Foxtech Provides Industrial Drone Solutions & UAV Payload Systems.
in door drone provided by FOXTECH HOBBY CO.,LIMITED is the top product in the industry. Since its development, its application in the field is becoming more and more extensive. Our design team keeps a close eye to its development so that the ever-changing market needs can be met. We adopt the latest technology to ensure that it is at the forefront of the market.
Foxtech products are well-known in the industry. These products enjoy a wide market recognition which is reflected by the increasing sale volume in the global market. We have never received any complaints about our products from customers. These products have attracted much attention not only from customers but also from competitors. We gain greater support from our customers, and in return, we will do our best to produce more and better best quality products.
At Foxtech, we have successfully established a relatively complete service system. The customization service is available, the technical service including online guidance is always a standby service, and the MOQ of in door drone and other products is negotiable as well. The above-mentioned are all for customer satisfaction.
Drone Mapping Operations
Drone image stitching software Photoscan (software installation, cracking, localization, etc.)
Detailed explanation of software interface and functions (menu bar, toolbar, workspace, model interface, etc.)
Basic software operation learning and practice (image loading, visualization, preprocessing, etc.)
Introduction to different image stitching modes (individual 3D modeling, orthophoto aerial mapping, etc.)
General process of image stitching (image alignment, point cloud generation, point cloud editing, orthophoto, digital elevation model, etc.)
Batch processing implementation of image stitching workflow (writing and saving batch processing files, etc.)
Image group stitching and merging (image grouping, different chunks, chunk alignment, chunk merging, etc.)
Geometric correction of images using ground control points (planning of control point layout, control point measurement, image geometric correction, etc.)
Point cloud classification operations and practice (automatic classification, manual classification, etc.)
Visualization of image stitching results (orthophoto, digital elevation model, contour lines, etc.)
Geometric measurement of image stitching results (point coordinates, length, area, volume, etc.)
Exporting image stitching results (JPG format, TIFF format, Google Earth format, etc.)
Generation of project report for image stitching workflow (report interpretation)
Advantages of Drone Technology
High Precision: Drone aerial survey technology uses high-resolution cameras and multispectral sensors to obtain high-definition images and multi-band data of the surface, enabling high-precision mapping and investigation.
High Efficiency: Drone aerial survey technology has the ability of quick response and efficient operation, allowing large-scale mapping and investigation tasks to be completed in a short time.
Low Cost: Compared with traditional surveying methods, drone aerial survey technology has lower costs. With the popularization of drones and other small aircraft, the equipment cost and operation threshold of aerial survey have been reduced.
Flexibility: Drone aerial survey technology is flexible and scalable, allowing customized design and application according to different task requirements.
Development Trends of Drones
Intelligentization: With the continuous development of artificial intelligence technology, drone mapping will achieve more intelligent data acquisition and processing. Through machine learning and deep learning algorithms, drones will be able to autonomously judge and optimize mapping paths, improving the accuracy and value of data.
Integration: Future drone mapping systems will be more integrated, combining multiple sensors and devices on the drone platform to achieve synchronous acquisition and processing of multi-source data.
Real-time Capability: With the development of 5G, cloud computing, and other technologies, the data transmission and processing of drone mapping will become more real-time. Users can obtain mapping results in real time for decision analysis.
Standardization: With the popularization of drone mapping technology and the expansion of its application fields, relevant standards and specifications will be further improved. This will help standardize the application and management of drone mapping technology and improve the quality and reliability of mapping results.
Drones have revolutionized various industries with their ability to capture aerial images and videos efficiently and effectively. In the construction sector, drones equipped with photogrammetry cameras have become an indispensable tool for project managers, engineers, and surveyors. These high-tech devices offer numerous advantages that help streamline construction processes, enhance safety, and improve overall project outcomes. In this article, we will delve into why using a drone photogrammetry camera on construction sites is crucial for success.
Improved Site Surveying and Mapping Capabilities
Drone photogrammetry cameras provide construction professionals with unmatched capabilities for site surveying and mapping. These advanced cameras can capture high-resolution images and create detailed 3D models of construction sites in a fraction of the time it would take using traditional surveying methods. The data collected by drone cameras can be used to create accurate topographic maps, measure distances, and identify potential obstacles or safety hazards on the site. With this level of detailed information, project managers can make informed decisions and plan construction activities more effectively.
Enhanced Project Monitoring and Progress Tracking
One of the key benefits of using a drone photogrammetry camera on construction sites is the ability to monitor project progress in real-time. Drones can be programmed to fly over the construction site at regular intervals, capturing images and videos that provide valuable insights into the status of the project. This data can be used to track construction progress, identify delays or bottlenecks, and ensure that the project stays on schedule. By having a bird's-eye view of the site, project managers can quickly identify any issues that may arise and take corrective action before they escalate.
Enhanced Safety and Risk Management
Safety is a top priority on any construction site, and drones equipped with photogrammetry cameras can help enhance safety measures and mitigate risks. By using drones to inspect hard-to-reach or hazardous areas of the site, construction workers can avoid potential accidents and injuries. Drones can also be used to identify safety hazards such as unstable structures, damaged equipment, or unauthorized personnel on the site. By proactively addressing safety concerns, construction teams can create a safer work environment and reduce the likelihood of accidents occurring.
Cost-Effective Construction Planning and Design
Using a drone photogrammetry camera for construction site planning and design can result in significant cost savings for project owners. Traditional surveying methods can be time-consuming and expensive, requiring manual labor and equipment to gather data on site conditions. Drones, on the other hand, can quickly capture accurate data at a fraction of the cost, allowing project managers to allocate resources more efficiently. By using drone data for planning and design, construction teams can optimize workflows, reduce material wastage, and minimize rework, ultimately saving time and money on construction projects.
Enhanced Collaboration and Communication
Effective communication and collaboration are essential for the success of any construction project, and drones equipped with photogrammetry cameras can facilitate better collaboration among project stakeholders. By sharing drone-captured images and videos, architects, engineers, contractors, and clients can gain valuable insights into the project's progress and make informed decisions together. Drones can also be used to conduct virtual site visits, allowing stakeholders to remotely view and inspect the site without having to be physically present. This level of collaboration can help keep all parties informed and aligned, leading to better project outcomes and higher satisfaction among stakeholders.
In conclusion, using a drone photogrammetry camera on construction sites offers numerous benefits that can help streamline construction processes, enhance safety, and improve overall project outcomes. From improved site surveying and mapping capabilities to enhanced project monitoring and progress tracking, drones can revolutionize the way construction projects are planned, executed, and managed. By harnessing the power of drone technology, construction professionals can work more efficiently, cost-effectively, and collaboratively, ultimately leading to successful project completion.
Drones have become increasingly popular for a wide range of applications, including photography, videography, surveying, and even search and rescue missions. As drone technology continues to advance, one crucial component that dictates the performance and capabilities of a drone is the controller. Long-range drone controllers are particularly important for enthusiasts or professionals who require extended flight distances and more precise control over their drones.
Enhanced Range
One of the most critical features that a long-range drone controller should include is enhanced range. The range of a drone controller refers to the maximum distance between the controller and the drone that still allows for reliable communication and control. Having an extended range is essential for various applications, such as capturing footage in remote areas or inspecting large structures from a safe distance.
To achieve enhanced range, long-range drone controllers typically utilize advanced radio transmission technologies, such as frequency-hopping spread spectrum (FHSS) or adaptive frequency hopping spread spectrum (AFHSS). These technologies allow the controller to maintain a stable connection with the drone over longer distances, even in the presence of interference from other wireless devices or environmental factors.
Additionally, long-range drone controllers may also feature high-gain antennas or signal boosters to further extend the communication range. These antennas can improve signal strength and reduce signal loss, ensuring that the drone remains responsive to the controller's commands even at far distances.
In selecting a long-range drone controller, it is crucial to consider the specific range requirements of your intended use case. Some controllers may offer ranges of up to several kilometers, while others may be suitable for shorter distances. By selecting a controller with an appropriate range, you can ensure that your drone remains within communication range at all times, minimizing the risk of signal loss and potential accidents.
Advanced Control Features
In addition to enhanced range, a long-range drone controller should include advanced control features that provide users with more precise and intuitive control over their drones. These features can enhance the overall flying experience and allow users to capture smoother and more professional-looking footage.
One essential control feature to look for in a long-range drone controller is a high-quality gimbal control system. The gimbal is responsible for stabilizing the camera mounted on the drone, ensuring that the footage remains smooth and steady even during fast maneuvers or in windy conditions. A controller with robust gimbal control capabilities allows users to adjust the camera angle, tilt, and rotation with precision, enabling them to capture the perfect shot every time.
Another important control feature is customizable flight modes, such as waypoint navigation or follow-me mode. These modes allow users to program specific flight paths or commands into the controller, freeing up their hands to focus on capturing creative shots. By selecting the appropriate flight mode, users can automate certain aspects of the flight, such as circling a subject or maintaining a consistent altitude, while still maintaining full control over the drone's movement.
Furthermore, a long-range drone controller should also provide users with real-time telemetry data, such as GPS position, battery level, and signal strength. This information can help users monitor the drone's status and make informed decisions during flight, such as adjusting the flight path to avoid obstacles or returning to the launch point before the battery runs out.
By incorporating advanced control features into a long-range drone controller, users can enhance their flying experience and unlock new creative possibilities. Whether you are a seasoned professional or a hobbyist looking to push the boundaries of drone photography, having access to precise and intuitive controls is essential for capturing stunning aerial footage.
Ergonomic Design
An often-overlooked aspect of a long-range drone controller is its ergonomic design. A well-designed controller not only enhances comfort during extended flight sessions but also improves overall control accuracy and responsiveness. The controller should feel comfortable in the user's hands and provide easy access to essential buttons and controls without causing fatigue.
When selecting a long-range drone controller, consider the size and shape of the controller body, as well as the placement of the control sticks and buttons. The controller should fit comfortably in your hands, allowing for a natural grip and easy access to all controls without straining your fingers or wrists.
Additionally, the weight of the controller is another crucial factor to consider, especially if you plan to use it for extended periods. A lightweight controller is easier to hold for long durations without causing discomfort or fatigue, while a heavy controller may lead to hand cramps or reduced control precision.
Some long-range drone controllers also feature adjustable control stick tension, allowing users to customize the resistance of the control sticks to suit their preferences. This feature can improve control accuracy and responsiveness, as users can fine-tune the sensitivity of the controls based on their flying style and preferences.
By selecting a long-range drone controller with an ergonomic design, users can enjoy a more comfortable and intuitive flying experience, allowing them to focus on capturing stunning aerial footage without distractions or discomfort.
Intuitive User Interface
Another essential feature that a long-range drone controller should include is an intuitive user interface. The controller's interface plays a crucial role in how users interact with and control the drone, influencing their overall flying experience and ease of use.
A user-friendly interface should provide clear and concise feedback, such as visual indicators for battery level, signal strength, and GPS position. These indicators help users monitor the drone's status at a glance, allowing them to make quick decisions during flight without needing to navigate complex menus or settings.
Furthermore, the controller should feature an easy-to-read display screen that shows essential flight information, such as altitude, speed, and distance from the controller. A high-resolution screen with bright colors and clear graphics enhances visibility in various lighting conditions, ensuring that users can easily read the information displayed on the screen even in bright sunlight or low-light environments.
Additionally, a long-range drone controller should offer customizable control settings that allow users to adjust the sensitivity of the control sticks, customize buttons and switches, and program specific flight modes. By providing users with the ability to customize their control preferences, the controller can adapt to different flying styles and skill levels, catering to both beginners and experienced pilots.
Incorporating an intuitive user interface into a long-range drone controller enhances the overall user experience and enables users to focus on capturing stunning aerial footage without getting bogged down by complicated control systems or settings.
Long Battery Life
One final feature that a long-range drone controller should include is a long battery life. The controller's battery life directly impacts the duration of a flight session, as a dead controller battery can lead to a loss of control over the drone and potential accidents. To prevent this, long-range drone controllers should feature long-lasting batteries that can sustain extended flight times without requiring frequent recharging.
When choosing a long-range drone controller, look for controllers with rechargeable lithium-ion batteries that offer extended runtimes on a single charge. Some controllers may also support fast charging capabilities, allowing users to quickly recharge the battery between flights and minimize downtime.
Additionally, it is essential to consider the power consumption of the controller's display screen, wireless transmission technologies, and control features. Controllers with energy-efficient components and power-saving modes can help prolong battery life and ensure that the controller remains operational throughout the entire flight session.
By selecting a long-range drone controller with a long battery life, users can enjoy extended flight times and more flexibility in capturing aerial footage without the need to constantly monitor the battery level or return the drone to the launch point for recharging.
In summary, a long-range drone controller should include enhanced range, advanced control features, ergonomic design, an intuitive user interface, and a long battery life to provide users with a superior flying experience and enable them to capture stunning aerial footage with ease. By selecting a controller that ticks all the boxes in these key features, drone enthusiasts and professionals can unlock new creative possibilities and push the boundaries of drone photography and videography.
Drones have become increasingly popular devices for various purposes, including photography, surveillance, and entertainment. One of the key features that many users look for in a drone is its ability to perform well in low light conditions, especially when it comes to surveillance cameras. In this article, we will explore how a drone surveillance camera functions in low light and what factors influence its performance.
Understanding Low Light Performance
Low light performance is a crucial factor to consider when choosing a drone surveillance camera. In general, most drones are equipped with image sensors that determine how well they can capture images in low light conditions. The size of the image sensor plays a significant role in determining the camera's performance in low light. Larger sensors tend to perform better in low light as they can capture more light, resulting in clearer and sharper images.
Moreover, the aperture of the camera lens also affects its low light performance. A wider aperture allows more light to enter the camera, which is beneficial when shooting in low light conditions. The f-stop value of the lens indicates its aperture size, with lower f-stop values corresponding to wider apertures. Therefore, a drone surveillance camera with a low f-stop value is likely to perform better in low light compared to one with a higher f-stop value.
Additionally, the sensitivity of the camera sensor to light, known as ISO, plays a crucial role in low light performance. Higher ISO settings allow the camera to capture more light and produce brighter images in low light conditions. However, increasing the ISO can also introduce digital noise, affecting the overall image quality. Finding the right balance between ISO and noise is essential for achieving optimal low light performance.
Factors Affecting Low Light Performance
Several factors can influence the low light performance of a drone surveillance camera. One of the primary factors is the quality of the camera sensor. Higher quality sensors with larger pixel sizes tend to perform better in low light, as they can capture more light and produce clearer images. On the other hand, lower quality sensors may struggle to deliver satisfactory results in low light conditions.
The type of lens used in the drone surveillance camera also plays a crucial role in determining its low light performance. Prime lenses with fixed focal lengths often have wider apertures compared to zoom lenses, making them more suitable for shooting in low light. Additionally, the quality of the lens coatings can affect its light transmission capabilities, influencing the camera's performance in low light conditions.
Furthermore, the drone's stabilization system can impact the low light performance of its surveillance camera. A stable platform is essential for capturing sharp images in low light, as any movement or vibration can result in blurry photos or videos. Drones equipped with gimbal stabilization systems are more likely to produce stable footage in low light conditions, ensuring better overall image quality.
Advanced Features for Low Light Performance
To enhance their low light performance, some drone surveillance cameras come equipped with advanced features and technologies. One such feature is image stabilization, which helps reduce camera shake and motion blur in low light conditions. This feature is particularly useful when capturing footage during flights or windy conditions, ensuring that the images remain sharp and clear.
Another advanced feature found in some drone cameras is noise reduction technology, which helps minimize digital noise in low light images. By intelligently processing the image data, these cameras can produce cleaner and more detailed photos and videos even in challenging lighting situations. This technology is particularly beneficial for surveillance purposes, where capturing clear and high-quality footage is essential.
Moreover, some drone surveillance cameras offer night vision capabilities, allowing them to capture images in complete darkness. These cameras use infrared technology to illuminate the scene and produce visible images even in the absence of natural light. Night vision cameras are ideal for surveillance applications that require capturing footage in low light or no light conditions, providing a comprehensive surveillance solution.
Testing Drone Surveillance Cameras in Low Light
Before purchasing a drone surveillance camera for low light applications, it is essential to test its performance in real-world conditions. Conducting tests in various low light scenarios, such as at dusk or dawn, indoors, or in poorly lit environments, can help assess the camera's capabilities and limitations. Pay attention to factors such as image quality, noise levels, exposure settings, and overall performance when testing the camera in low light.
When testing a drone surveillance camera in low light, consider adjusting the camera settings to optimize its performance. Experiment with different ISO settings, aperture values, and exposure levels to find the ideal configuration for capturing clear and sharp images in low light conditions. Additionally, consider using auxiliary lighting sources, such as LED lights or strobes, to enhance the camera's performance in challenging lighting situations.
Conclusion
In conclusion, the performance of a drone surveillance camera in low light depends on various factors, including the image sensor size, lens aperture, ISO sensitivity, and stabilization system. By understanding how these factors influence the camera's low light performance and considering advanced features such as image stabilization, noise reduction, and night vision capabilities, users can choose a drone camera that meets their specific surveillance needs. Conducting thorough tests and experiments in low light conditions can help evaluate the camera's performance and ensure optimal results when capturing images and videos in challenging lighting situations. Whether for security monitoring, wildlife observation, or creative photography, a drone surveillance camera with excellent low light performance can be a valuable tool for capturing clear and high-quality footage in any lighting conditions.
Introducing the L-380 – A High-Performance Autonomous Drone Designed for Complex, Confined Spaces
As industries push toward intelligent operations and digital transformation, traditional manual inspections inside confined spaces—such as tunnels, utility corridors, or industrial boilers—face increasing challenges. These environments are often GPS-denied, hazardous, and difficult for personnel to access safely. Indoor drones are emerging as the ideal solution, offering a safer, more efficient, and data-rich alternative to manual inspections.
The L-380 is a compact, fully enclosed industrial-grade drone engineered specifically for indoor and GPS-denied environments. Equipped with advanced 3D LiDAR positioning, it navigates autonomously with centimeter-level precision—completely independent of GPS, magnetic, or electromagnetic signals. Its coaxial quad-rotor architecture (four arms, eight propellers) and lightweight 379mm frame make it ideal for tight, complex environments.
To ensure operational safety and durability, the L-380 features a high-strength collision-resistant structure that absorbs impacts and automatically stabilizes after collision events up to 5 m/s. It also supports fault-tolerant flight, allowing for safe landing even in the event of partial propeller failure.
Powered by a high-voltage 9600mAh battery, the L-380 delivers over 15 minutes of flight per charge with less than 30 minutes of charging time—making it fast to deploy and suitable for high-frequency missions. An integrated 15,000-lumen LED fill light ensures clear visibility even in total darkness. Operators can effortlessly switch between manual and autonomous flight modes with a single button.
For 24/7 operations, the L-380 is fully compatible with an automated charging nest, enabling unattended, continuous deployment.
The L-380 is designed for real-world industrial scenarios where traditional drones and human operators fall short. Its core use cases include:
The drone excels in inspecting hard-to-reach or hazardous areas, such as subway tunnels, underground utility corridors, or power station boilers. It can autonomously patrol factory workshops, detect equipment anomalies, and navigate around obstacles with precision.
In logistics hubs and large-scale warehouses, the L-380 enables automated inventory checks without the need for human intervention. Its flight data can be used for advanced analysis, helping facility managers improve inventory accuracy, optimize storage, and forecast supply needs.
In emergency scenarios such as fires or earthquakes, the L-380 can be quickly deployed into dangerous zones to collect situational data and assist rescue planning. It’s equally suited for routine security monitoring in large indoor venues like shopping centers or exhibition halls, providing real-time visual feedback to security teams.
Within large factories or medical facilities, the L-380 can transport lightweight goods and emergency supplies, bypassing ground congestion and reducing delivery time. It significantly enhances internal logistics efficiency while minimizing manual labor.
The L-380 supports a wide range of research applications—from autonomous sample collection in laboratories to indoor data acquisition in controlled environments. It also serves as a hands-on tool for STEM education, offering students practical experience in robotics, programming, and autonomous navigation.
What sets the L-380 apart is its high level of customization. It offers an open SDK and secondary development interfaces, enabling users to integrate industry-specific AI capabilities such as fire detection, intrusion alerts, or gas sensing. Optional modules include temperature/humidity sensors, RFID, and 5G connectivity, making it a highly adaptable platform for advanced indoor operations.
From intelligent inspection and emergency response to autonomous inventory management and AI-enabled monitoring, the L-380 is redefining what's possible inside complex, GPS-denied environments. Its compact size, robust safety features, and advanced autonomous flight system make it an ideal choice for industries seeking to improve operational safety, reduce labor costs, and enable continuous, data-driven insights.
As the demand for indoor autonomy continues to grow, the L-380 stands ready to lead the way—ushering in a smarter, safer, and more efficient era of indoor drone deployment.