specific weeds and an AI-powered combine that adjusts to changing crop conditions. Drerup emphasized that AI is a tool for smart decision-making, not a replacement for human judgment. Microsoft and the National FFA Organization have also launched a national education program, FarmBeats for Students, to teach middle and high school students about AI, smart sensors, and data science in agriculture. The program aims to equip students with technical knowledge, confidence, and adaptability to thrive in the evolving agriculture industry and create a more sustainable and innovative future.
What is Precision Agriculture?
Precision agriculture is a farming method that uses data and technology to improve crop and animal management. It involves …
AI-equipped farm robots transform global agriculture with their cutting-edge vision capabilities
The integration of AI-powered farm robots is transforming agriculture globally by addressing pressing issues such as labor shortages, resource optimization, and environmental sustainability. These advanced machines, equipped with AI vision and precision tools, are revolutionizing crop management by improving yields, reducing manual labor, and optimizing resource usage. The robots are capable of performing tasks such as monitoring crop health, identifying pests and diseases, and responding to issues timely. This leads to increased efficiency, reduced waste, and improved crop quality. Additionally, AI-powered farm robots can optimize water and fertilizer usage, reducing the environmental impact of farming. The technology is also enabling farmers to make data-driven decisions, improving crop yields and reducing costs. With the increasing adoption of AI-powered farm robots, the agriculture industry can overcome the challenges of a declining workforce and increasing demand for food production. Overall, the integration of AI-powered farm robots is paving the way for a more sustainable and efficient agricultural sector.
நவீன விவசாயம் | Farmagain: Precision Agriculture – AI & IoT in Agriculture | GroTron Autonomous Farm
துல்லிய விவசாயம் | What is Precision Agriculture? | Precision Farming Technologies | Farmagain: Precision …
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Pohnert Farms, a family-owned farm in the Texas Panhandle, faces numerous challenges in managing weeds and herbicide resistance in its cotton crops. The farm’s owner, Dudley Pohnert, has experienced difficulties in controlling weeds due to the intense summer heat, persistent spring winds, and narrow operational windows for spraying. The high cost of herbicides and the spread of resistant weed strains have exacerbated the challenges, making it hard for farmers to achieve effective management. Dudley has tried various solutions, including increased frequency and strength of herbicides, but to little avail.
Enter Greeneye Technology, a precision spraying system that has revolutionized the farm’s weed management. The system, which can be retrofitted to existing sprayers, uses AI technology to target weeds with sub-millimeter precision, reducing herbicide use by 87% compared to broadcast spraying. The system has helped Dudley improve crop health, reduce weed escapes, and increase yields. He expects to achieve payback in two to three seasons and envisions using the system to optimize the application of other inputs such as fungicides and micronutrients. The Greeneye system has transformed Pohnert Farms into a more sustainable and resilient operation, setting it up for a more profitable future.
Unlocking the power of AI to transform sugarcane farming, precision and efficiency take center stage.
Artificial Intelligence (AI) is transforming sugarcane farming by increasing precision, efficiency, and sustainability. By leveraging sensors, drones, satellite imagery, and weather stations, farms can monitor soil moisture, temperature, nutrient levels, and crop health, providing vital information for AI systems to analyze. AI-driven systems optimize irrigation schedules, detect early signs of pest and disease, and generate precise yield predictions. Farmers receive tailored recommendations via intuitive apps, simplifying tasks like irrigation, fertilization, and pest management. AI also enables smart irrigation systems, precision agriculture machinery, and strategic harvest management. While initial investments are high, the economic benefits include increased yields, reduced costs (water, fertilizers, pesticides, and labor), and a substantial Return on Investment (ROI) of 40-50%. The integration of AI is proving to be a game-changer for sustainable and efficient farming practices, and has the potential to revolutionize global agriculture.
Sustainable Farming Boosts Demand for Eco-Friendly Agricultural Pheromones Let me know if you’d like me to make any changes!
The agricultural pheromones market is expected to grow significantly due to the increasing demand for sustainable agriculture practices, stricter regulations on pesticide use, and growing consumer preference for organic products. The market is projected to grow from $5.39 billion in 2024 to $19.04 billion by 2032, with a CAGR of 17.1%. Agricultural pheromones are used to disrupt mating, attract pests to traps, or repel them, providing a non-toxic and targeted pest management solution. The market is dominated by North America and Europe, but Asia-Pacific is expected to grow the fastest. Key players in the market include International Pheromone Systems, Suterra, Syngenta, Certis USA, AgBiTech, Trece, and Marrone Bio Innovations. The market growth is driven by factors such as the shift to sustainable agriculture, government regulations, and organic farming. However, challenges such as high initial costs and limited awareness exist. Opportunities for growth include the rising demand for eco-friendly products, emerging agricultural markets, and strategic partnerships and collaborations. The market is expected to continue growing as technological advancements improve the efficiency and cost-effectiveness of pheromone solutions.
Asia-Pacific Smart Agriculture Market Insights and Projections
The Asia-Pacific (APAC) smart farming market is projected to reach $29.87 billion by 2034, growing at a CAGR of 19.98% from 2024 to 2034. The market is driven by the increasing adoption of precision farming, IoT, AI, and robotics in agriculture. The growing need for sustainable farming practices and food security is also driving the market. APAC countries such as China, Japan, South Korea, and India are investing heavily in agritech breakthroughs and encouraging the use of smart farming solutions.
The market is segmented into precision farming, livestock monitoring, and aquaculture applications. Hardware and software products used in smart farming include sensors, drones, satellite imaging, and farm management software. Key players in the market include KUBOTA Corporation and Eruvaka Technologies Pvt. Ltd.
The report highlights the market dynamics, including drivers, challenges, and opportunities. The market is driven by the increasing need for sustainable agricultural practices and the growing adoption of precision agriculture. However, lack of technical expertise among farmers and rising concern over data security are challenges that the market faces. The report also provides a competitive benchmarking of the market and includes company profiles of key players.
In a little over five years, on April 9, 2025, Broadband Breakfast will be woven into the fabric of our digital lives.
The panel, hosted by Broadband Breakfast, explores the intersection of broadband and agriculture, discussing how improved connectivity can revolutionize modern farming. Precision agriculture relies on real-time data to optimize crop management, reduce waste, and increase yields, but gaps in broadband access hinder its adoption. The panelists, composed of experts from the fields of government relations, agriculture, and telecommunications, will discuss the opportunities and challenges at the intersection of broadband and agriculture.
The panelists include:
* Mark Rubin, Director of Government Relations at CostQuest Associates
* Joy Sterling, Partner and CEO of Iron Horse Vineyards
* Andy Bater, Owner of Fifth Estate Growers LLC
* Drew Clark, CEO and Publisher of Broadband Breakfast
The panel will cover various topics, including the role of satellite, fixed wireless, and fiber networks in bridging the connectivity gap for rural farms and supporting the adoption of precision agriculture technologies. The discussion will highlight the need for expanded broadband infrastructure to support the growth of precision agriculture and the potential of innovative technologies like connectivity test beds in vineyards. The panel aims to explore ways to leverage broadband to improve agricultural productivity, efficiency, and sustainability.
Emerging Trends and Innovations in Precision Farming: Insights into Robotics and Technology
Precision Agriculture Robot Market Size and Segmentation
The Precision Agriculture Robot Market report provides an in-depth analysis of the current market trends, drivers, challenges, and opportunities for the market. The report segments the market based on type and application, including:
Types: Indoor Farming and Outdoor Farming
Applications: Harvest Management, Field Farming (Crop Monitoring, Plant Counting, and Crop Scouting), Soil Management (Moisture Monitoring and Nutrient Monitoring), Irrigation Management, Pruning Management, Weather Tracking & Monitoring, Inventory Management, and Others (Financial Management, Farm Labor Management, Demand Forecasting, and Forestry Management)
Regional Analysis:
- North America (United States, Canada, and Mexico)
- Europe (Germany, France, UK, Russia, Italy)
- Asia-Pacific (China, Japan, Korea, India, and Southeast Asia)
- South America (Brazil, Argentina, Colombia)
- Middle East and Africa (Saudi Arabia, UAE, Egypt, Nigeria, and South Africa)
Market Highlights:
- Key players include Deere and Company, Topcon, DJI, Trimble, DeLaval, AGCO Corporation, YANMAR CO., Lely, Boumatic, AgEagle Aerial Systems, ROBOTICS PLUS, Abundant Robotics, Deepfield Robotics, Iron Ox, KUBOTA Corporation, Naïo Technologies, ecoRoborix, Clearpath Robotics, HARVEST CROO, and Harvest Automation.
- The report provides market size and forecasts, revenue analysis, and pricing history to estimate the size and trends in the market.
Main Objectives of the Report:
- To analyze the Precision Agriculture Robot market’s growth potential, patterns, and contributions.
- To provide accurate and helpful information on factors influencing the market’s growth.
- To provide a comprehensive analysis of the market and its competitive landscape.
Purchase this Premium Research Report for Understanding: To gain insights into the Precision Agriculture Robot market, its growth factors, and competitive landscape.
Key Analytics and Market Coverage: Covers market trends, growth drivers, challenges, opportunities, and regional dynamics.
Geographical Analysis: Covers North America, Europe, Asia-Pacific, South America, Middle East, and Africa.
Here are a few rewritten versions of the line Trends Shaping Smarter, Greener Grows in: * Innovations Propelling Smarter, Sustainable Growth Abounds * Emerging Trends Foster Smarter, More Eco-Friendly Development * Smart and Sustainable Growth is Being Driven by Emerging Trends * Shifting Paradigms Power Smarter, Greener Growth Initiatives * Advances in Technology are Driving Smarter, More Environmentally Conscious Growth
The cannabis cultivation industry is evolving rapidly, driven by the need for sustainability, efficiency, and profitability. To stay competitive, cultivators must adopt innovative techniques such as precision agriculture and AI, which allow for data-driven decision making and streamlined operations. AI-powered systems collect real-time data, identifying patterns and predicting potential problems, enabling cultivators to make smarter decisions and optimize growing conditions.
Other trends likely to dominate the conversation in 2025 include undercanopy lighting, which increases yields by targeting the lower parts of the plant, and veg in place, a method of establishing plants in their final growing location during the vegetative stage. These innovations are not only increasing yields but also enhancing sustainability by reducing energy consumption, labor costs, and waste.
To thrive in a rapidly changing market, cultivators must adapt and continuously improve operations to lower their carbon footprint, streamline processes, and deliver higher-quality products. By embracing these trends, companies can position themselves for long-term success while contributing to a more sustainable future.
Women in agricultural innovation soaring to new heights in Sangareddy’s fertile landscape
In Sangareddy, India, a group of women from Self Help Groups (SHGs) are breaking barriers and traditional gender roles by learning to operate drones to spray pesticides and fertilizers in fields. The initiative, led by District Collector Valluru Kranthi, has trained 53 women in drone technology, cutting labor costs by 80% and enabling them to cover up to 50 acres in just five hours. The women, who previously relied on daily wages, are now pilots and even express interest in purchasing their own drones. The initiative is seen as a game-changer for rural women, allowing them to take control of their economic livelihoods. With government support, SHGs can receive up to an 80% subsidy on drones and cameras, making it possible for them to own and operate their own equipment. The women’s newfound skills and confidence are a testament to the power of empowering women with technical skills and financial resources.
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The South and Central America precision farming market is projected to be worth
The South and Central America precision farming market is expected to grow at a CAGR of 10.5% from 2023 to 2031, reaching a value of $1.33 billion by 2031. The market was valued at $597.88 million in 2023. The growth of the market is driven by the increasing adoption of agricultural robots, such as driverless tractors, drones, and automated irrigation systems. These robots make farming processes faster, simpler, and more precise. Companies such as Tortuga AgTech, Harvest Automation, and Solinftec are launching agricultural robots worldwide.
The precision farming market is segmented by product, including agricultural robots, precision irrigation systems, precision planters, and precision crop monitoring systems. The market also faces challenges such as high upfront costs and the need for specialized training.
The report provides an analysis of the competitive landscape, including major players such as AGCO Corp, CNH Industrial NV, Deere & Co, TeeJet Technologies, Topcon Corp, Trimble Inc, and others. The report is divided into 13 chapters, providing insights into the market size, segmentation, drivers, challenges, market trends, and vendor landscape.
ReconBlockage employs advanced acoustic detection technology to identify blockages with precision.
The ReconBlockage system, developed by Precision Planting, uses sound waves to detect flow blockages in seeding and strip-till bars in real-time. Unlike traditional optical sensors, ReconBlockage employs acoustic sensors to listen to the sound of the product hitting a stainless steel plate, which is transmitted through an auditory tube to microphones and an electronic control unit (ECU). The ECU interprets the signals to determine whether a run is blocked or flowing smoothly. The system provides real-time updates to an iPad in the cab, allowing farmers to visually monitor each run and any irregularities, such as blockages, which turn red on the display. The system is compatible with both strip toolbars and air seeders and is available as a retrofit or OEM solution. It simulates and displays real-time issues, allowing for quick learning and immediate troubleshooting, minimizing downtime and improving planting precision. The ReconBlockage system aims to improve accuracy, productivity, and peace of mind for farmers.
Safeguarding global food supplies requires a smart investment in precision agriculture.
Precision agriculture uses advanced technologies, such as 5G connectivity, artificial intelligence, and the Internet of Things, to enhance farming efficiency and reduce waste. This approach can lead to increased crop yields, improved food security, and environmental sustainability. The United States can lead in precision agriculture by investing in Open Radio Access Network (O-RAN), artificial intelligence, and 5G technology. O-RAN enables flexible 5G network deployment, reducing costs and expanding connectivity in rural areas. AI processes vast agricultural data, offering predictive insights that improve decision-making.
Precision agriculture has transformative applications, including AI-powered analytics, real-time monitoring, and automation. It can reduce reliance on imported food, ensure a more resilient supply chain, and bridge the digital divide in rural areas. The technology also improves livestock health, optimizes water use, and reduces crop failure. Autonomous farm machinery and drones further improve efficiency. By prioritizing precision agriculture, policymakers can drive economic growth, environmental protection, and food production. The United States has the expertise and resources to lead in precision agriculture, and it must demonstrate the commitment to do so.
Unlocking the Power of Imaging Technology for Enhanced Crop Monitoring and Yield Enhancement in Precision Agriculture
The use of imaging technology in precision agriculture is revolutionizing modern farming by providing high-resolution data for crop monitoring and resource management. The global market for imaging technology in precision agriculture was valued at $1.183.60 million in 2024 and is projected to grow to $1.273.50 million in 2025 and reach $2.627.40 million by 2032. Imaging technology allows farmers to assess crop health, soil moisture levels, pest infestations, and nutrient deficiencies with unprecedented accuracy. The adoption of imaging technology offers several benefits, including enhanced crop monitoring, improved resource efficiency, early detection of diseases and pests, sustainability, and yield optimization.
Key trends influencing the market include the rising adoption of drones, integration of AI and IoT, government initiatives supporting smart agriculture, and growing demand for sustainable farming. While challenges such as high initial costs and technical complexities may slow down adoption, advancements in cloud-based analytics, machine learning, and cost-effective imaging solutions are expected to drive widespread implementation. As AI-driven analytics, machine learning algorithms, and real-time imaging solutions become more accessible, farmers will be better equipped to make data-driven decisions, ensuring sustainable and profitable agricultural practices.
Optimizing crop yields through a harmonious blend of cutting-edge analytics, sensor technology, and intelligent learning
The global smart agriculture market is expected to reach USD 35.4 million by 2031, growing at a CAGR of 5.8% during the forecast period 2024-2031. The market integrates advanced technologies like IoT, AI, drones, and big data analytics to optimize farming operations. Key players in the market include AGCO, Ag Leader Technology, John Deere, Raven Industries, Precision Planting LLC, Trimble, DeLaval, AgJunction, Agribotix, and The Climate Corporation.
The report highlights the growth forecast for the global smart agriculture market, with an analysis of key market trends, growth opportunities, and emerging challenges. The regional analysis covers key regions including North America, Europe, Asia Pacific Middle East and Africa and South America.
The report provides a comprehensive overview of the market, including a segment analysis by product (management information system, remote sensing systems, GIS, SDSS, yield mapping, and others) and application (precision farming, livestock monitoring, and others). The regional analysis provides a breakdown of the market by country, including the U.S., Canada, Mexico, the U.K., Germany, France, and others. The report provides a detailed analysis of the market, including a SWOT analysis, PESTEL analysis, and forecast.
It’s a harvest of possibilities, one dealer at a time.
The Agricultural Industry Electronics Foundation (AEF) is hosting its Spring Plugfest from March 31 to April 3 in Milwaukee, Wisconsin. The event brings together precision ag software engineers from various companies to test the compatibility and communication of their ISOBUS products. Engineers will gather in a room, where they’ll test their products with those from their competitors, conducting up to 48 different tests in 45-minute time slots. The biannual event has grown significantly since its inception in 2001, as mixed fleets have become more common in the US. The AEF’s goal is to enable farmers to be able to easily connect and use different equipment, achieving the right results.
The organization is also teaming up with the Association of Equipment Manufacturers (AEM) to host the event. Ryan Milligan, AEF’s representative, highlights the development of a high-speed ISOBUS, which will enable digital cameras and increased command and control on equipment. The organization is working towards integrating plug-and-play cameras, ensuring interoperability between different equipment manufacturers. The event will be attended by core member companies, such as John Deere, and dozens of other companies, before the fall 2025 Plugfest in Marienfeld, Germany.
Lauritz Knudsen Unveils Innovative IoT-based Solutions to Revolutionize Indian Agriculture
Lauritz Knudsen Electrical and Automation has launched a suite of IoT-powered solutions to transform Indian agriculture, aiming to empower over 25,000 farmers to transition from conventional to precision agriculture within a few years, covering an additional 120,000 hectares of irrigated land. Their solutions are designed to boost farm productivity by 20% and reduce water consumption by 30%. The SMARTCOMM Irrigation Management System (IMS) is at the core, allowing farmers to remotely monitor and control their farms through user-friendly dashboards and mobile applications. The system optimizes irrigation and fertilization processes, reducing water wastage and improving crop yields. The company also promotes sustainable farming practices, including solar-powered irrigation systems, to reduce reliance on traditional energy sources. With over 70 years of experience in India, Lauritz Knudsen has already impacted over 2.5 million people annually, and is now leading the way with connected, automated, and energy-efficient solutions tailored for Indian farmers.
Get ready for the latest insights from the fields! Our Spring 2025 Precision Agriculture Digital Digest is now available on Farms.com.
The article discusses the latest advancements in precision agriculture technology, with a focus on equipment and software solutions. Case IH is introducing a new feature called SenseApply, which uses a single camera to provide live variable rate applications and upgradeable green-on-brown spot spray capability. The technology is available on Patriot and Trident machines. Other companies, such as HORSCH, are also launching new features, including a factory-installed row cleaner system on certain models. Additionally, the Blu-Jet At3015 fertilizer applicator now features a new row unit and split application option. The article also highlights innovative projects, such as a robotic prototype developed by engineering students at Southern Illinois University Carbondale to inspect soybean crops, and KIOTI’s remote monitoring platform, KIOTI Connect. The article concludes by encouraging readers to subscribe to the Farms.com Precision Agriculture Digital Digest for more news and updates on precision agriculture technology.
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Oil Palm expands its agricultural capabilities with cutting-edge drone technology for precision farming
3F Oil Palm is expanding its drone-based precision farming program nationwide after a successful pilot in Andhra Pradesh, covering 1,150 hectares and benefitting 500 farmers. The pilot, which took place over three days, used drones to survey 800 plots owned by 530 farmers, mapping the area with precise GPS coverage. The goal was to monitor plantation health, detect pest and nutrient deficiencies, and estimate fresh fruit bunches. The success of the pilot has led to plans to scale up the initiative to 30,000 hectares, covering 14,000 farmers and 21,000 plots, providing advanced agricultural solutions to farmers. As per Kilari Srinivas Rao, Head of Agriculture at 3F Oil Palm, this demonstrates the company’s commitment to using technology to improve farming efficiency and make farming “smarter”.
Hexagon Propels Autonomous Farming Innovation through Strategic Septentrio Acquisition
Hexagon has acquired Septentrio, a Belgian company specializing in high-precision GNSS (Global Navigation Satellite System) technology, to strengthen its offerings in autonomous agricultural applications. Septentrio’s technology provides centimeter-level accuracy and robust signal reception, making it ideal for autonomous farming equipment, such as self-driving tractors and robotic implements. The acquisition combines Hexagon’s broad positioning portfolio with Septentrio’s innovative GNSS platforms to accelerate the development and deployment of high-precision positioning tools for autonomous farming equipment. The combined offering will support mission-critical autonomy in agriculture, enabling real-time kinematic (RTK) corrections, precise point positioning, and anti-jamming technologies. The integration will also enable Hexagon to better support original equipment manufacturers (OEMs) and agricultural technology innovators, helping to drive the adoption of automation and sustainability in agriculture.
Ag tech startup Farmwise commences winding down its operations.
FarmWise, a leading robotics and automation technology company in agriculture, is restructuring and will start winding down operations due to “macro economic factors” and a drop in venture capital investment. CEO Tjarko Leifer believes that the company’s technology is commercially ready and has the potential to scale and be reliable, but the company’s current configuration is not profitable. Despite this, Leifer remains optimistic about the future of precision tech and automation in agriculture, citing the need to address labor challenges, herbicide resistance, and consumer preferences. He believes that bringing technology to agriculture is essential and that FarmWise’s Vulcan weeding system, which uses AI, computer vision, and robotics to identify and remove weeds, is a key element of innovation in the industry. Leifer hopes to ensure continuity for customers and has committed to supporting them as the company winds down operations. He believes that the fate of FarmWise should not necessarily be the fate of similar companies and is hopeful that the company’s technology will continue to thrive, despite the current challenges facing the industry.
Optimizing the Farm: How Automation and AI Can Revolutionize the Agricultural Workforce
The US farming population has been declining, especially in the 20th century, but the decline continues at a slower rate today. Advances in automation and artificial intelligence (AI) in farm equipment are reducing the need for manual labor, freeing up farmers to focus on skilled tasks. The development of “auto-steer” systems, precision farming, and geo-referenced controls have become more prevalent, making farming more attractive to younger generations. Companies like Sabanto, Farmblox, and Yamaha Agriculture Inc. are leading the way in creating automation and AI-based equipment to aid farmers. For example, Sabanto’s “Virtual Field Operators” can control and monitor tractors remotely, while Farmblox’s Farmblox is developing irrigation control, weather monitoring, and pest monitoring solutions for various crops. Yamaha Agriculture is working on autonomous vehicles for tasks like spraying, weeding, and mowing. While automation and AI will enhance productivity, they won’t eliminate the need for human labor. Many jobs will require skilled workers, including seasonal or longer-term immigrant/guest laborers.
Field robot operates independently, unencumbered by social responsibilities.
Marijn Vermuë, owner of Vermuë Arable Farming BV in Werkendam, has acquired an AgBot T2 traction robot to improve efficiency and reduce costs on his 160-hectare farm. The AgBot T2 is a pioneering technology that can perform various tasks, including mowing, planting, and harvesting. Currently, the robot is being tested and prepared for its first task, which is flail mowing cover crops in Werkendam. Vermuë is interested in understanding the robot’s capabilities and the real costs of operating it, excluding subsidies or tax benefits. His primary goals include maximizing yields, reducing costs, and minimizing environmental impact through precision farming techniques. The acquisition of the AgBot T2 is part of his efforts to advance his arable farm and improve its efficiency.
Industry leaders gather at AEF Spring Plugfest to drive agricultural innovation through seamless interoperability testing.
The Agricultural Industry Electronics Foundation (AEF) is a non-profit organization that aims to improve compatibility between different manufacturers’ agricultural equipment. The organization will be hosting its spring plugfest in Milwaukee, Wisconsin, from March 31 to April 3, in conjunction with the Association of Equipment Manufacturers (AEM). The event brings together dozens of technical teams from across the industry to test the compatibility of their products and ensure seamless communication, making equipment more effective and making farmers’ jobs easier. The AEF plugfest has been running since 2001 and has successfully ensured that manufacturers of tractors, implements, and components interpret the ISO 11783 standard in a compatible way. The organization’s recent expansion has focused on future technologies such as wireless in-field communications, high-speed ISOBUS, autonomy, and agricultural interoperability network. AEF’s goal is to create a global standard for interoperability, allowing farmers to use equipment from different manufacturers seamlessly, thus improving efficiency, productivity, and sustainability. The plugfest is open to AEF member companies, with over 300 companies participating, including major brands such as AGCO, CNH Industrial, CLAAS, John Deere, and others.
By 2033, the US market for sulfentrazone-based herbicides is projected to exceed $498.06 million in value.
The US sulfentrazone-based herbicides market is expected to reach US$ 498.06 million by 2033, growing at a CAGR of 6.74% during the forecast period 2025-2033. The market is driven by the need for resistance management in row crops and turfgrass, as well as the adoption of precision agriculture and regulatory scrutiny. The herbicide is used in various crops such as soybeans, corn, sunflowers, and others, and its popularity is increasing due to its broad-spectrum efficacy and ability to control over 70 species of broadleaf weeds and sedges.
The market is also driven by the growing demand for sustainable agriculture, with many farmers adopting conservation tillage practices, which reduce the need for tilling and fuel consumption. The use of sulfentrazone in conservation tillage systems has been linked to improved soil health, water retention, and reduced erosion rates.
The top players in the market are Agrisel USA Inc., Alligare LLC, Albaugh LLC, AMGUARD Environmental Technologies, and others. The market is segmented based on form, functionality, application, and end-user. Key players are also focusing on integrating sulfentrazone into precision agriculture systems, developing smart herbicide formulations, and shifting towards sustainable and integrated weed management practices. However, the market faces challenges such as environmental concerns over sulfentrazone runoff and persistence, regulatory scrutiny, and potential impact on non-target plants and soil health.
Innovative Updates from Deere Enable Farmers to Make Precision farming a Reality with Smaller Steady Steps
John Deere recently announced several new precision-related product upgrades, including the MaxEmerge 5e and ExactEmerge meter upgrades. These upgrades aim to make it easier for farmers to invest in precision technology without having to purchase a completely new row unit. According to John Deere’s VP of Precision Upgrades, Than Hartsock, this allows farmers to take a “step” towards precision farming by upgrading specific components rather than the entire planter. The company also offers an “Ultimate Planter Upgrade” for older planters, which allows farmers to replace worn-out parts with new row units equipped with advanced technologies. Additionally, John Deere has announced an autonomy precision upgrade kit for select tractor models, enabling autonomy in tillage work. For more information on these updates, visit PrecisionFarmingDealer.com.
Dutch farmers partner with tech innovators to push the boundaries of agricultural efficiency, field-testing the latest autonomous robot technology.
The AgXeed is a tractor robot that operates autonomously, focused on improving labor efficiency and reducing costs. One of the highlights of the NPPL-R (Dutch National Fieldlab for Precision Farming) project, the AgXeed is being tested year-round by farmer Marijn Vermuë from Werkendam. As part of the “Robot Seeks Farmer” initiative, over 130 farmers have signed up to test 7 different robots in real-world farming conditions, in collaboration with Wageningen University. The project aims to accelerate the adoption of field robots. The AgXeed, with its 152 horsepower, is one of the robots being tested, demonstrating its potential to revolutionize farming practices.
Leading the agricultural revolution: A list of the top 10 drone manufacturers in India fueling the country’s agricultural growth.
The integration of drone technology in Indian agriculture has transformed farming practices, offering precision, efficiency, and sustainability. Several Indian companies, such as ideaForge, Asteria Aerospace, and Garuda Aerospace, have emerged as leaders in this domain, providing specialized drone solutions for Indian agriculture. These drones assist in crop monitoring, spraying, and mapping, enabling farmers to optimize resources and enhance yields.
The adoption of drones in Indian agriculture has led to significant improvements in precision agriculture, resource optimization, labor efficiency, and data-driven decisions. However, challenges such as high costs, regulatory hurdles, and technical expertise hinder the widespread adoption of drones.
To overcome these challenges, collaborative efforts between the government, private sector, and educational institutions are necessary. Subsidies, training programs, and awareness campaigns can help make drone technology more accessible to all farmers. As technology becomes more affordable and accessible, the widespread adoption of agricultural drones is poised to enhance productivity, sustainability, and profitability in India’s farming sector.
Transformative Agriculture Solutions: Empowering Farming Efficiencies with Precision Farming Market
The Precision Farming Market is expected to experience significant growth in 2025, driven by technological advancements, shifting consumer preferences, and a focus on sustainability. The market is expected to reach a significant size, with Y-o-Y growth and CAGR forecast. The report provides an in-depth analysis of key market trends, growth drivers, competitive dynamics, and emerging opportunities.
The market is segmented by hardware, software, and services, as well as by technology, including guidance technology, remote sensing, and variable-rate technology. The report also covers key regions, including North America, Europe, Asia-Pacific, and the Middle East & Africa, and provides detailed insights into the competitive landscape, including top players and their strategic growth plans.
The report also examines the impact of adjacent markets, revenue growth of key vendors, and scenario-based analysis to provide accurate market forecasts. The study incorporates key business metrics, including Y-o-Y growth, CAGR, pricing analysis, and strategic frameworks such as Porter’s Five Forces, PESTLE, and Value Chain Analysis. The report aims to provide a comprehensive market outlook and help stakeholders identify high-growth opportunities.
Deere’s advanced precision technology introduces autonomous farming solutions for tillage
John Deere has launched its next-generation perception system, an autonomy precision upgrade kit for select tractor models, allowing for autonomous tillage work. The kit is available for model year 2022 and newer 9R and 9RX tractors, as well as model year 2020.5 and newer 8R and 8RX tractors. Select 2025 John Deere tractors will come with autonomy capabilities from the factory. The system features 16 cameras mounted on the tractor cab roof, providing a 360-degree view. It also includes additional lighting, a StarFire receiver mast, and harnessing for tillage implements. To aid in the transition, John Deere has integrated its autonomy solution with existing precision ag technologies, such as AutoPath and AutoTrac Turn Automation. This allows farmers to extend their workday without adding extra hours, increasing productivity. According to John Deere, customer feedback has praised the value of autonomy, allowing farmers to complete their work in a shorter operating window.
CultiWise launches precision spraying solutions using drone-precise maps for optimal crop management
Skymaps, a Czech agtech startup, has launched a drone-based prescription mapping solution called CultiWise. This solution enables farmers to generate high-precision crop health maps within hours, achieving up to 20% cost savings and a return on investment within the first season. The CultiWise drone can map 200 hectares per flight hour with centimeter-level accuracy, using multispectral or RGB cameras. This provides detailed field insights, ensuring precise application of crop inputs. The drone’s high-resolution images eliminate soil interference and offer a clearer assessment of crop health, making it ideal for early growth stages and wide-row crops where satellite data is unreliable. The CultiWise platform is available to subscribers, starting at €5 per hectare, with the drone available from €4,200. The system produces accurate prescription maps that allow farmers to adjust nozzle outputs based on crop conditions, reducing input costs and improving sustainability. With over 1,000 farm subscribers and local support in 15 countries, CultiWise is making precision farming more accessible and aligned with future regulations on pesticide and fertilizer use.
Indian financial news platform Rediff Money reports that Innoterra has acquired Fasal’s produce business, marking a significant expansion in the Indian market.
Innoterra, a Swiss-Indian agri-tech platform, has acquired Fasal’s fresh produce distribution business, expanding its presence in Bengaluru and Chandigarh. The acquisition will double Innoterra’s distribution routes and drive a 30-35% increase in revenue. The deal gives Innoterra access to Fasal’s 85,000-acre farmer network, allowing it to tap into new markets and increase fruit distribution by up to 80%. Innoterra plans to extend its Farmlink platform to non-perishable goods like rice and spices. Fasal, on the other hand, will focus on developing its precision agriculture technologies and expanding its farmer support initiatives. The acquisition cost was not disclosed. The acquisition is expected to increase operational efficiency and financial sustainability for Innoterra. According to Avinash Kasinathan, Innoterra’s Managing Director, the company will continue to pursue strategic acquisitions to scale its business. The deal aims to enhance Innoterra’s market presence and drive growth in the agri-tech industry.
Highlighting our top picks for the best agricultural solutions, Precision Farming Dealer’s March 5, 2025 issue is out now!
The “Best of the Web This Week” article summarizes various articles, social media posts, podcasts, and videos that highlight innovations in the agricultural industry. This week’s top picks include:
* A podcast interview with Joe Miller of CNH on the “Future of Agriculture” discussing bringing the best possible tractors to market.
* An article on new technology that allows farmers to “steam” roll weeds and pests, reducing the need for multiple sprays and processes.
* A showcase of the John Deere tech program, where students led a tour of the facility and shared their experiences.
* A podcast on the latest trends in precision agriculture adoption, including insights on farm management platforms and drones.
* A webinar on precision technologies and trends, featuring research from Kansas State University.
The article is brought to you by Totally Tubular, a metal fabrication specialist based in Aberdeen, South Dakota, which develops ag products to improve yields.
Yamaha Motor’s acquisition of Robotics Plus bolsters its efforts to revolutionize precision agriculture, unlocking new efficiencies for farmers and growers.
Robotics Plus, a New Zealand-based company that specializes in agricultural automation solutions, has been acquired by Yamaha Motor Co., Ltd. to form a new company called Yamaha Agriculture Inc. The new company will focus on developing autonomous equipment and AI-powered digital solutions to help specialty crop growers become more sustainable, profitable, and resilient in the face of climate change and resource scarcity. Robotics Plus will continue to operate from its headquarters in Tauranga, New Zealand, retaining key jobs and intellectual property. The acquisition is seen as a testament to the strong partnership between the two companies, which have been working together since 2017 to drive the development of agricultural automation technologies. The combined company will leverage Robotics Plus’ expertise in robotics and automation, as well as its new owner’s experience in the ag-tech industry, to address the challenges facing growers in the specialty crop market.