DJI Agras T40 Sprayer Agriculture Drone Review

 

 

 

I. Introduction 

A. Brief overview of the DJI Agras T40 

The DJI Agras T40 is an advanced agricultural drone designed and manufactured by DJI, a well-known leader in the drone industry. It is specifically engineered for precision agriculture applications and is tailored to meet the needs of modern farmers and agronomists. Here's a brief overview of the DJI Agras T40:

1. **Purpose**: The Agras T40 is primarily used for crop spraying, which is a critical aspect of precision agriculture. It helps farmers efficiently apply pesticides, fertilizers, and other agricultural inputs to their fields with precision and accuracy.

2. **Payload Capacity**: The drone is equipped with a substantial payload capacity, allowing it to carry a sizable amount of liquid for spraying. This ensures that it can cover a significant area in a single flight, reducing the need for frequent refills.

3. **Spraying System**: It features an advanced spraying system with precision nozzles, enabling even and controlled distribution of pesticides or fertilizers. This contributes to better crop management and resource utilization.

4. **Flight Time**: The DJI Agras T40 offers a commendable flight time on a single battery charge, allowing it to cover large areas in a single operation. This efficiency is crucial for agricultural applications.

5. **Safety Features**: DJI prioritizes safety in its drone design, and the Agras T40 is no exception. It includes obstacle detection and avoidance systems, which help prevent collisions during flight.

6. **Software and Data Analysis**: The drone comes with accompanying software that provides real-time data and analytics, helping farmers make informed decisions about their crops. This data-driven approach enhances overall crop management.

7. **Durability**: The Agras T40 is designed to withstand various weather conditions, making it a reliable tool for farming year-round.

8. **User-Friendly**: DJI has designed the Agras T40 with user-friendliness in mind, ensuring that farmers and operators can easily control and maintain the drone.

In summary, the DJI Agras T40 is a state-of-the-art agricultural drone with a strong focus on precision, efficiency, and user-friendliness. It offers a range of features and capabilities to help modern farmers optimize their crop management, reduce resource usage, and improve overall agricultural productivity.

 

The purpose of writing a review article about the DJI Agras T40 agriculture drone is to provide valuable and comprehensive information to readers, particularly farmers, agronomists, and individuals interested in precision agriculture technology. The review serves several important functions:

1. **Inform and Educate**: The review aims to inform readers about the features, specifications, and capabilities of the DJI Agras T40. It helps readers understand how this agricultural drone can be a valuable tool in modern farming practices.

2. **Decision-Making**: It assists potential buyers or users in making informed decisions about whether the DJI Agras T40 is the right fit for their agricultural needs. This includes understanding its strengths and limitations.

3. **Performance Evaluation**: The review assesses the drone's performance, such as its spraying efficiency, flight capabilities, and precision. This information helps users gauge how well it meets their specific requirements.

4. **User Experience**: By sharing real-world experiences and testimonials from users, the review provides insights into what it's like to use the Agras T40 in actual farming operations.

5. **Cost-Benefit Analysis**: It offers a cost-benefit analysis to help potential buyers evaluate the economic viability of investing in the drone, considering factors such as ROI and resource savings.

6. **Safety and Durability**: The review discusses the safety features and durability of the drone, which are crucial considerations for any potential user.

7. **Future Prospects**: It may also touch on the potential for future developments or upgrades in the drone's capabilities, helping users make decisions about its long-term utility.

8. **Recommendation**: Ultimately, the review concludes with a recommendation, providing an overall assessment of the DJI Agras T40 and whether it's a worthwhile investment for the target audience.

In summary, the review article serves as a comprehensive resource that not only informs readers about the DJI Agras T40 but also guides them in making decisions related to precision agriculture and the adoption of this specific drone technology in their farming practices.

 

B. Purpose of the review article 

The purpose of writing a review article about the DJI Agras T40 agriculture drone is to provide valuable and comprehensive information to readers, particularly farmers, agronomists, and individuals interested in precision agriculture technology. The review serves several important functions:

1. **Inform and Educate**: The review aims to inform readers about the features, specifications, and capabilities of the DJI Agras T40. It helps readers understand how this agricultural drone can be a valuable tool in modern farming practices.

2. **Decision-Making**: It assists potential buyers or users in making informed decisions about whether the DJI Agras T40 is the right fit for their agricultural needs. This includes understanding its strengths and limitations.

3. **Performance Evaluation**: The review assesses the drone's performance, such as its spraying efficiency, flight capabilities, and precision. This information helps users gauge how well it meets their specific requirements.

4. **User Experience**: By sharing real-world experiences and testimonials from users, the review provides insights into what it's like to use the Agras T40 in actual farming operations.

5. **Cost-Benefit Analysis**: It offers a cost-benefit analysis to help potential buyers evaluate the economic viability of investing in the drone, considering factors such as ROI and resource savings.

6. **Safety and Durability**: The review discusses the safety features and durability of the drone, which are crucial considerations for any potential user.

7. **Future Prospects**: It may also touch on the potential for future developments or upgrades in the drone's capabilities, helping users make decisions about its long-term utility.

8. **Recommendation**: Ultimately, the review concludes with a recommendation, providing an overall assessment of the DJI Agras T40 and whether it's a worthwhile investment for the target audience.

In summary, the review article serves as a comprehensive resource that not only informs readers about the DJI Agras T40 but also guides them in making decisions related to precision agriculture and the adoption of this specific drone technology in their farming practices.

 

C. Importance of agriculture drones in modern farming

Agriculture drones have become increasingly important in modern farming due to the numerous benefits they offer. Their adoption has revolutionized the agricultural industry in various ways, making them indispensable tools for modern farmers. Here are some of the key reasons for the importance of agriculture drones in modern farming:

1. **Precision Farming**: Agriculture drones allow for precise and targeted actions in farming operations. They can deliver pesticides, fertilizers, and water with high accuracy, reducing wastage and minimizing the impact on non-target areas.

2. **Crop Health Monitoring**: Drones equipped with various sensors, including multispectral and thermal cameras, can provide real-time data on crop health. This enables early detection of pest infestations, diseases, or nutrient deficiencies, allowing farmers to take corrective measures promptly.

3. **Increased Efficiency**: Drones can cover large agricultural areas in a short time, significantly increasing operational efficiency. This can be especially beneficial during planting, spraying, or crop monitoring activities.

4. **Cost Reduction**: Precision application of resources, such as fertilizers and pesticides, can lead to cost savings for farmers. Additionally, reduced labor costs and fuel consumption contribute to overall cost efficiency.

5. **Data-Driven Decision-Making**: Drones provide valuable data and imagery that can be analyzed to make informed decisions. Farmers can gain insights into crop performance, soil conditions, and weather patterns, allowing for data-driven farming practices.

6. **Environmental Benefits**: By precisely applying inputs and reducing chemical usage, agriculture drones contribute to environmental sustainability. This minimizes the impact on surrounding ecosystems, reduces pollution, and promotes eco-friendly farming practices.

7. **Crop Insurance and Documentation**: Drones can assist in documenting farm conditions for insurance purposes, helping farmers in the event of natural disasters or other unforeseen events.

8. **Time-Saving**: Drones can accomplish tasks in a fraction of the time it would take manual labor, enabling farmers to manage larger areas more efficiently.

9. **Accessibility**: Drones are accessible to both small-scale and large-scale farmers, democratizing technology and allowing even smaller farms to benefit from precision agriculture practices.

10. **Research and Development**: The data collected by agriculture drones can be used for ongoing research and development efforts to improve crop varieties, optimize planting techniques, and advance farming practices.

11. **Scalability**: Drones can be used on a range of farms, from small family farms to large commercial operations. Their scalability makes them versatile tools for the entire agricultural sector.

12. **Rapid Response to Emergencies**: Drones can quickly survey and assess damage from natural disasters, pests, or diseases, allowing farmers to take immediate action to mitigate losses.

In conclusion, agriculture drones play a vital role in modern farming by enhancing efficiency, reducing costs, promoting sustainability, and enabling data-driven decision-making. They are transforming the agricultural landscape and helping farmers adapt to the demands of a rapidly changing world.

II. Specifications and Features

A. Hardware specifications

 Parameters

  • Total weight

  • 38 kg (without battery)
    50 kg (with battery)
  • Max Takeoff Weight[1]

  • Max takeoff weight for spraying: 90 kg (at sea level)
    Maximum takeoff weight for spreading: 101 kg (at sea level)
  • Max Diagonal Wheelbase

  • 2184 mm
  • Dimensions

  • 2800 mm × 3150 mm × 780 mm (arms & propellers unfolded)
    1590 mm × 1930 mm × 780 mm (arms unfolded, propellers folded)
    1125 mm × 750 mm × 850 mm (arms folded)
  • Hovering Accuracy Range (with strong GNSS signal)

  • RTK positioning enabled:
    ±10 cm horizontal, ±10 cm vertical
    RTK positioning disabled:
    ±60 cm horizontal and ±30 cm vertical (radar enabled: ±10 cm)
  • RTK/GNSS Operating Frequency

  • RTK: GPS L1/L2, GLONASS F1/F2, BeiDou B1/B2, Galileo E1/E5
    GNSS: GPS L1, GLONASS F1, Galileo E1, BeiDou B1
  • Hovering Time[2]

  • Hovering without payload: 18 min (@30000 mAh & takeoff weight 50 kg)
    Hovering and spraying with full payload: 7 min (@30000 mAh & takeoff weight 90 kg)
    Hovering and speading with full payload: 6 min (@30000 mAh & takeoff weight 101 kg)
  • Max flight radius can be set

  • 2000 m
  • Max Wind Resistance

  • 6 m/s

Propulsion System - Motor

  • Stator Size

  • 100×33 mm
  • Motor KV Value

  • 48 RPM/V
  • Motor Power

  • 4000 W/rotor

Propulsion System - Propeller

  • Diameter

  • 54 inch
  • Rotor Quantity

  • 8

Dual Atomized Spraying System - Operation Box

  • Operation Box Capacity

  • Full load 40 L
  • Operating Payload

  • Full load 40 kg[1]

Dual Atomized Spraying System - Sprinkler

  • Sprinkler Model

  • LX8060SZ
  • Sprinkler Quantity

  • 2
  • Droplet Size

  • 50-300 μm
  • Max Effective Spray Width[3]

  • 11 m (relative operating altitude 2.5 m, flight speed 7 m/s)

Dual Atomized Spraying System - Water Pump

  • Pump Model

  • Magnetic Drive Impeller Pump
  • Max Flow Rate

  • 6 L/min*2

T40 Spreading System

  • Applicable Materials

  • Solid dry particles with a diameter of 0.5 to 5 mm
  • Spread Tank Volume

  • 70 L
  • Spread Tank Internal Load

  • 50 kg[1]
  • Spread Width of Spreading System[4]

  • 7 m
  • Recommended Operating Temperature

  • 0°C to 40°C (32°F to 104°F)

Active Phased Array Omnidirectional Radar

  • Model Number

  • RD2484R
  • Terrain Follow

  • Max incline: 30°
  • Obstacle Avoidance[5]

  • Sensible distance (horizontal): 1.5-50 m
    FOV: 360° horizontal, ±45° vertical
    Operating conditions: Flying higher than 1.5 m over the obstacle at a speed not exceeding 7 m/s
    Safe distance: 2.5 m (distance between the propeller tip and obstacle when the aircraft is hovering after braking)
    Sensing direction: horizontal omnidirectional avoidance;
    Sensible distance (above): 1.5-30 m
    FOV: 45°
    Operating conditions: Available during takeoff, landing, and ascending when an obstacle is more than 1.5 m above the aircraft
    Safe distance: 2.5 m (distance between the top of the aircraft and the obstacle when the aircraft is hovering after braking)
    Sensing direction: Upward

Active Phased Array Backward and Downward Radar

  • Model Number

  • RD2484B
  • Altitude Detection[5]

  • Within the altitude detection range: 1-45 m
    Fixed altitude range: 1.5-30 m
  • Rear Obstacle Avoidance[5]

  • Sensible distance (rear): 1.5-30 m
    FOV: ±60° horizontal, ±25° vertical
    Operating conditions: Available during takeoff, landing, and ascending when an obstacle is more than 1.5 m behind the aircraft and the flight speed does not exceed 7 m/s
    Safe distance: 2.5 m (distance between the propeller tip and obstacle when the aircraft is hovering after braking)
    Sensing direction: backward

Binocular Vision System

  • Measurable Range

  • 0.4-25 m
  • Effective Sensing Speed

  • ≤7 m/s
  • FOV

  • Horizontal: 90; Vertical: 106°
  • Work Environment Requirements

  • Normal lighting with clearly textured surfaces

Intelligent Remote Controller

  • O3 Pro Operating Frequency[6]

  • 2.4000 to 2.4835 GHz
    5.725 to 5.850 GHz
  • O3 Pro Signal Effective Distance

  • SRRC: 5 km
    MIC/KCC/CE: 4 km
    FCC: 7 km
    (aircraft altitude at 2.5 m in an unobstructed environment with no interference)
  • Wi-Fi Protocol

  • WIFI 6
  • Wi-Fi Operating Frequency[6]

  • 2.4000 to 2.4835 GHz
    5.150 to 5.250 GHz
    5.725 to 5.850 GHz
  • Bluetooth Protocol

  • Bluetooth 5.1
  • Bluetooth Operating Frequency

  • 2.4000-2.4835 GHz
  • Location

  • GPS + Galileo + BeiDou
  • Display Screens

  • 7.02-inch touch LCD with 1920*1200 resolution and 1200cd/m brightness2
  • Supported Aircraft

  • AGRAS T40, AGRAS T20P
  • Operating temperature

  • -20°C to 50°C (-4°F to 122°F)
  • Storage Temperature Range

  • -30°C to 45°C (within one month)
    -30°C to 35°C (between one month and three months)
    -30°C to 30°C (between three months and one year)
  • Charging Temperature

  • 5° to 40°C (41° to 104°F)
  • Internal Battery Life

  • 3.3 hours
  • External Battery Life

  • 2.7 hours
  • Charging Type

  • Use a USB-C charger with a maximum rated power and voltage of 65 W and 20 V. The DJI Portable Charger is recommended.
  • Charging Time

  • Two hours for both internal and internal plus external batteries (to use the official charging method when the aircraft is off)

T40 Intelligent Flight Battery

  • Model

  • BAX601-30000mAh-52.22V
  • Weight

  • Approx. 12 kg
  • Capacity

  • 30000 mAh
  • Voltage

  • 52.22 V

D12000iE Multifunctional Inverter Generator

  • Output Channel

  • 1. DC charging output 42-59.92V/9000W
    2.Power supply for air-cooled heat sink 12 V/6 A
    3.AC output 230V/1500W or 120V/750W [7].
  • Battery Charging Time

  • To fully charge one battery (T40 battery) takes 9-12 mins
  • Fuel Tank Capacity

  • 30 L
  • Starting Method

  • Starting the Generator via the One-Button Start Switch
  • Max Power of Engine

  • 12000 W
  • Fuel Type

  • Unleaded gasoline with RON ≥91 (AKI ≥87) and alcohol content less than 10%
    (*Brazil: unleaded gasoline with RON ≥ 91 and alcohol content of 27%)
  • Reference Fuel Consumption [8]

  • 500 ml/kWh
  • Engine Oil Model

  • SJ 10W-40

 

 

 

 

 

 

 

 

 

 

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