They are QT GUI applications. The first example communicates with on-board (STM32F4Discovery board) MEMS gyroscope(L3GD20) and plots graph of gyro data. The second is a compass application that captures data from on-board MEMS E-compass(LSM303DLHC) and shows direction relative to the geographic cardinal directions. The GitHub repo: https://github.com/remotemcu/remcu_examples/tree/master/stm32f3_discovery
The work with PC Tool
You can use the REMCU lib with C++ interpreter, Python and other interpreters that makes it very easy to сonduct amazing experiments on chip peripherals and MCU-based devices. It saves a lot of time that is usually spent on development of test firmware and helps to learn how to use new peripheral blocks of MCU or SoC quicker. Instead of waiting for firmware to rebuild, then download, all you have to do is run your snippet code, with no zero down-time.
Interactive work
REMCU Lib makes it easier to research behaviour of a MCU-based device when you have its response in real-time using the interactive Jupyter Notebook environment. If you want to code for a few minutes, you just fire up Jupyter IDE and start coding for your device without the headaches of learning microcontroller vendor specific tools.
Peripheral expansion
The REMCU Library can be thought of as a bridge that links your embedded computer with low-level MCU/SoC’s peripherals such as GPIO, analog input, CAN Bus, PWM, LCD controller, etc without having to develop firmware, kernel drivers and other additional software.
Cross-Platform
REMCU lib is a cross-platform tool and works on all most common desktop operating systems. It can also be ported to the embedded systems.
Wide-ranging list of devices
REMCU Lib by nature works with many different types of chips, including 8-bit, 16-bit, 32-bit MCUs and even 64-bit systems of chips.