This diploma project focuses on the development of a wireless control system for window blinds based on ESP8266 microcontrollers. The aim of the work is to design an autonomous remote-control system that enables convenient and precise positioning of window blinds through wireless communication without the need for additional wired connections to the control interface.
The project includes an analysis of existing window blind control solutions, wireless data transmission technologies, hardware platforms for embedded control systems, as well as actuators and sensing devices. Based on this analysis, ESP8266 microcontrollers and the ESP-NOW communication protocol were selected as the core technologies for system implementation.

In the diploma project, an automated natural gas metering system based on an ultrasonic flowmeter was developed. An analytical review of modern flow measurement methods, regulatory requirements for household metering, and remote data transmission technologies was conducted.
A functional diagram of the system with three levels of architecture was developed. The system components were selected from the conditions for ensuring long-term autonomous operation.
A mathematical description of the operation of the metering device was created, which includes an analysis of its static characteristics and the influence of the geometric parameters of the primary converter on the pressure drop.

The diploma project is devoted to the development of an automated room heating controller based on the ESP-WROOM-32 microcontroller for solid-fuel boiler control.
The aim of the work is to develop a microprocessor-based system that maintains the specified coolant temperature, monitors room temperature and fuel level, controls the blower turbine and screw feeder, and provides local and remote monitoring.
The project analyzes existing solid-fuel boiler automation systems, temperature and fuel level measurement methods, actuator control approaches, and IoT monitoring technologies. Structural, functional, and electrical schematic diagrams were developed, while the thermal object was modeled and a discrete PID controller was synthesized.

The diploma project is dedicated to the development of an automated microclimate monitoring and control system based on the STM32 microcontroller. The system provides continuous measurement of air temperature, relative humidity, atmospheric pressure, air quality, smoke level, position of the device and wind direction with automatic control of actuators — a fan, heater and humidifier — based on comparison of measured values with predefined threshold parameters.
The work includes an analysis of existing microclimate monitoring systems, justification of the component selection, development of the structural and electrical schematic diagrams, description of the software operation algorithm. A hysteresis-based control algorithm has been implemented to ensure stable operation without frequent relay switching.
The practical value of the work lies in the creation of a fully functional autonomous device suitable for use in residential, office and industrial premises.

Research advisor: S. Nechai

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All Diploma Thesis

The diploma project is devoted to solving the actual scientific and technical problem of developing a universal floor controller for automated commercial energy metering systems (AMR/AMI) in modern residential complexes and industrial facilities.
The paper analyzes existing architectures of metering systems and justifies the choice of electronic components. A hybrid hardware architecture of the device based on the ESP32-S2-FN4R2 microcontroller was developed, providing data collection from both pulse telemetry outputs (via optical galvanic isolation unit LTV-847S with RC-filters) and digital meters using the industrial RS-485 standard. The electrical schematic was designed and the printed circuit board routing was performed in Altium Designer taking into account electromagnetic compatibility requirements.

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АСНК КПІ ім. Ігоря Сікорського, 2021