The case study from INTechHouse details the development of an unmanned flying platform for environmental observation and study for the Polish Armaments Group, a state-owned defence conglomerate in Poland. The project’s challenge was to create a complex platform with varied functionality.
Our solution entailed the development of various types of Unmanned Aerial Vehicle Operator (UAVO) platforms, each equipped with specialized instruments, including:
- A Patrol Platform with electro-optical heads featuring light and infrared sensors.
- Several Research Platforms for air pollution analysis, onsite environmental contamination assessment, chemical analysis, and assessing the decomposition of biological flora with NDVI cameras.
- A Unified Exploratory Platform that included a signal repeater and a Mini-Observer with a lightweight camera for monitoring building interiors.
- A Photogrammetric Platform with a proprietary imaging navigation system designed for movement in hard-to-reach areas.
The technology stack for this project included software running on Linux in C++ and Python, device firmware in C, and applications developed in a Qt environment using C++ and QML languages. The communication protocols used in the project ranged from ISM and GPS to USB, Ethernet over ISM, and others.
In the case study from INTechHouse, our client, a multinational US corporation with a significant global presence, faced a challenge with a product that had been sold since the early 2000s. The product was still in high demand, but its future was uncertain due to the diminishing availability of spare parts. The task at hand was to rejuvenate the product by preserving its original functionality and reliability while also integrating modern hardware and software solutions to ensure its longevity.
To address this challenge, we provided a comprehensive solution that included:
- New Product Design: A design was developed to rejuvenate the product, maintaining its core functionality and reliability.
- Hardware Selection: Optimal hardware counterparts were identified, focusing on long-term availability, reliability, and low power consumption.
- Software Integration: Modern software development approaches were seamlessly integrated with legacy solutions to ensure compatibility and performance.
- Feasibility Study: A feasibility study was conducted, and an activity roadmap was created to develop a proof of concept, providing a strategic path forward.
The technologies used in the project included Embedded C/C++, software debugging, ARM Cortex-M4 microcontrollers, and FPGA.