Imagine transforming a collection of discounted components into a fully functional quadcopter, all while navigating the complexities of fitting disparate parts into a cohesive whole. In “Putting an OpenIPC quad build together from on sale stuff at Banggood,” you’ll follow along as the process unfolds, highlighting the journey from assembling an initial frame to overcoming unexpected challenges. From the power-packed Zing ERO motors to the resilient Hack RC flight controller, you’ll discover how each piece, even the mismatched mounting holes, plays a crucial role in the construction.
Despite some setbacks, like cramped spaces and the need for custom solutions, the quadcopter comes to life with its unique character and style. Your journey includes testing the hover capabilities and optimizing the video quality to find the right balance. The final result is not just a testament to resourcefulness and problem-solving but also to the rewarding experience of seeing your handmade tech take to the skies. Whether you’re an enthusiast looking for hands-on insights or just curious about the process, this project offers a glimpse into the creativity and persistence behind every successful build.
I checked out the Eachine Sphere OpenIPC kit recently and thought it would be a fantastic idea for you to get a frame, some motors, and an FC and ESC board to build this into a complete frame. So, you can pick some random items from the Banggood sale and assemble a quad!
These products were generously provided by Banggood for review purposes. If you’re interested in taking a closer look, please consider using one of the following affiliate links:
- Eachine Sphere: link
- HAKRC F7 FC/ESC: link
- XING-E Pro 2207 1800kv motors: link
- iFlight SH CineFlow Frame: link
If you enjoyed this video and want to show your support, please feel free to join my Patreon supporters here /currykitten or, if you decide to shop at Banggood, here’s a general affiliate link that helps me out if you use it: link
If you want to explore other ways to support my channel, then check out all the options you have here: link
Project Overview
Documenting the Build Process
You’re about to delve into an exciting project documenting the process of building a quadcopter. This undertaking will guide you through selecting components available from Banggood, which has an extensive range of products on sale. The focus here is on assembling a quad with the OpenIPC setup from Eachine Sphere. This build blends creativity with technical knowledge as you learn to put together various components to create an operational quadcopter. Throughout this journey, you’ll face challenges and make several adjustments, but by maintaining a friendly and open mindset, you will advance your skills in flying technology.
Using Components on Sale from Banggood
From motors to flight controllers, each component for this quadcopter has been carefully selected from Banggood’s sales. This allows you to balance quality with affordability. While some components may be less familiar, this selection offers an excellent opportunity to test and explore new tech. With intention and strategy, you’ll work with each part to build a robust quadcopter. It’s important to know that each piece chosen is essential for achieving your final flying companion, testing both your patience and problem-solving skills.
Focus on OpenIPC Setup with Eachine Sphere
Central to this project is the OpenIPC system from Eachine Sphere, selected for its strong open-source community support and versatile capabilities. Setting up OpenIPC allows you to experience firsthand how modern technology can be adapted for custom applications. You’ll learn how to configure it to work seamlessly with your chosen components, turning your frame into a functional piece of technology. This in-depth focus ensures that you gain practical skills aligning with contemporary innovations in the field of UAVs.
Components Chosen
Eachine Sphere OpenIPC Kit
The Eachine Sphere OpenIPC kit is a key component of your quadcopter build. It comprises a VTX and camera system designed for flexibility and openness, making it a prime choice for hobbyists interested in custom setups. Utilizing this kit means you’ll dive into configuring a digital transmission system, boosting your technical knowledge while enjoying the creativity involved in such open-source projects.
Zing ERO 2207 1800 KV Motors
Zing ERO 2207 1800 KV motors are selected for this build due to their reputable performance and suitable specifications for a 6S setup. Known for their reliability, these motors are expected to deliver the necessary power and efficiency, adding to the quality of your quadcopter. With the right installation, you will maximize flight duration and speed, enhancing your overall flying experience.
Hack RC Flight Controller and ESC Stack
Although not the most common brand, the Hack RC flight controller and ESC stack offer a cost-effective solution for your project. This part of the build will test your ability to integrate control systems and power distribution efficiently. By working with this unfamiliar brand, you challenge yourself to adapt and learn, a valuable skill in any tech-driven project.
iFlight SH Cineiflow 5 Frame
The iFlight SH Cineiflow 5 frame, though slightly on the pricier side, is selected for its spacious design capable of accommodating HD equipment. It presents a robust structure for your components, crucial for the stability and durability of the quadcopter. Assembling this frame involves adapting its engineering to fit your specific setup, which will be both challenging and rewarding.
Challenges Encountered
Frame Issues with Mounting Holes
One challenge you will encounter involves the frame’s mounting holes, mismatched with component sizes. The frame is engineered with 20 mil holes designed for M2 screws, while some components require M3. This requires creative solutions, such as modifying the frame or designing adapters, to ensure a snug and secure fit for all components. Patience and precision are key in overcoming this challenge.
Space Constraints within the Frame
Another issue is the lack of space within the frame, which is initially designed for different components. This necessitates creative spatial management to make sure everything fits or else modifying the layout. Such constraints push you to think strategically about component placement and alignment, crucial for a successful build.
Need for Custom Solutions
To address these challenges, custom solutions such as printing a new plate for the ESC and flight controller are necessary. This adaptation process not only helps overcome obstacles but also empowers you to take ownership of the project, turning problems into opportunities for technical growth and innovation.
Setup Adjustments
Modifications for Frame Limitations
Given the frame’s limitations, you’ll need to modify its design to accommodate the build. This could involve adjusting mounting options or rethinking component placement. By carefully planning these modifications, you’ll ensure that the frame can support the quadcopter’s functionality and aesthetics, allowing you to achieve a cohesive build.
Printed Custom Parts for Fitting
To aid in these adjustments, printed custom parts become essential. These parts help in fitting components that don’t naturally align with the frame. Crafting these customized elements teaches you about the importance of precision and adaptability when building complex systems.
Ensuring Component Alignment
Proper alignment ensures that your quadcopter operates smoothly. By focusing on aligning each part correctly, you’ll prevent future malfunctions and optimize the quad’s performance. This thorough scrutiny during the building phase benefits the overall outcome of your project.
Initial Flight Attempt
Setup Issues Encountered
During the initial flight attempt, you will likely face setup issues. This is typical in complex builds, as various factors can affect performance. Understanding and diagnosing these issues are part of the learning process, and overcoming them will bring a sense of accomplishment.
Improperly Configured Modes
A common issue concerns improperly configured flight modes, which can affect control and stability. These misconfigurations require adjustments and recalibration to allow for optimal flying conditions.
Correction Using Betterafly
By using Betterafly, these configuration problems can be rectified. This involves keen attention to software settings, making sure each control mode functions as intended for your specific setup. Rectifying these issues allows for a successful transition to a stable flight experience.
Testing and Performance
Final Hover Test in Garden
Once configurations are in place, a final hover test in a garden setting will verify the functionality of your quadcopter. This setting provides a controlled environment for assessing maneuverability and power, ensuring that the OpenIPC system operates correctly.
Unique Appearance with External Wi-Fi Board
The unique appearance of your quadcopter, highlighted by an external Wi-Fi board, differentiates this project. It adds character and uniqueness, showcasing your ability to interlace functionality and design effectively.
Verification of OpenIPC System Functionality
The hover test also verifies the functionality of the OpenIPC system. The success of this phase reassures you of the system’s reliability and your ability to successfully integrate new technology, a key milestone in your project.
Video and Signal Quality
HD0 Goggles Recording
Post-flight, using HD0 goggles to view recorded flights provides insights into the video quality and transmission capabilities. This feedback is essential for assessing how well you met project expectations and where to focus on improvements.
Attempting Better Video Quality
To enhance the flight experience, you will attempt to achieve better video quality. By experimenting with different settings, such as resolution and frame rate, you aim to reach the optimal balance between performance and visual clarity.
Smoothness Issues with Video Output
Throughout these tests, you may encounter issues with video smoothness. Challenges in capturing seamless footage can arise from technological limitations or configuration settings, requiring troubleshooting to resolve.
Addressing Technical Issues
Problems with Digital Video Signal Penetration
One technical difficulty may involve the digital video signal’s ability to penetrate obstacles, leading to image freeze or degradation. This requires strategic antenna placement and possible equipment upgrades to improve signal quality.
Switching Video Settings for Better Performance
By switching video settings and testing alternative configurations, such as moving to a 720p resolution at 120fps, you seek to balance video quality with performance, optimizing for a smoother experience.
Achieving Smooth Experience at 720p, 120fps
Ultimately, achieving a smooth and satisfying experience lies in the successful adjustment to 720p at 120fps. This setting balances clarity and smoothness, enhancing your satisfaction with the quadcopter’s capabilities.
Overall Experience
Handling and Performance Observations
Through handling and performance tests, you’ll observe the quadcopter’s strengths and weaknesses. This analysis gives you a deeper understanding of the impact of each component and how they collectively influence flight dynamics.
Satisfaction with Flight
Successfully navigating through challenges and delivering a functioning quadcopter leads to an immense sense of satisfaction. The flight performance, highlighted by smooth operation and reliable control, validates the efforts and ingenuity put into the build.
Acknowledgment of Necessary Improvements
Despite a positive outcome, recognizing areas for improvement is crucial. Acknowledging these aspects provides a foundation for future projects, enhancing skills and achieving even greater success in subsequent endeavors.
Conclusion
Successful Completion Despite Challenges
Reflecting on the entire process, you celebrate the successful completion of the project despite numerous challenges. This achievement showcases your resilience and determination in the face of difficulties.
Adaptability and Problem-Solving Skills Highlighted
Your adaptability and problem-solving skills become evident as you navigate through various obstacles, turning each challenge into a learning opportunity. This experience greatly improves your technical expertise.
Final Outcome and Future Enhancements
With a final outcome that is both functional and innovative, future enhancements focus on refining technology integration and performance optimization. As you look forward, these improvements promise even more rewarding builds and richer experiences.