This report provides Transforma Insights’ view on the Unmanned Aquatic and Aerial Vehicles (Drones) market. This segment comprises multiple sub-applications: Very Small UAVs, Small UAVs, Medium UAVs, Large UAVs, Unmanned Surface Vehicles, and Unmanned Underwater Vehicles.
UAVs have gained prominence not only among consumers but also across multiple industries (such as mining, oil and gas, and agriculture) and the security sector (including police departments, armed forces, and security services). Leading use cases include aerial photography and videography, terrestrial mapping, delivering parcels, light shows, and warfare. The use of these drones primarily depends on their physical features, such as size, weight, length of blades, and the distance they can travel. For instance, small UAVs are mostly preferred for short distances and consumer-centric activities such as amateur photography and videography. Medium and large UAVs are used primarily for commercial and military activities.
Regulations play a pivotal role in the drone industry. Each country has its own rules, based on the size, weight, type, and functions of a drone. Countries such as China and the US have specific drone laws for some of their cities. For instance, China does not allow either consumer or commercial drones in Beijing. Large international manufacturers such as DJI, Parrot, and Delair are therefore beholden to selling drones which comply with a multitude of government-directed rulesets.
A full set of forecast data, including country-level forecasts, sector break-downs and public/private network splits, is available through the IoT Forecast tool.
This section of the report begins with the drivers leading to increasing investment and development of drones and then talks about DJI (which dominates around 3/4th of the total market), Skydio, and Parrot, the major vendors of the drone market.
It then explains the emerging trend in the drone industry called drone-in-a-box and explains how it works and its benefits and challenges. For instance, such a solution allows operation without human intervention, in which a drone performs a task, returns to the docking station, charges, and then performs another mission. In terms of advantage, it offers an extremely low response time without the need for an on-site operator.
It also claims that most drone manufacturers and operators are either China or US-based, and then it a tabular format, it provides a comparison of the number of registered drones across specific countries, including China, the US, the UK, Germany, France, Japan, Brazil, Canada, Turkey, India, Australia, Singapore, and the UAE. It then discusses the regulatory environment of UAVs and the communication technology used in them. It provides a table in which UAV regulations across major geographies are listed. The countries included here are the US, Canada, Brazil, the UK, France, China, Australia, Japan, Singapore, South Korea, Saudi Arabia, and the United Arab Emirates. For instance, Japan has two separate drone laws: the Drone Act and the Aviation Act. All drones that weigh less than 100g fall under the scope of the Drone Act, whereas drones weighing more than 100g fall under the Aviation Act and need to be registered.
It also adds that in the recent past, multiple governments have taken stern stands against the use of drones developed in non-friendly nations or countries that could pose a risk to their national security. For example, in 2025, in the US, the Federal Communications Commission imposed a ban on the import and sale of new drone models and critical equipment developed by certain foreign manufacturers, including DJI.
The market development section has been further categorised into the following sections and subsections:
This section of the report expounds upon governments’ use of drones for civilian and military purposes, mostly for monitoring and inspection activities.
This subsection first talks about the use of drones in the government vertical, like providing real-time aerial data for crowd monitoring and surveillance. It also explains how these drones are more efficient, cheaper (in some cases), and easier to deploy when compared to police helicopters, officers, and CCTV cameras. It also talks about how drones are used by the well-armed segments of the police force (like border patrol departments) to monitor sensitive areas like international borders.
This subsection talks about the various uses of drones in military activities, like collecting intelligence data and conducting reconnaissance. It then discusses the benefits of adopting drones for military activities, like reducing equipment spend and limiting the risk for aircrews. Then, it talks about Russia’s invasion of Ukraine as a major driver behind the rapid expansion of the use of drones, since the Ukrainian army now operates an assault drone company in most battalions, and most units are now operating reconnaissance drones. Moreover, in the recent conflict between Iran, Israel, and the US, different types of drones were deployed for multiple applications, including intelligence, surveillance, and reconnaissance (ISR) and air strikes.
It also explains that recent conflicts have shown that small consumer and commercial drones can be used for reconnaissance and as weapons platforms, providing capabilities similar to advanced guided weapon systems at significantly lower financial, logistical, and organisational cost. Besides, militaries worldwide are responding by increasing drone adoption. For example, Japan's Ministry of Defense plans to spend JPY200 billion (USD1.3 billion) on domestic and foreign-made drones by the end of fiscal year 2027. It further adds the importance of jamming solutions for drones, which have proven to be more effective than traditional responses to enemy aircraft, since these systems can break communications between an operator and a drone, preventing them from completing their mission.
This subsection traces the developmental journey of UUVs and talks about how they are now used for multiple roles, including being weapon platforms capable of launching nuclear weapons. It also talks about countries like the UK, the US, China, and France, that are manufacturing and using UUVs for oceanic warfare. It also provides a few examples of relevant IoT deployments in this application, like Lincolnshire Police using DJI drones for public safety.
This section claims that in the administrative sector, drones are primarily used for private security services, like monitoring outdoor events, which in turn, prevents unauthorised access and reduces theft and loss of materials. It then discusses how airborne drones enhance site security by navigating hard-to-reach areas and providing real-time surveillance through aerial photos and videos, and explains that the increasing number of gunfire incidents in schools and universities has led to a new administrative use-case for drones. It also provides an example of relevant IoT deployment in this application: three schools in Florida will deploy drones in a pilot program.
In this section, the focus in primarily on farming and forestry and fishing.
This subsection focuses on the various uses of drones in farming (including crop monitoring and fertiliser and chemical spraying) and the benefits for farmers, like higher productivity and less labour. For instance, the American Farm Bureau Federation estimates that corn, soybean, and wheat farmers in the US can save around USD1.3 billion every year by using drones in their operations. It also expounds upon the forms and features of the drones used in agriculture and the connectivity technology used in them. For instance, drones with thermal cameras can identify irrigation issues or areas receiving little or too much moisture.
It then claims that favourable government policies in countries such as Argentina, Brazil, and India are also paving the way for increased adoption of drones across various agricultural applications. For example, the Indian government offers subsidies and relaxations to farmers who adopt drones, reducing the financial burden on farmers for using drones in carrying out their day-to-day operations. It also talks about the challenges associated with these drones, including their prohibitive cost, which can range between USD10,000-USD20,000.
This section first explains how rotary-wing drones help in mapping forests and how the collected data is used for various purposes, such as fire detection and encroachment detection. It also talks about the drawbacks associated with this method (like lack of cellular network coverage) which makes deploying private networks a viable solution.
It then discusses the use of drones in the fishing industry, like monitoring fish-rearing tanks and enclosures. It also mentions the special features that fishing drones will have, like integrated flotation devices and the ability to use or deploy sonar equipment. It further adds that for fishing net inspection and monitoring, UUVs are also used, although they are more expensive and have additional technical requirements when compared to UAVs. It further charts the communication technologies used by commercial fishing drones, including satellite connectivity. It also talks about a few examples of relevant IoT deployments in this application, like HMC Farms partnering with Tevel Aerobotics Technologies to use drones for harvesting.
This section explains how UAVs are being increasingly adopted in the Arts and Entertainment sector. It claims that drones can cost-effectively capture images and videos from a distant altitude and have started replacing costly equipment like jibs. It then goes for a comparative cost analysis between drones and traditional methods. For instance, a single helicopter costs between USD20,000-40,000 for 10 hours/day, and it has additional costs of pilots, crew members, equipment, and insurance that range between USD8,000-10,000 per helicopter. On the other hand, UAVs and a camera crew cost around USD5,000 per day and can give better shots. It also claims that the low cost of ownership for drones implies that various smaller videographers and content creators can now purchase these drones, and adds that professional video hexacopters (which cost more than quadcopters and have more stability and payload capacity) are being increasingly used for shooting action scenes, sports sequences, and news.
It also explains how the low cost of drone ownership has enabled videographers and content creators to use drones (mostly quadcopters) and take shots as per their requirements. It further discusses drones being used in light shows and projections, talks about the features of those drones, the cost of running a show that involves these drones and explains how these light shows have replaced firework displays. This section also provides a few examples of relevant IoT deployments in this application, like Disney using Intel’s Falcon 8 drones for its light show at Disney World in Florida.
This section focuses on the use of drones in supply chains, especially in last mile delivery. It mentions the companies using drones to deliver goods, including Amazon, Google, Walmart, and UPS, although many of them are in trial phases and are operating across limited geographies. It also mentions that currently, most delivery drones are used to deliver food products, convenience items, and medical supplies.
It then talks about the advantages of using drones in transportation (such as enhanced functions like GPS mapping, sustainability, and improved service time), the features of these drones, and the connectivity technologies used to support them. Case in point, as per a study published by ScienceDirect in May 2023, compared to truck-only delivery, drone deliveries reduce carbon emissions by 25%, shorten delivery time by approximately 21%, and lower total costs by 22%.
It also talks about the challenges of delivery drones, including limited payload capacity and range, and adverse weather conditions. It also talks about drones being used for inventory management operations in warehouses and the benefits of doing so. For instance, in warehouses, drones can be deployed for inventory counting and auditing, thereby reducing error rates and saving time and labour. This section also provides a few examples of relevant IoT deployments in this application, like DTDC collaborating with Skye Air Mobility for last-mile drone delivery.
This section first describes what consumer drones are, and then talks about the most common types of consumer drones: multi-rotor, fixed-wing, and toy drones. It then talks about the features of lightweight consumer drones (like a top speed of 30 mph and a maximum altitude of 400 feet above the ground). It also talks about underwater drones (like Geneinno Titan), their features, types (tethered or wireless), and their uses. It also explains why the market for these drones remains niche, with limited consumer appeal. This section finally discusses a few examples of relevant IoT devices in this application, including the DJI Mavic 3 Pro and the DJI Mini 3 Pro.
This section discusses the features of small UAVs (like lidar sensors and thermal and visual cameras) and their uses (like aerial photography). It then charts how drones are used and their benefits in the mining industry and in the oil and gas industry. For instance, the benefits of drones in mining operations include volumetric surveys that are 60-80% faster than traditional methods. Besides, for O&G companies, UAVs can complete inspections in a quarter of the time taken by humans, which is the equivalent of saving USD5 million per day in terms of downtime losses. It also talks about a few examples of relevant IoT deployments in this application, including HDR using drones for a construction project in Idaho.
The key vendors section lists some of the main providers of products and services related to the market, such as AeroVironment, Autel Robotics, Da-Jiang Innovations (DJI), Parrot, Skydio, and Yuneec International. The report provides profiles of the various vendors, including aspects most relevant to this Application Group, such as product offerings, pricing, financial results, and technology.
In the market forecasts section, we provide a summary of the forecasts from the Transforma Insights IoT Forecast Database:
The report charts the growth in the number of devices, which will grow from 22.1 million in 2025 to 99.6 million in 2035.
Transforma Insights forecasts are compiled on a country-by-country basis. This report includes a regional summary, showing splits between Australasia, Greater China, North America, Europe, Japan, Latin America, MENA, Russia & Central Asia, South East Asia, South Korea, India & South Asia, and Sub-Saharan Africa.
Transforma Insights’ IoT forecasts include splits between the various connectivity technologies as follows: 2G, 3G, 4G, 5G mMTC, 5G non-mMTC, LPWA (non-mMTC), Satellite, Short Range, and Other.
This section discusses which technologies will be used in the Unmanned Aquatic & Aerial Vehicles (Drones) application group.
This part of the report discusses the market growth in terms of revenue (module revenue, service wrap revenue, and VAC revenue). Transforma Insights estimates that the revenue in the Unmanned Aquatic & Aerial Vehicles (Drones) Application Group will grow at a CAGR of 30%.
