Agricultural spraying drones are changing how farmers and professional application teams manage crop protection, fertilization, and field operations. Compared with conventional ground-based spraying equipment, multirotor drones can access difficult terrain, follow planned flight routes, and apply liquids over crops without requiring machinery to travel directly through the field.

However, not all agricultural spraying drones are designed for the same operating conditions. Tank capacity, spray flow rate, effective spray width, droplet control, flight planning, battery logistics, and local service support all influence which platform is suitable for a particular operation.

This guide compares five agricultural multirotor platforms from DJI, XAG, EFT, Hylio, and EAVISION. It examines their published specifications, application capabilities, and theoretical coverage based on a consistent spray-volume assumption. The goal is to help operators narrow options using transparent criteria rather than to declare a single overall winner.

• Quick Comparison: Key Specifications
• 1. DJI Agras T50
• 2. XAG P100 Pro
• 3. EFT Z80
• 4. Hylio ARES
• 5. EAVISION EA-J150
• Theoretical Spray Coverage
• How to Choose the Right Agricultural Spraying Drone
• Frequently Asked Questions
• Conclusion

Quick Comparison: Key Specifications

Specifications should be reconfirmed against the current model version and configuration before purchase. Maximum flow rates and spray widths are not necessarily achieved simultaneously. Local regulations, battery systems, and service availability can be decisive factors beyond the numbers above.

1. DJI Agras T50: Integrated Agricultural Drone Platform

The DJI Agras T50 is designed for professional agricultural operations, combining a 40 L spray tank with automated flight functions and integrated spraying and spreading systems.

Key Specifications

• Spray tank capacity: 40 L
• Maximum spray flow rate: 16 L/min with two sprinklers; up to 24 L/min with four sprinklers
• Published spray width: 4–11 m
• Spreading tank volume: 75 L
• Maximum spreading payload: Up to 50 kg, depending on configuration

What Stands Out

The Agras T50 integrates spraying, spreading, and flight-planning functions into an agricultural drone ecosystem. For operators already familiar with DJI agricultural equipment, existing workflows, operator training, spare-parts networks, and local service arrangements may reduce the learning curve and downtime risk.

Its integrated application system is designed to support different crop-treatment tasks. Buyers should evaluate the aircraft together with its application equipment, operating software, battery system, and available local support rather than tank size alone.

What to Consider

Tank capacity and maximum flow rate do not establish actual field productivity. Operators should also evaluate application settings, crop conditions, battery endurance, maintenance requirements, and local technical support. The 40 L tank offers lower theoretical coverage per fill than several larger platforms in this comparison, which may increase refill frequency on large jobs.

Best suited for: Operators looking for an integrated agricultural drone platform with established ecosystem support for spraying and spreading applications.

2. XAG P100 Pro: High-Capacity Crop-Protection Platform

The XAG P100 Pro is designed for professional spraying and spreading applications. Its 50 L spray tank offers greater nominal liquid capacity than the DJI Agras T50’s 40 L tank.

Key Specifications

• Spray tank capacity: 50 L
• Published maximum spray flow rate: Up to 22 L/min
• Published spray width: 5–10 m
• Granule container capacity: 80 L, depending on configuration

What Stands Out

The P100 Pro combines a high-capacity spray tank with a system designed for professional crop-protection work. Its published specifications make it relevant to operators comparing tank capacity, spray-system output, and integrated agricultural functions.

Its spraying and spreading capabilities may be useful for agricultural operations that require different application methods. The appropriate configuration depends on crop type, application requirements, and operating conditions.

What to Consider

Maximum flow rate is only one part of spraying performance. Droplet size, application rate, nozzle configuration, crop canopy, wind conditions, and flight settings all affect application quality. A higher maximum flow rate does not automatically mean better spray coverage or lower chemical consumption.

Best suited for: Agricultural operators comparing higher-capacity multirotor platforms for spraying and spreading operations who value a balance between tank size and established product maturity.

3. EFT Z80: Heavy-Load Platform for Spraying, Spreading & Lifting

The EFT Z80 is positioned as a heavy-load agricultural drone platform designed to support spraying, granular spreading, and aerial lifting through a modular configuration. Its 80 L spray tank and 120 L spreading container provide greater nominal capacity than the 40–70 L spray tanks of the other models in this comparison.

Key Specifications

• Spray tank capacity: 80 L
• Maximum spray flow rate: 36 L/min
• Published effective spray width: 5–10 m
• Droplet size range: 50–500 μm
• Spreading container capacity: 120 L
• Maximum spreading output: Up to 400 kg/min when tested with compound fertilizer (material-dependent)
• Maximum lifting payload: 80 kg
• Maximum takeoff weight: 149.9 kg
• Protection rating: IP65

What Stands Out

High-capacity spraying system. The Z80 features an 80 L spray tank, dual flexible-impeller pumps, and four centrifugal nozzles. Its published maximum flow rate is 36 L/min, with an effective spray width of 5–10 m and an adjustable droplet size range of 50–500 μm. Actual application performance depends on the selected flow rate, droplet size, flight speed, crop canopy, and required application volume.

Large-capacity spreading system. The platform uses a 120 L spreading container with interchangeable augers for different granular materials. The listed maximum spreading output of 400 kg/min is material-dependent and should not be treated as a universal rate for all seeds, fertilizers, or granular products.

Modular design. The Z80 supports spraying, spreading, and lifting configurations. Quick-swap design allows the platform to be adapted to different agricultural tasks, subject to applicable equipment and payload limits. Buyers should evaluate the required accessories, configuration changes, operating procedures, and service needs for each application.

Flight-planning functions. Published product information describes app-based work-mode recognition, route planning, and KML file import. Optional radar functions support terrain prediction and automatic slope ascent under the manufacturer’s specified conditions. Availability and performance depend on the selected configuration and operating environment.

What to Consider

The 80 L spray tank provides greater nominal liquid capacity than the 40 L, 49.2 L, 50 L, and 70 L tanks in this comparison. At the same application rate this can increase theoretical coverage per full tank and potentially reduce refill frequency. However, a larger tank must be weighed against aircraft weight, battery endurance, field layout, and refill logistics. Maximum spray flow rate should not be interpreted as a guarantee of higher acreage per hour.

Operators should also distinguish between the platform’s spraying, spreading, and lifting configurations. Payload limits and operating requirements differ by application. Parts availability, training, and local technical support should be confirmed for the intended market.

Best suited for: Agricultural operators, spraying contractors, and UAV businesses evaluating a heavy-load multirotor platform that can be configured for spraying, spreading, and lifting tasks.

4. Hylio ARES: Professional Agricultural Operations Platform

Hylio’s ARES is an agricultural UAV platform designed for spraying and spreading applications. Its specifications distinguish between the liquid-spraying and granular-spreading configurations.

Key Specifications

• Spray tank capacity: Approximately 13 US gallons (≈ 49.2 L)
• Published maximum spray width: Up to 12 m
• Spreading configuration: Different container and payload specifications from the spraying configuration

What Stands Out

ARES is worth evaluating for operators considering professional agricultural drone platforms and the associated training, service, and technical-support arrangements. Hylio provides application equipment and software intended for agricultural treatment operations. Suitability depends on the target crops, required application method, selected configuration, and the support available in the operating region.

What to Consider

Confirm the current model configuration, spray-system specifications, payload limits, and local support arrangements before comparing it directly with other platforms. The manufacturer’s maximum spray width should be interpreted in context: crop canopy, wind, droplet size, flight altitude, and application rate can all affect the effective working width.

Best suited for: Professional agricultural operators evaluating configurable UAV spraying and spreading systems, particularly where regional support and training are important selection factors.

5. EAVISION EA-J150: High-Capacity Multirotor for Agricultural Operations

The EAVISION EA-J150 is a heavy-duty agricultural multirotor designed for spraying, spreading, and related agricultural operations. Its 70 L rated spray tank and published maximum flow rate of 40 L/min place it in a higher-capacity category than the 40–50 L spray tanks of several other models in this comparison.

Key Specifications

• Rated spray tank capacity: 70 L
• Full-load tank capacity: 73 L
• Maximum spray flow rate: 40 L/min (±5%)
• Published effective spray width: 4–15 m
• Droplet size range: 10–300 μm
• Number of spray nozzles: Two or four, depending on configuration
• Spreading container capacity: 100 L

What Stands Out

The EA-J150 features EAVISION’s CCMS® bimodal mist nozzle technology and an application system designed to support different droplet sizes. The manufacturer also describes airflow-assisted spraying intended to improve droplet distribution within crop canopies. Its larger tank can reduce the theoretical number of refills required for a given liquid application volume. The actual benefit depends on the target application rate, field layout, travel distance, refill logistics, and usable tank volume.

What to Consider

The maximum published flow rate and spray width should not be interpreted as performance values achieved simultaneously in every operating condition. Buyers should confirm the appropriate nozzle configuration, application settings, and field performance for their intended crops, and verify local service and parts support.

Best suited for: Agricultural operators and service providers evaluating a higher-capacity multirotor for large fields, demanding spray applications, and varied crop environments.

Theoretical Spray Coverage: How Much Area Can a Full Tank Cover?

Tank capacity is a useful starting point when comparing agricultural spraying drones. However, theoretical coverage per tank is not the same as actual field productivity.

To compare nominal spray capacity using a consistent assumption, the calculations below use an application rate of 2 US gallons per acre (approximately 7.57 L per acre or 18.7 L per hectare).

Calculation formula:
Theoretical coverage per full tank = Spray tank capacity ÷ Application rate per acre

Example: An 80 L spray tank ÷ 7.57 L per acre ≈ 10.6 acres of theoretical coverage.

Estimated Coverage at 2 US gal/acre

These are theoretical liquid-capacity calculations, not measured field productivity or exact refill counts. Values are rounded. Actual usable volume, residual liquid, and operational factors will differ.

How Should These Figures Be Interpreted?

Under the same assumed application volume, larger tanks (such as the 80 L and 70 L options) can theoretically cover more acreage per full tank and may reduce the number of refills required for a given total volume. This advantage must be balanced against battery endurance, aircraft weight, refill logistics, and field layout.

Actual productivity also depends on:

• Flight speed and effective spray width
• The required application rate for the crop and treatment
• Battery endurance and battery-change time
• Refill and mixing logistics
• Field shape, obstacles, and travel distance
• Weather, wind drift, and operating restrictions
• Setup, cleaning, and maintenance time

For a meaningful productivity comparison, operators should evaluate each model under comparable conditions and measure completed acreage per hour, liquid application accuracy, battery turnaround, and total operational time.

How to Choose the Right Agricultural Spraying Drone

The most suitable agricultural drone depends on the operation, not just one specification. Use the following decision factors as a practical checklist.

1. Match Tank Capacity to the Application

A larger tank may reduce refill frequency, but the appropriate capacity depends on the crop, required application rate, field layout, aircraft operating limits, and battery performance under load. For large continuous areas, higher-capacity platforms (70–80 L) can reduce the number of cycles; for smaller or fragmented fields the benefit may be smaller.

2. Compare the Complete Spray System

Review maximum flow rate, nozzle type, droplet-size range, spray width, and flow-control functions together. No single specification establishes overall spraying quality. Match droplet size and application volume to the target crop and product label requirements.

3. Consider Spraying, Spreading, and Lifting Requirements

If an operation includes both liquid and granular applications (or occasional material lifting), check whether the aircraft supports the required configurations, what equipment changes are needed, and what payload limits apply. Modular platforms can consolidate equipment but require clear procedures for reconfiguration and safety.

4. Evaluate Flight Planning and Positioning

RTK positioning, route planning, route resumption, and terrain-following functions can improve consistency on repeatable agricultural tasks. Confirm which functions are included in the exact configuration being considered and under what environmental conditions they are validated.

5. Assess Parts Availability and Technical Support

Parts supply, training, troubleshooting resources, and local service arrangements strongly influence long-term usability—especially during time-sensitive spraying windows. Ask distributors about typical spare-parts lead times, warranty coverage, and available operator training.

6. Verify Local Operating Requirements

Agricultural drone operations may be subject to aviation rules, pesticide application licensing, and other local regulations. Requirements vary by jurisdiction, aircraft, operation type, and substances being applied. Confirm the rules applicable to your intended operation before purchase or deployment.

Frequently Asked Questions

What is the best agricultural spraying drone in 2026?

There is no single best agricultural spraying drone for every operator. The right choice depends on tank capacity needs, spray-system requirements, crop and field conditions, flight-control functions, technical support availability, total cost of ownership, and local operating regulations.

Is an 80 L agricultural drone better than a 50 L model?

An 80 L tank provides greater nominal liquid capacity than a 50 L tank. At the same application volume per acre it offers greater theoretical coverage per full tank and may reduce refill frequency. However, tank capacity alone does not determine overall spraying performance or daily productivity. Application rate, spray quality, flight speed, battery endurance, weight, and operating conditions also matter.

Does a higher spray flow rate mean better spraying performance?

Not necessarily. Maximum flow rate describes the system’s liquid-delivery capacity under specified conditions. Effective application also depends on droplet size, nozzle configuration, crop canopy, flight altitude, speed, and the required application rate. Matching the system to the crop and product label is more important than peak flow numbers.

Can one agricultural drone handle spraying, spreading, and lifting?

Some agricultural platforms support multiple applications through interchangeable equipment. Several models in this comparison offer both spraying and spreading configurations; a smaller number also support lifting within defined payload limits. Operators should confirm equipment requirements, payload limits, and operating procedures for each intended application.

How can agricultural drone productivity be compared fairly?

Use the same application rate and comparable crop and field conditions wherever possible. Compare actual treated area, liquid consumption accuracy, battery changes, refill time, downtime, and application quality rather than relying solely on tank capacity or maximum advertised coverage figures.

Conclusion: Choose According to Your Operating Needs

The DJI Agras T50, XAG P100 Pro, EFT Z80, Hylio ARES, and EAVISION EA-J150 represent five multirotor agricultural spraying platforms with different tank capacities, application systems, and operating characteristics.

• DJI Agras T50 — Integrated agricultural platform with established ecosystem support; 40 L spray tank.
• XAG P100 Pro — 50 L spraying configuration aimed at professional crop-protection work.
• EFT Z80 — Highest nominal spray tank capacity in this group (80 L) plus 120 L spreading and lifting options for multi-task operations.
• Hylio ARES — Configurable professional platform (≈ 49.2 L) where regional support and training are key considerations.
• EAVISION EA-J150 — Higher-capacity option with 70 L rated tank and wide published spray width range.

Published specifications and standardized calculations help operators narrow options, but they should not be mistaken for independently verified field-performance results. The final decision should account for the intended application, operating conditions, equipment configuration, maintenance, battery logistics, and technical support in your region.

Operators who primarily need integrated ecosystem support may lean toward platforms with mature service networks. Those prioritizing maximum liquid capacity and multi-role flexibility (spraying + spreading + lifting) will naturally look more closely at the higher-capacity modular options. In all cases, request current configuration details, demonstrate the aircraft if possible, and verify local regulatory and support conditions before committing.