Noha Gad

Emerging technologies are reshaping the future of agriculture and farming in the Middle East. Advanced technologies, such as artificial intelligence (AI), computer vision, and IoT-powered sensors, are pivotal in transforming crop scanning speeds and harvest precision, addressing challenges including water scarcity, labor shortages, and arid conditions. In Saudi Arabia, autonomous farming robots are used to sow, fertilize, and apply pesticides in a single pass, enabling round-the-clock operations while cutting labor costs, aligning with Vision 2030's push for innovation.

Farming in the Kingdom is becoming more efficient and sustainable than ever before, thanks to AI-powered technologies. For instance, predictive systems could help farmers avert up to 30% of crop losses due to pests and disease before an outbreak goes out of control, according to a report released by Tanmeya Capital. In high-tech farms, AI-powered robots have increased harvesting efficiency by 50% and broader AI-driven automation has reduced labor costs by up to 35%, addressing the Kingdom’s labor shortages and rising operational expenses.

The agricultural autonomous robots market in Saudi Arabia is seeing significant growth, triggered by the urgent need for enhancing agricultural productivity and sustainability. According to recent estimates released by Mobility Foresight, one of the global market research firms specializing in mobility and tech domains, the market size is valued at nearly $100 million and is expected to expand at a compound annual growth rate (CAGR) of nearly 20% over the next five years. In 2028, the Saudi market is anticipated to hit $250 million, driven by the integration of AI and machine learning into agricultural robots, which will ultimately enhance their capabilities, making them indispensable for modern farming operations. 

This growth will be fueled by increasing investments in agricultural technology (agri-tech), and the adoption of innovative farming practices will play a vital role in ensuring food security and economic diversification.

The increasing amount of data generated by autonomous systems paves the way for developing analytics platforms that help farmers make informed decisions based on real-time data. Additionally, supporting startups and companies that focus on innovative solutions in the agri-tech space can yield high returns, especially those that integrate robotics and automation into farming practices.

How autonomous robots revolutionize agriculture and farming in Saudi Arabia

Various types of autonomous robots transform agriculture and farming in Saudi Arabia. For example, drones are used for aerial monitoring, crop spraying, and data collection, while harvesting robots can identify ripe crops and harvest them with precision. IoT-powered sensors can also monitor soil health and nutrient levels, providing valuable data for farmers. Additionally, automated tractors can carry out planting, tilling, and other field operations without human intervention. The use of autonomous robots in agriculture is expected to revolutionize traditional farming methods, leading to sustainable practices, improved crop management, and higher productivity. 

One of the key benefits of integrating smart robotics in agriculture is that it targets labor-intensive tasks, like planting, harvesting, and monitoring, using AI, sensors, and drones to enhance precision in arid conditions. For planting automation, autonomous robots plant seeds at optimal depth and spacing, applying fertilizers and pesticides precisely during sowing, which reduces waste and frees farmers for strategic tasks. They operate 24/7 and adapt to soil data for uniform crop establishment, especially vital in Saudi Arabia's vast farmlands. Robotic harvesters use high-precision visual sensors to identify ripe fruit, navigate trees, and pick without damage, operating continuously to increase output. 

Earlier this year, King Abdullah University of Science and Technology (KAUST) developed a new robotic system designed to automate date palm harvesting, aiming to disrupt the agriculture industry and position Saudi Arabia as a leader in agriculture innovation.  The project, headed by KAUST Assistant Prof. Shinkyu Park, focused on automating critical tasks in date palm cultivation, including harvesting, pollination, and tree maintenance. By integrating robotics with AI, the project is expected to improve efficiency and deliver higher yields of more nutritious dates, fulfilling the need to modernize and automate traditional practices in the date palm industry in the Kingdom.

Crop monitoring drones with cameras and sensors fly over fields to detect pests, diseases, and health issues early, enabling rapid interventions and minimizing losses. Meanwhile, autonomous ground robots are used to analyze soil for nutrients, pH, and moisture, recommending precise fertilizer applications to maximize yields without excess. This data-driven approach enhances soil health in the long term, reducing costs and promoting efficient resource use in Saudi farms.

For Saudi farmers, agricultural robotics can deliver substantial benefits by tackling core challenges, such as water scarcity, labor shortages, and low productivity in arid environments, ultimately advancing food security under Vision 2030. This includes:

• Reducing costs and labor expenses by automating repetitive tasks.
• Conserving water by utilizing precision irrigation systems from robots to deliver water where needed.
• Improving yields through AI-powered monitoring and harvesting.
• Reducing chemical runoff through targeted spraying, which contributes to protecting soil and biodiversity while complying with the Saudi's green initiatives. 

Humans and agricultural robotics

The transition from traditional farming to smart agriculture demands a fundamental shift in the skills base, creating both a challenge of displacement and an unprecedented opportunity for new, high-value employment. 

The automation of repetitive, labor-intensive tasks will inevitably reduce demand for low-skilled seasonal labor. While addressing labor shortages, this shift creates a pressing social and economic imperative: the need for large-scale reskilling and upskilling of the existing agricultural workforce. Government, tech providers, and institutions could offer certified, hands-on training modules, ensuring the current farming community has the required digital literacy to deal with innovations such as tablet-based control systems, dashboards, and software platforms. Therefore, new high-tech agri-tech professions will emerge, redefining what it means to work in agriculture. The sector will no longer employ farmers, but a suite of science, technology, engineering, and mathematics (STEM) professionals, data analysts, drone operators, agronomy pilots, agricultural robot fleet managers, and agri-tech support technicians.

Finally, the landscape of agricultural autonomous robots in Saudi Arabia is highly competitive and rapidly evolving, driven by a combination of local startups and established global players who develop innovative solutions tailored to the Kingdom’s unique agricultural challenges. By focusing on advanced technologies, like AI, machine learning, and robotics, these companies play a crucial role in creating efficient systems for harvesting, monitoring, and managing crops.

The successful integration of autonomous farming in Saudi Arabia will be measured not only in yield increases and water savings but also in its transition for the workforce. By investing heavily in reskilling programs for today's farmers, the Kingdom can ensure its agricultural revolution builds human capital alongside technological capital. 

Noha Gad

The rapid growth of e-commerce urged retailers to deliver faster, cheaper, and more reliable services to meet customers’ preferences for same-day or even two-hour deliveries. Traditional fulfillment models, relying on large regional warehouses, often struggle to meet urban delivery expectations due to long transit times and high last-mile costs, which can account for up to 53% of total shipping expenses.  

This shift has driven the adoption of localized fulfillment strategies, with Micro-fulfillment centers (MFCs) emerging as a scalable solution to bridge the gap between supply and demand in high-density markets.

MFCs integrate directly with e-commerce platforms, allowing real-time inventory synchronization and seamless order processing. They play a pivotal role in optimizing e-commerce operations by enabling proximity-based fulfillment. By storing high-turnover inventory in urban micro-hubs, retailers can drastically reduce delivery times, often to less than 24 hours, while improving order accuracy through automation.

These compact, automated centers, typically ranging from 3,000 to 10,000 square feet, revolutionize modern logistics as they bring inventory closer to urban consumers and enable faster deliveries and more efficient supply chains. MFCs were developed to meet rising consumer demand for same-day or next-day delivery, utilizing automation and real-time inventory systems to process orders with speed and precision, making them a cornerstone of agile e-commerce fulfillment.

How MFCs work

The primary objective of an MFC is to optimize last-mile delivery, the most expensive and time-sensitive segment of the supply chain, by reducing the distance between inventory and end customers. 

Micro-fulfillment centers integrate three essential components: advanced management software, automated physical infrastructure, and streamlined packing operations. The software layer processes incoming online orders in real time, synchronizing with e-commerce platforms and inventory systems to ensure accuracy and speed. Meanwhile, the physical infrastructure leverages robotics, automated storage and retrieval systems (AS/RS), and conveyor networks to retrieve items with minimal human intervention, significantly reducing labor costs and error rates. Once ready, items are transferred to packing stations where staff or automated systems prepare them for dispatch, often within hours of order placement.

These centers can operate as standalone facilities or be embedded within existing retail stores, enabling omnichannel fulfillment strategies such as ship-from-store, buy-online-pickup-in-store (BOPIS), and curbside pickup.

Types of micro-fulfillment centers 

There are three primary types of MFCs: standalone, store-integrated, and dark stores. Standalone MFCs are independent, compact logistics facilities typically ranging from 3,000 to 10,000 square feet. These centers focus exclusively on processing online orders for rapid last-mile delivery. They are often built in repurposed industrial spaces, basements, or standalone urban lots and can be deployed within months due to minimal construction requirements. They are effective for e-commerce businesses seeking to scale delivery speed without relying on existing retail footprints.

Store-integrated micro-fulfillment centers are embedded within active retail or grocery stores, typically in backrooms, basements, or underutilized floor space, allowing simultaneous in-store shopping and online order fulfillment. This type leverages the store’s proximity to customers to reduce shipping costs and accelerate delivery times, often enabling curbside pickup, BOPIS, and local delivery within hours. This model also improves inventory turnover by dynamically allocating stock between in-store sales and online fulfillment, reducing overstock and shrinkage.

Additionally, dark stores are retail locations that have been converted into fully automated, customer-inaccessible fulfillment centers dedicated exclusively to processing online orders. Unlike store-integrated MFCs, dark stores do not serve walk-in customers; they serve fulfillment staff or robots that pick items from shelves and pack them for home delivery or pickup. 

Dark stores are particularly prevalent in grocery and fast-moving consumer goods (FMCG) sectors, where demand for rapid delivery is high.

How MFCs boost the e-commerce industry

Retailers of all sizes leverage micro-fulfillment centers to stay competitive as they offer a wide range of benefits, including: 

-Faster delivery times.

-Improved customer satisfaction.

-Lower delivery and inventory costs.

-Space optimization.

-Omnichannel integration.

The future of MFCs is shaped by rapid urbanization and the growing need for hyper-local fulfilment solutions, fueled by advancements in robotics, AI-driven inventory management, and automation technologies. Thus, these centers are no longer a futuristic concept but a strategic necessity in the evolving landscape of e-commerce and urban logistics. 

MFCs offer a scalable, efficient solution to meet consumers’ demand for same-day and even same-hour delivery by bringing inventory closer to end customers through compact, automated hubs located in or near cities.

Finally, MFCs represent a transformative shift in how goods are stored, picked, and delivered. As technology advances and urban density increases, MFCs will become an operational imperative for businesses aiming to meet rising customer expectations for speed, convenience, and sustainability in the digital age.

Noha Gad

The substantial growth in the e-commerce sector over the past few years has revolutionized the retail landscape, powered by a surge in global online shoppers and evolving consumer expectations. In 2025, the number of online shoppers across the world is expected to reach around 2.77 billion, representing almost one-third of the global population, according to recent data released by SellersCommerce, a leading global B2B platform transforming the e-commerce landscape. 

This rapid expansion is triggered by increasing internet penetration, mobile commerce adoption, and the convenience offered by digital platforms. Consumers now demand faster, more flexible, and reliable delivery options, raising the bar for companies to optimize their last-mile delivery processes.

The term ‘last-mile delivery’ refers to the final stage in the supply chain where goods travel from a warehouse or local distribution center to the end customer’s doorstep, business, or a parcel locker. Although last-mile delivery is the shortest leg of a product’s journey, it is the most complex and expensive part of the logistics process, accounting for over half of total shipping costs. This phase directly links brands to consumers, serving as the ultimate touchpoint in fulfilling customer orders.

The rise in e-commerce and on-demand services highlighted the importance of last-mile delivery in meeting customers’ expectations to receive their packages safely with remarkable speed and flexibility. Same-day and next-day delivery options have become standard expectations, pushing businesses to innovate and optimize this phase of logistics. Thus, last-mile delivery is no longer just about moving parcels but about delivering superior customer experience and satisfaction.

Last-mile delivery requires careful route optimization, multiple stops, and flexible scheduling to meet strict delivery deadlines, especially in crowded urban environments. With growing expectations for transparency, customers now demand real-time tracking and prompt notifications, adding pressure on carriers and logistics providers. Successfully navigating these operational complexities can set companies apart in a competitive landscape and build lasting customer loyalty.

The evolution in last-mile delivery

The last-mile delivery landscape saw a remarkable evolution, driven by the shift from simple, manual processes to highly sophisticated, technology-driven operations. In the past, deliveries were largely managed through routine routes and fixed schedules, but today, last-mile delivery has transformed into a dynamic, customer-focused process that leverages data analytics, automation, and smart logistics solutions to optimize every step of the journey.

Emerging technologies played a pivotal role in enabling this shift. Real-time tracking systems, route optimization software, and mobile applications empowered delivery teams with the tools to plan more efficient routes, reduce fuel consumption, and proactively communicate with customers. Additionally, data analytics provides crucial insights into delivery patterns, resource allocation, and customer preferences, allowing companies to enhance their operations for maximum efficiency. 

These technological developments raised customers' expectations for last-mile delivery as shoppers prioritize speed and convenience, with same-day and even one-hour deliveries becoming standard in many markets. 

Outsourcing last-mile delivery became a strategic priority for many businesses aiming to meet the rising demands of today’s fast-paced and competitive market. By outsourcing last-mile delivery, companies mainly rely on specialized third-party logistics (3PL) providers to handle the critical final stage of the supply chain, instead of managing their own fleets and delivery personnel.

This shift enables businesses to scale operations efficiently without incurring the heavy costs of fleet ownership and management. It also enhances customer experience by providing more localized and flexible delivery options.

Key innovations in last-mile delivery

• Electric and autonomous delivery vehicles. This innovation is ideal in urban locations with frequent stops and short distances. It contributes to reducing carbon emissions, noise pollution, and operational costs. Leveraging AI, GPS, and sensors, autonomous delivery vehicles can navigate complex environments and operate 24/7. Despite these promising benefits, challenges remain in regulatory approval, cybersecurity, and infrastructure adaptation.
• Drone Delivery. This solution rapidly emerged as a transformative power in last-mile logistics as it offers unparalleled speed and flexibility in reaching customers, especially in congested urban centers and remote areas. This ability makes drones ideal for urgent deliveries such as medical supplies, food, and small parcels, where speed is critical. Electric-powered drones produce zero emissions and reduce road congestion, enabling direct deliveries to homes or designated drone ports, supporting sustainable urban logistics. One of the key challenges that delivery drones face is payload and flight range limitations that restrict package size and delivery distance.

Overall, last-mile delivery acts as a critical bridge in the logistics chain, connecting the complex global supply network to individual consumer experiences. Its evolving role requires continuous innovation to meet customer expectations for fast, reliable, and sustainable delivery. Mastering last-mile delivery is not just about moving parcels faster; it’s about crafting exceptional delivery experiences that build trust, loyalty, and a greener future in an ever-connected digital marketplace.