How New Technologies in Agriculture Transforming Modern Farming in 2024?

27/01/2024
Agriculture is approaching an inflection point with cutting-edge technologies poised to transform farming globally. By 2050, the world's population is projected to surpass 9 billion.

Feeding this growing population along with increased food consumption poses a huge challenge.

Agriculture must expand production rapidly while using resources judiciously.

Technology-enabled solutions are imperative to make farming smarter, precise, profitable and sustainable.

The agtech market is booming with innovators bringing breakthrough capabilities to agriculture through applications like AI, blockchain, robotics, IoT sensors and more.

Investment in agtech startups has tripled since 2012 to over $6.7 billion. Digital disruption is impacting every link of the farming value chain.

In this blog, we explore some game-changing technologies that will shape the future of agriculture in 2024 and beyond.

With radical improvements in efficiency, productivity and sustainability, technology adoption is empowering farms of all sizes to meet rising demands.

Let us examine key emerging agtech segments along with real-world examples of their transformative impact worldwide.

Why Does Agriculture Need New Technologies?

Before diving into the technologies transforming modern agriculture, let us understand why innovation is crucial for farming:

Reason #1: Feeding a Growing Population

The world's population is expected to reach 9.7 billion by 2050, requiring a 70% increase in overall food production.

With arable land already under pressure, we need to produce more from existing resources. Technology can help address this demand-supply gap through solutions like vertical indoor farms, hydroponics, aeroponics and aquaponics that enhance productivity per square meter.

Automation and analytics tools also optimize crop yields and livestock production. Technology will be pivotal to meet food demands through efficient utilization of finite resources.

Reason #2: Environmental Sustainability

Agriculture must innovate to meet food production targets in an ecologically responsible manner. Precision agriculture solutions can significantly reduce usage of water, fertilizers and pesticides preventing pollution and resource depletion.

GPS, sensors and satellite imagery enable sustainable farming tailored to local conditions. Blockchain facilitates traceability to verify sources and ensure transparency.

Technology will be key to minimize agriculture's carbon footprint through clean energy, waste reduction across value chains and regenerative techniques.

Reason #3: Supporting Farmer's Livelihoods

New agtech can help farmers augment productivity and incomes. Data-driven insights improve yield forecasting and risk management.

Digital marketplaces connect farmers directly to markets and reduce wastage by improving logistics coordination.

Fintech innovations like alternative credit scoring increase access to credit for smallholders.

Transparency in payments and transactions builds trust across value chains. Democratization of technology will be crucial to develop inclusive solutions to uplift farmer prosperity globally.

What Are the Key New Technologies Emerging in Agriculture?

Here we explore 5 segments witnessing maximum technology innovation in agriculture:

Technology #1- Robotics and Automation

Agricultural robotics is revolutionizing everything from crop production to livestock monitoring. Autonomous drones empower precision farming by capturing aerial data to identify crop variabilities.

Robots enhance productivity and reduce drudgery in tasks like picking ripe produce, weed control, milking, shed cleaning and more.

Driverless tractors automate tilling, seeding and harvesting.

Israel-based agriculture drone manufacturer Skyx showcases precision agriculture adoption. Their drones scan fields and generate crop health maps, detect irrigation faults and host other sensors for real-time data.

This early issue detection helps farmers take corrective actions faster. According to Goldman Sachs, use of robotics in agriculture could become a $45 billion market as technology makes automation more scalable.

Technology #2: Sensors and IoT

Internet of Things (IoT) devices like low-cost sensors, RFID tags and smart meters are enabling real-time monitoring across the agriculture value chain - from field to warehouse to market.

In-field sensors monitor microclimate data, soil condition and crop health. This allows remote analysis and data-backed management.

India-based Agri-iot offers smart farming infrastructure powered by IoT and AI.

Their solutions provide greenhouse automation, irrigation management, crop disease monitoring and data-driven advisory for farmers. IoT and intelligent connectivity will be integral for end-to-end digitization across the farm-to-fork cycle.

Technology #3: Genetic Engineering

Biotechnology and genetic engineering of crops can drive productivity, pest resistance, drought tolerance and improved nutrition. Gene editing tools like CRISPR allow efficient development of new crop varieties like high yield or biofortified strains.

USA based Pairwise is using gene editing to develop seedsless and more nutritious fruits and vegetables while reducing food waste.

Scientists aver that biotechnology can aid sustainable intensification without expanding farmlands.

However, adoption and regulations remain debated due to bioethics concerns. If navigated responsibly, biotech could be a valuable tool to strengthen food security.

Technology #4: Blockchain for Supply Chain

Blockchain technology enables transparent product traceability across agriculture supply chains. Distributed ledgers make data tamper-proof building trust among producers, distributors and consumers.

Blockchain verifies sustainability claims, origins, transportation conditions and more.

IBM Food Trust brings together players across the ecosystem on a permissioned blockchain to trace food reliably from farm to store.

Walmart piloted the network for tracing mangoes reducing tracking time from 7 days to 2 seconds. Such innovations can transform agri supply chains by removing friction and intermediaries.

Technology #5: AI and Predictive Analytics

Data-driven artificial intelligence and machine learning models are unlocking predictive insights for agriculture planning.

Crop yield prediction, soil mapping, predictive maintenance of equipment, and hyperlocal weather forecasts empower data-backed decisions.

Startup Agrilyst applies AI to mine growth metrics from indoor farms and greenhouses. Their platform analyzes sensor readings to predict yields, recommend micro-climate settings and optimize production. Israel-based Prospera builds computer vision solutions to monitor greenhouse crops.

AI detects pests, diseases, analyzes fruit maturity and helps farmers maximize yields profitably.

The deluge of data from fields and machinery combined with AI will be instrumental for farming based on intelligence rather than intuition alone.

How Are These Technologies Impacting Farming?

While the transformational potential of agtech seems promising, how is it benefiting core farming operations on the ground? Here are some of the notable impacts:

Impact #1: Optimizing Yields and Profits

Precision agriculture technologies like sensors, robotics and AI analytics are enabling data-driven farm management tailored to localized needs.

This results in optimal yields and quality with minimal resource usage. Insights from emerging tech also facilitate predictive analytics to align planting with demand forecasts and price trends.

Technology adoption aids faster growth in farm outputs and profitability.

Impact #2: Minimizing Risks and Losses

Weather vagaries, pests, and uncertainties have always impacted agriculture disproportionately. Emerging solutions enable proactive mitigation and minimizing unpredictable risks.

IoT sensors facilitate early detection of disease onset, pest attacks and other issues to take preventive actions.

Drones and satellites provide rapid assessment of damage across acres to initiate responses faster after natural disasters. Technology makes agriculture more prepared to deal with uncertainties.

Impact #3: Improving Efficiency of Resource Use

Precision agriculture technologies like targeted spraying, automated irrigation and variable rate fertilization optimize utilization of key resources like water, fertilizers and pesticides.

This improves yield per units of input and minimizes wastage through technology integration.

Impact #4: Facilitating Data-Driven Decisions

New technologies provide granular data on fields and surrounding conditions. Combining this with historical data, benchmarks and machine learning algorithms facilitates data-backed decision making.

Farmers can rely on predictive intelligence to plan, rather than approximations.

Real-World Examples of Technology Adoption

Let us look at some inspiring examples of how farmers and agribusinesses across India, the US and Kenya are leveraging technology to transform outcomes:

Example #1: Satsure (India)

SatSure leverages satellite imagery, AI and Big Data to provide solutions for agriculture risk management.

Their farm-zone wise crop analytics platform integrates satellite data with field-level information gathered from IoT sensors, drones and weather forecasts to deliver insights on crop growth, predict yields, and assess risks.

During the pandemic lockdowns when insurers could not survey farms, SatSure provided remote sensing data on crop losses through satellite imagery enabling settlement of farmers' claims.

In coastal Odisha, SatSure is working with agri lender NABARD to assess climate risks faced by farmers using 25 years of satellite data. These projects showcase how SatSure makes space technology accessible for strengthening Indian agriculture.

Example #2: AgNext (India)

NIT Trichy and IIT Kharagpur alumni founded AgNext in 2016 to build AI solutions for food quality assessment.

Their apps capture food images and analyze parameters like grains' moisture content and shape to determine quality, purity and pricing.

AgNext serves commodity traders, food processing companies and stores.

For landraces of rice with geographical indication tags, AgNext's rice quality assessment tools help farmers prove authenticity and get premium pricing.

Their AI powers Automated Quality Control Labs for leading brands like ITC, Cargill and engagements across 10+ countries demonstrate how AI can standardize quality assessment.

Example #3: Granular (USA)

Founded in 2014, Granular exemplifies an agtech software company using big data and analytics to improve farm productivity.

Their digital platform provides a unified view of farm activities by integrating data from multiple sources - sensors, tractors, soil scans, weather, and commodity markets.

Granular offers customized insights on crop performance, operational improvements, and price risk management.

With real-time visibility into field operations, Granular powers data-backed decision making and predictive analytics for farmers. Recently acquired by Corteva Agriscience, Granular is playing a pivotal role in digitally transforming agriculture.

Example #4: Twiga Foods (Kenya)

Twiga Foods is leveraging technology to transform food supply chains in Africa by connecting farmers directly to vendors.

Their mobile platform matches supply and demand enabling transparent pricing. With a network of 18,000 farmers and 8,000 vendors, Twiga Foods eliminates middlemen.

Their blockchain-backed farmer repayment system builds trust. Digital tools for pricing, payments and logistics coordination result in 80% higher farmer margins while reducing food waste by 40%.

Conclusion

Technology is undoubtedly ushering agriculture into a new era of smart, digital and data-driven activities.

The examples we explored showcase how emerging technologies like IoT, AI and robotics have the potential to transform not just large commercial farms but also empower smallholder farmers worldwide.

However, for long lasting impact, these interventions must focus on developing inclusive solutions tailored for local contexts.

Adoption efforts should ensure farmers understand the benefits and have support systems to implement changes. Policy reforms need to accompany technology investments to remove barriers and accelerate transformation.

As sectors like finance, healthcare and mobility undergo technology disruption, agriculture cannot afford to lag.

Food security and sustainability depend on productive adoption of technology. Partnerships between technologists, farmers, corporations and governments will be key to uncovering innovation that nourishes both people and the planet.
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