Yes, chemical pest control using drones provides effective results for garden plants. By using the right speed, working width, and approximately 5 to 10 liters of chemical solution, a uniform application can be made from the air. This offers an advantage against plant diseases and pests. Additionally, drones can easily operate in difficult areas where tractors cannot reach, thus preventing yield loss.

Drones can spray or fertilize large areas quickly and effectively, saving time. They can apply treatments precisely to specific areas, leading to more efficient use of pesticides and fertilizers by reducing waste. Drones can easily access difficult or hard-to-reach terrains, making it easier to operate in high or sloped areas. They require less labor compared to traditional methods, which lowers labor costs. Applications made with drones typically consume less water, which is especially advantageous in regions with limited water resources. Additionally, they can apply chemicals in lower doses, reducing environmental impacts.

Chemical pest control using drones can be applied to all field crops. The success of drone-based chemical control in plants such as wheat, barley, corn, cotton, sunflower, and rice depends on the type of plant, the type of disease or pest, the timing of application, and the characteristics of the chemical products used. Therefore, applications made with the right plant and the correct chemical combinations lead to more effective results.

First of all, weather conditions are an important factor. Applications should be made in calm weather, and typically, a mixture of 1 liter or more per decare should be used at a wind speed of 5 m/s or less. In herbicide applications made with drones, mixing with other pesticides should be avoided, as these mixtures can reduce the effectiveness of the application. Additionally, it's important to note that the air temperature should be at least 10 degrees Celsius or higher. Herbicide applications made under these conditions will achieve more effective results in controlling unwanted weeds and protecting plant health.

In fungicide applications conducted with drones, the formulation of the pesticide used is of great importance. During the application, the speed and working width must be adjusted according to the requirements for protective, systemic, and covering agents. It is generally recommended to use at least 2 liters of liquid per decare, which enhances the effectiveness of the application. Additionally, weather conditions should be considered during the application. Fungicide applications should be made when the air temperature is between 15 and 25 degrees Celsius, and wind speeds are at a minimum. These conditions not only enhance the efficacy of the fungicides on the plants but also ensure the accuracy of the application. Fungicide applications made with drones provide a significant advantage in maintaining plant health by ensuring a homogeneous distribution.

When conducting insecticide applications with agricultural drones, there are several important points to consider. First, determining whether the chemical pesticide is contact or systemic is critical for effective application. Contact pesticides are applied to the surface of plants, while systemic ones are absorbed by the plants, providing deeper effects. During the application, the air temperature should be between 15 and 25 degrees Celsius, and wind speed should be at a minimum. These climatic conditions enhance the effectiveness of the insecticides and reduce unwanted losses. Additionally, the application speed and working width should be adjusted based on the pesticide's mode of action. Proper positioning of the drone during the application is essential to ensure even distribution. This approach maximizes the impact on target pests while minimizing environmental effects.

Aerial spraying and fertilizing do not damage the soil structure and do not create any physical pressure on the planted crops. Drones can easily operate in rugged or hard-to-reach areas, providing a quick response when diseases or pests are detected. Drones consume significantly less water compared to tractors and perform more precise applications, preventing chemical loss. This ensures that applications are made at the right time and in the right amounts, leading to increased yields.

The effectiveness of drones in chemical applications is one of the most significant advantages of modern agriculture. Drones create a homogeneous coating on plants, distributing chemicals evenly. This minimizes chemical loss while increasing the accuracy and effectiveness of the application. Drones use less water compared to traditional methods, contributing to water conservation in agriculture, and allow the applied chemicals to penetrate the plants better. As a result, both environmental impact is reduced, and production costs decrease. The precise application capability of drones plays a critical role, especially in combating various pests and preventing diseases. Additionally, this technology positively impacts productivity by enhancing plant health.

Shade powder can be applied with drones, but this application is carried out in greenhouses. In greenhouses, shade powder is applied to the roof, protecting the crops inside from the intensity of sunlight. Shade powder blocks the harmful excess part of sunlight, helping to regulate the temperature inside. Drone technology allows for the precise and homogeneous distribution of this powder on the greenhouse roof, reducing labor and enabling the application to be completed quickly.

Solid fertilizer and seed application with drones is done using a special tank mounted on the drone. This tank can carry both granular fertilizers and seeds, such as rice. Depending on the tank's capacity, the desired amount of fertilizer or seed can be distributed evenly and precisely per decare. The drone's control system allows for the precise adjustment of application rates, enabling the distribution of fertilizer or seeds at the desired kilograms. This method allows for both fertilization and seeding to be carried out quickly and efficiently.

Yes, a specific license is required to operate drones for commercial purposes. You must obtain a certificate or license by completing training based on the UAV classifications: UAV 0, UAV 1, UAV 2, and UAV 3. These training programs consist of both theoretical and practical components and are provided by institutions authorized by the Directorate General of Civil Aviation (DGCA).

Firefighting drones are unmanned aerial vehicles designed to support firefighting operations, featuring heat-resistant materials and high payload capacities. They can typically carry water or firefighting foam. These drones can reach the fire area, transport fire hoses, and spray water or foam at pressures of up to 20 bar to combat fires. They can be remotely controlled or operate automatically according to pre-programmed routes.

Firefighting drones offer the ability to access high areas, rapid response capabilities, and the opportunity to combat fires without risking human lives. They also enhance situational awareness at the fire scene, assisting firefighting teams in making strategic decisions. Firefighting drones are particularly ideal for fires in hard-to-reach or elevated locations. They can be effectively used in wildfires, fires caused by height, and fires occurring in industrial areas.

Our firefighting drone stands out with its heat-resistant design and provides rapid intervention for fires in high areas by carrying fire hoses. Instead of monitoring, this drone can directly apply foam and water at pressures of up to 20 bar to the fire. This capability helps to control fires more quickly, especially in hard-to-reach areas, enhancing the safety of firefighters and providing an effective firefighting process.

The dost-II drone is used for lighting purposes and enables the safe and efficient illumination of large areas. In emergencies and rescues, such as fires, natural disasters, or accidents, there is a need to light up extensive areas. The dost-II offers an effective solution in these scenarios. Features: The drone flies at a height of 328 feet (100 meters) and provides a powerful light output of 30,000 lumens, effectively illuminating a large area. Additionally, this drone can remain airborne for up to 12 hours, providing uninterrupted service for tasks that require long-duration lighting.

Yes, the dost-II drone operates with a wired system. It draws power directly from an energy source, allowing it to function continuously while connected to a power supply. The wired structure enables the drone to provide uninterrupted lighting during long-duration tasks. This feature offers a significant advantage, especially in situations where the safe illumination of large areas is required.

Drone maintenance should be performed regularly to enhance performance and ensure safe flight. Here are the key steps for drone maintenance: Physical Inspection: The drone's body, wings, and other components should be regularly examined. Any cracks, deformations, or damages should be addressed by replacing the affected parts. Motor and Propeller Check: Ensure the motors are functioning correctly, and inspect the propellers before and after each flight. If there is any wear or damage to the propellers, they should be replaced with new ones. Battery Maintenance: Batteries should be checked before and after flights. If there are signs of swelling, leakage, or overheating, the battery should not be used. Batteries should be stored under appropriate temperature and humidity conditions and charged regularly. Software Updates: The drone's control software should be updated regularly with updates provided by the manufacturer. These updates can add new features and fix existing bugs. Cleaning: After flights, the drone should be cleaned of dust and dirt. It should be wiped with a slightly damp cloth, taking care to avoid excessive water that could damage electronic components. Maintenance Records: Keep a record of maintenance activities, inspected components, and replaced parts. This helps in monitoring the drone's performance and planning future maintenance needs. Following these steps for regular maintenance will help ensure long-lasting and safe use of the drone.

Cargo drones are unmanned aerial vehicles designed for the purpose of transporting loads. They are typically used in areas such as package delivery, logistics, and material transport. They can be effectively utilized in various sectors, including e-commerce, emergency medical supply delivery, and food distribution. Their advantages include the ability to reduce costs compared to traditional transportation methods. Factors like fuel savings and decreased reliance on human labor provide economic benefits to businesses. Cargo drones can easily access hard-to-reach areas (such as mountainous regions and islands), which is particularly advantageous in locations with inadequate infrastructure.

Cargo drones can carry loads of up to 50 kg and have a control range of 10 km. With fully autonomous takeoff and landing features, these drones can automatically follow pre-defined routes. Their lightweight and foldable design, featuring a 60 L composite case, allows for easy transport. They can operate in temperatures ranging from -15°C to 50°C, withstand wind resistance of 12 m/s, and reach a flight speed of 30 m/s. Additionally, they provide safe and efficient transport with a dual-mode high-resolution gimbal camera and a winch system capable of carrying 50 kg.

Yes, it is necessary to register the drone after purchasing it. In Turkey, all unmanned aerial vehicle (UAV) systems intended for commercial or private use must be registered with the General Directorate of Civil Aviation (SHGM). The registration process is a necessary step for the legal use of the drone. Applications can be submitted online through the official SHGM website, along with the purchase document (invoice), operator identification information, and the drone's specifications and technical details.