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Active Projects (this semester)
See also the participants page.
The following projects are currently being performed.
Prj # | Status | Supervisor | Project title | Allocation date | # | Student(s) |
1162 | Active | Seydi Kaçmaz | Environment Modeling with Virtual Reality (VR) | 2025 Fall | 4 (2nd Edu) |
ALI HUSSEIN MOHAMMED, Can Gürocak, Osman Kilic,Ahmed Khaleel Ahmed |
1187 | Active | Mahmut Aykaç | Realization Low-Frequency RF Energy Harvester | 2025 Fall | 1 (1st Edu) |
Mert Karpuz |
1209 | Active | Ergun Erçelebi | Development of a cuff-based blood pressure measurement device | 2025 Fall | 1 (1st Edu) |
Atakan Sarikci |
1210 | Active | Ergun Erçelebi | Development of a cuff-based blood pressure measurement device | 2025 Fall | 1 (2nd Edu) |
Muhammed Balakan |
1225 | Active | Uğur Cem Hasar | A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements | 2025 Fall | 1 (1st Edu) |
Meltem Gunay |
1226 | Active | Uğur Cem Hasar | A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements | 2025 Fall | 1 (2nd Edu) |
Utku Kirsanlioglu |
1235 | Active | Sema Kayhan | A Tracking system for Alzheimer Patient | 2025 Fall | 1 (1st Edu) |
Kursat Cakmak |
1239 | Active | Uğur Cem Hasar | An Impedance Analyzer Measurement System Using a LABVIEW program | 2025 Fall | 1 (2nd Edu) |
Yunus Emre Simsek |
1240 | Active | Uğur Cem Hasar | An Impedance Analyzer Measurement System Using a LABVIEW program | 2025 Fall | 1 (2nd Edu) |
Erdem Doruk |
1267 | Active | Ergun Erçelebi | Cloud-Based Pulseoximeter | 2025 Fall | 1 (1st Edu) |
Fatih Yilmaz |
1268 | Active | Ergun Erçelebi | Cloud-Based Pulseoximeter | 2025 Fall | 1 (2nd Edu) |
Melih Demir |
1282 | Active | Ergun Erçelebi | Speed and rotation direction control of AC Induction machine | 2025 Fall | 4 (1st Edu) |
Selver Ozyazgan, Murat Ergündüz,Hatice Ozkorkmaz,Muhammed Ikbal Keskin |
1283 | Active | Ergun Erçelebi | Speed and rotation direction control of AC Induction machine | 2025 Fall | 4 (2nd Edu) |
Hasim Berkcan May, Ahmet Kerem Kutlu, Fatih Akdogan, Esra Cetinkaya |
1291 | Active | Mehmet Demir | Fingerprint-Recognition Based Smart Locking System | 2025 Fall | 3 (2nd Edu) |
Muhammet Enes Gerek, Ahmet Erdem Agca, Fatih Bilgi |
1292 | Active | Mehmet Demir | IoT-Based Smart Warehouse Management System | 2025 Fall | 4 (1st Edu) |
AMRO MOHAMED ALI ELFAKIELSIDDIG, Hossam Salem, Zeynep Atici, Mohammed Assad |
1301 | Active | Ali Osman Arslan | Smart Energy Management System for Homes | 2025 Fall | 4 (1st Edu) |
Ugur Utkucu, Onurhan Ergeni, Youssef El Draihi, Muhammet Colak |
1311 | Active | Ahmet Mete Vural | Design and Construction of a Bluetooth-Controlled Variable Speed DC Fan | 2025 Fall | 1 (1st Edu) |
Fadıl Eralp |
1312 | Active | Ahmet Mete Vural | Design and Construction of a Bluetooth-Controlled Variable Speed DC Fan | 2025 Fall | 1 (2nd Edu) |
Okan Kenger |
1321 | Active | Musa Bute | Design and Implementation of a Contactless Digital Tachometer Using an STM32 Microcontroller | 2025 Fall | 1 (1st Edu) |
Mohamed Sidahmed |
1322 | Active | Mehmet Demir | Design and Implementation of a Contactless Digital Tachometer Using an STM32 Microcontroller | 2025 Fall | 1 (2nd Edu) |
Eren Adan |
1325 | Active | Ali Osman Arslan | Motor driver design for sensor-equipped BLDC motors. | 2025 Fall | 3 (1st Edu) |
Cemal Baris Güler, İbrahim Ege Balkan ,Oguzhan İkiz |
1326 | Active | Sema Kayhan | Smart Color Sorting Line | 2025 Fall | 3 (1st Edu) |
Bekri Bustani Eyid,Mohammed Khayat,Muhammed Fetyen |
1329 | Active | Musa Bute | Coil Winding Machine | 2025 Fall | 3 (2nd Edu) |
Nurettin Alper Albayram, Hasan Erkan Sevinc, Mustafa Kaplan |
1330 | Active | Taner İnce | Solar Panel Cleaning Robot | 2025 Fall | 4 (2nd Edu) |
Muhammed Deniz, Mehmet Emre Ozcan, Mustafa Ekinci, Yunus Emre Bayraktar |
1331 | Active | Tolgay Kara | Wearable technologies for disabled people | 2025 Fall | 1(2nd edu) |
Enes Erdem Baspinar |
1332 | Active | Tolgay Kara | Wearable technologies for disabled people | 2025 Fall | 1(1st edu) |
Abdelrahman Yousef |
Details
1162 | Active | Seydi Kaçmaz | Environment Modeling with Virtual Reality (VR) | 2025 Fall | 4 (2nd Edu) |
ALI HUSSEIN MOHAMMED, Can Gürocak, Osman Kilic,Ahmed Khaleel Ahmed |
|
Title: Environment Modeling with Virtual Reality (VR) Overview of the project This project involves leveraging image processing and 3D modeling techniques to translate real-world environments into immersive virtual reality settings. Students will develop a VR application that enables users to explore real-world locations within a virtual context. What is the design in this project? What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system
supposed to operate?
What are the specific criteria for the success of the project?
Division of Tasks [for Group Projects]:
Specific Components/Tools:
The completed project will be kept by the students to do with as
they wish.
|
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1187 | Active | Mahmut Aykaç | Realization Low-Frequency RF Energy Harvester | 2025 Fall | 1 (1st Edu) |
Mert Karpuz |
|
Title: Realization Low-Frequency RF Energy Harvester Overview of the project The student is supposed to be design and realize a low frequency RF energy harvester circuit. The circuit must operate with frequencies in kHz range What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project? Division of tasks: Specific components/tools: The completed project will be kept by the students to do with as they wish. |
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1209 | Active | Ergun Erçelebi | Development of a cuff-based blood pressure measurement device | 2025 Fall | 1 (1st Edu) |
Atakan Sarikci |
|
Title: Development of a cuff-based blood pressure measurement device Overview of the project The student will develop the device used for cuff blood pressure measurement in the project. The device will involve electronic hardware, embedded software, and minimal mechanical design work. The project details will be discussed with the student in the initial meeting. What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project? Division of tasks: Specific components/tools: The completed project will be kept by the students to do with as they wish or donated to the department for display or lab. |
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1210 | Active | Ergun Erçelebi | Development of a cuff-based blood pressure measurement device | 2025 Fall | 1 (2nd Edu) |
Muhammed Balakan |
|
Title: Development of a cuff-based blood pressure measurement device Overview of the project The student will develop the device used for cuff blood pressure measurement in the project. The device will involve electronic hardware, embedded software, and minimal mechanical design work. The project details will be discussed with the student in the initial meeting. What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project? Division of tasks: Specific components/tools: The completed project will be kept by the students to do with as they wish or donated to the department for display or lab. |
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1225 | Active | Uğur Cem Hasar | A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements | 2025 Fall | 1 (1st Edu) |
Meltem Gunay |
|
Title: A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements Overview of the project Coaxial-probe measurements are widely used non-destructive microwave measurements to determine the electromagnetic properties of liquid materials. These measurements require calibration before carrying out determination process. The objective of the project is to write a MATLAB graphical-user-interface (GUI) program which performs the calibration and then show the determined permittivity on the screen. What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project? The following criteria are sufficient for this project to be considered for its success.
Division of tasks Specific components/tools The completed project will be kept by the supervisor for further use. |
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1226 | Active | Uğur Cem Hasar | A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements | 2025 Fall | 1 (2nd Edu) |
Utku Kirsanlioglu |
|
Title: A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements Overview of the project Coaxial-probe measurements are widely used non-destructive microwave measurements to determine the electromagnetic properties of liquid materials. These measurements require calibration before carrying out determination process. The objective of the project is to write a MATLAB graphical-user-interface (GUI) program which performs the calibration and then show the determined permittivity on the screen. What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project? The following criteria are sufficient for this project to be considered for its success.
Division of tasks Specific components/tools The completed project will be kept by the supervisor for further use. |
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1235 | Active | Sema Kayhan | A Tracking system for Alzheimer Patient | 2025 Fall | 1 (1st Edu) |
Kursat Cakmak |
|
Title: A Tracking system for Alzheimer Patient Overview of the project Many elderly persons may live in elderly homes or retirement homes and have many health-related problems. It is difficult for the staff to keep track of the health of all the individuals and reach them in time in case assistance is needed. In this situation, a cost-effective device keeps track of various health data such as heart rate, temperature, blood oxygen, and an emergency like fall detection. In addition, if the elderly person is lost, we would have GPS tracking enabled to determine their location and assist them as needed. Our connecting web application would allow the elderly home caretakers to monitor multiple elderly people simultaneously, track individual health irregularities, and communicate them to the doctors. A notification would be sent on the app when an irregular critical heart rate or breathing activity for a particular person is observed, and an alarm on the person would be triggered. The alarm will also be triggered when a fall is detected. We could also store past health data points in a database and monitor for any irregularities, or doctors can use this during checkups. What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project? Division of tasks Specific components/tools The completed project will be kept by the students to do with as they wish. |
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1239 | Active | Uğur Cem Hasar | An Impedance Analyzer Measurement System Using a LABVIEW program | 2025 Fall | 1 (2nd Edu) |
Yunus Emre Simsek |
|
Title: An Impedance Analyzer Measurement System Using a LABVIEW program Overview of the project An impedance analyzer measurement system in the Microwave and Antennas Laboratory will be automated by arranging the horizontal (and vertical) distance between antennas using a written code by the LABVIEW program. What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project?
Division of tasks Specific components/tools The completed project will be kept by the supervisor for further use. |
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1240 | Active | Uğur Cem Hasar | An Impedance Analyzer Measurement System Using a LABVIEW program | 2025 Fall | 1 (2nd Edu) |
Erdem Doruk |
|
Title: An Impedance Analyzer Measurement System Using a LABVIEW program Overview of the project An impedance analyzer measurement system in the Microwave and Antennas Laboratory will be automated by arranging the horizontal (and vertical) distance between antennas using a written code by the LABVIEW program. What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project?
Division of tasks Specific components/tools The completed project will be kept by the supervisor for further use. |
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1267 | Active | Ergun Erçelebi | Cloud-Based Pulseoximeter | 2025 Fall | 1 (1st Edu) |
Fatih Yilmaz |
|
Title: Cloud-Based Pulseoximeter Overview of the project The cloud-based pulse oximeter builds on the traditional pulse oximeter's capabilities by integrating wireless technology and cloud computing. This tool allows the collected data to be transmitted in real-time to healthcare providers through the internet. The key components of a cloud-based pulse oximeter include sensor technology for measuring SpO2 and pulse rate, Wireless Connectivity to send data to cloud servers, Cloud Storage for Patient data stored securely in the cloud, where it can be analyzed and accessed by healthcare professionals anytime, anywhere What is the design in this project?
What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate? Home Care Settings
Mobile and Outdoor Environments
What are the specific criteria for the success of the project? The project outcome will be considered successful if it operates within the constraints specified in the constraints section. Division of Tasks:
The completed project will be kept by the students to do with as they wish or donated to the department for display or lab. |
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1268 | Active | Ergun Erçelebi | Cloud-Based Pulseoximeter | 2025 Fall | 1 (2nd Edu) |
Melih Demir |
|
Title: Cloud-Based Pulseoximeter Overview of the project The cloud-based pulse oximeter builds on the traditional pulse oximeter's capabilities by integrating wireless technology and cloud computing. This tool allows the collected data to be transmitted in real-time to healthcare providers through the internet. The key components of a cloud-based pulse oximeter include sensor technology for measuring SpO2 and pulse rate, Wireless Connectivity to send data to cloud servers, Cloud Storage for Patient data stored securely in the cloud, where it can be analyzed and accessed by healthcare professionals anytime, anywhere What is the design in this project?
What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate? Home Care Settings
Mobile and Outdoor Environments
What are the specific criteria for the success of the project? The project outcome will be considered successful if it operates within the constraints specified in the constraints section. Division of Tasks:
The completed project will be kept by the students to do with as they wish or donated to the department for display or lab. |
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1282 | Active | Ergun Erçelebi | Speed and rotation direction control of AC Induction machine | 2025 Fall | 4 (1st Edu) |
Selver Ozyazgan, Murat Ergündüz,Hatice Ozkorkmaz,Muhammed Ikbal Keskin |
|
Title: Speed and rotation direction control of AC Induction machine Overview of the project Induction motors are widely used in various fields, ranging from household appliances to industrial machinery. Therefore, it is important to use an efficient and safe speed control mechanism. In addition, the induction motor can be operated in two directions, which is very useful in many applications. In this project, students will develop a system for speed control and rotation direction of an AC motor. An encoder sensor can be used to measure the rotational speed of the motor. Alternative solutions can also be developed. The motor speed control will be transferred to the microcontroller via Bluetooth technology using a mobile application, and then the microcontroller will make the necessary updates and activate the driver circuit to drive the motor at the desired speed. Details about the project will be shared at a meeting to be held. What is the design in this project?
What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate?
What are the specific criteria for the success of the project? The project outcome will be considered successful if it operates within the constraints specified in the constraints section.
The completed project will be kept by the students to do with as they wish or donated to the department for display or lab. |
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1283 | Active | Ergun Erçelebi | Speed and rotation direction control of AC Induction machine | 2025 Fall | 4 (2nd Edu) |
Hasim Berkcan May, Ahmet Kerem Kutlu, Fatih Akdogan, Esra Cetinkaya |
|
Title: Speed and rotation direction control of AC Induction machine Overview of the project Induction motors are widely used in various fields, ranging from household appliances to industrial machinery. Therefore, it is important to use an efficient and safe speed control mechanism. In addition, the induction motor can be operated in two directions, which is very useful in many applications. In this project, students will develop a system for speed control and rotation direction of an AC motor. An encoder sensor can be used to measure the rotational speed of the motor. Alternative solutions can also be developed. The motor speed control will be transferred to the microcontroller via Bluetooth technology using a mobile application, and then the microcontroller will make the necessary updates and activate the driver circuit to drive the motor at the desired speed. Details about the project will be shared at a meeting to be held. What is the design in this project?
What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate?
What are the specific criteria for the success of the project? The project outcome will be considered successful if it operates within the constraints specified in the constraints section.
The completed project will be kept by the students to do with as they wish or donated to the department for display or lab. |
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1291 | Active | Mehmet Demir | Fingerprint-Recognition Based Smart Locking System | 2025 Fall | 3 (2nd Edu) |
Muhammet Enes Gerek, Ahmet Erdem Agca, Fatih Bilgi |
|
Title: Fingerprint-Recognition Based Smart Locking System Overview of the project 1. Developing a high-security access control system using fingerprint recognition technology. 2. Eliminating the need for users to carry physical keys or remember passwords. 3. Providing an easy-to-use, fast, and reliable authentication system. What is the design in this project? The design of the project includes the following components and workflow: 1. Hardware Design: 2. Software Design: 3. System Workflow: What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate? 1. Environmental Conditions: 2. User Interaction: 3. Maintenance: What are the specific criteria for the success of the project? 1. Functional Prototype: 2. Accuracy: 3. Response Time: 4. User Satisfaction: 5. Documentation: Division of Tasks: Student 1: Student 2: Student 3: Specific components/tools 1. Hardware: 2. Software: 3. Tools: The completed project will be kept by the students to do with as they wish. |
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1292 | Active | Mehmet Demir | IoT-Based Smart Warehouse Management System | 2025 Fall | 4 (1st Edu) |
AMRO MOHAMED ALI ELFAKIELSIDDIG, Hossam Salem, Zeynep Atici, Mohammed Assad |
|
Title: IoT-Based Smart Warehouse Management System Overview of the project
What is the design in this project? The design of the project will include the following components: 1. Sensor Network: 2. Central Management System: 3. User Interface: 4. Data Analytics: What realistic constraints is the project outcome expected to satisfy? 1. Cost Constraints: 2. Power Consumption: 3. Scalability: 4. Data Security: 5. Integration: Under which realistic circumstances is the designed product/system supposed to operate? 1. Environment: 2. Network Reliability: 3. User Accessibility: 4. Maintenance: What are the specific criteria for the success of the project? 1. Functionality: 2. Performance: 3. Usability: 4. Scalability: 5. Cost-Effectiveness: Division of Tasks: Student 1: Student 2: Student 3: Specific components/tools 1. Hardware: 2. Software: 3. Tools: The completed project will be kept by the students to do with as they wish. |
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1301 | Active | Ali Osman Arslan | Smart Energy Management System for Homes | 2025 Fall | 4 (1st Edu) |
Ugur Utkucu, Onurhan Ergeni, Youssef El Draihi, Muhammet Colak |
|
Title: Smart Energy Management System for Homes Overview of the project This project aims to design an energy management system for smart homes that optimizes energy usage by integrating solar power, grid electricity, and battery storage. What is the design in this project?
What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate? The system should operate in residential settings with varying energy demands and weather conditions. What are the specific criteria for the success of the project? Division of Tasks: Specific components/tools The completed project will be kept by the students to do with as they wish. |
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1311 | Active | Ahmet Mete Vural | Design and Construction of a Bluetooth-Controlled Variable Speed DC Fan | 2025 Fall | 1 (1st Edu) |
Fadıl Eralp |
|
Title: Design and Construction of a Bluetooth-Controlled Variable Speed DC Fan Overview of the project This project focuses on the design, construction, and programming of a DC fan system with variable speed control via a Bluetooth interface. The core objective is to integrate hardware and software components to create a practical, low-cost, and user-friendly smart device. The project will involve designing a compact electronic circuit, developing the necessary firmware for a microcontroller, and creating a mobile application to control the fan's speed and on/off state. The project can consist of a microcontroller, Bluetooth module, motor driver, and a DC fan motor. The microcontroller should be programmed to send commands via Bluetooth and use PWM to control the DC fan's speed. Other details can be discussed with the supervisor. A mobile application should be used or written for Android or iOS platform to turn on and off the motor and control fan speed. At the end, a detailed project report should be prepared documenting the design, development, and testing phases. What is the design in this project? The design in this project is a Bluetooth-Controlled Variable Speed DC Fan. What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate? The fan should operate in closed-environment conditions under room temperature conditions. What are the specific criteria for the success of the project? Division of Tasks: -- The completed project will be kept by the students to do with as they wish. |
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1312 | Active | Ahmet Mete Vural | Design and Construction of a Bluetooth-Controlled Variable Speed DC Fan | 2025 Fall | 1 (2nd Edu) |
Okan Kenger |
|
Title: Design and Construction of a Bluetooth-Controlled Variable Speed DC Fan Overview of the project This project focuses on the design, construction, and programming of a DC fan system with variable speed control via a Bluetooth interface. The core objective is to integrate hardware and software components to create a practical, low-cost, and user-friendly smart device. The project will involve designing a compact electronic circuit, developing the necessary firmware for a microcontroller, and creating a mobile application to control the fan's speed and on/off state. The project can consist of a microcontroller, Bluetooth module, motor driver, and a DC fan motor. The microcontroller should be programmed to send commands via Bluetooth and use PWM to control the DC fan's speed. Other details can be discussed with the supervisor. A mobile application should be used or written for Android or iOS platform to turn on and off the motor and control fan speed. At the end, a detailed project report should be prepared documenting the design, development, and testing phases. What is the design in this project? The design in this project is a Bluetooth-Controlled Variable Speed DC Fan. What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate? The fan should operate in closed-environment conditions under room temperature conditions. What are the specific criteria for the success of the project? Division of Tasks: -- The completed project will be kept by the students to do with as they wish. |
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1321 | Active | Musa Bute | Design and Implementation of a Contactless Digital Tachometer Using an STM32 Microcontroller | 2025 Fall | 1 (1st Edu) |
Mohamed Sidahmed |
|
Title: Design and Implementation of a Contactless Digital Tachometer Using an STM32 Microcontroller Overview of the project This project involves the development of a contactless digital tachometer designed to measure the rotational speed (RPM - Revolutions Per Minute) of motors or other rotating objects without physical contact. An infrared (IR) transmitter-receiver pair will be used to detect rotational motion. The signals from the sensor will be processed by an STM32 microcontroller, and the calculated RPM values will be displayed in real-time on an LCD screen. The system will be designed to be low-cost, highly accurate, and suitable for use in industrial environments. What is the design in this project? The project design includes the following components and workflow: Expected Operating Conditions:
What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate?
What are the specific criteria for the success of the project? Division of Tasks: Not applicable as this is a single-student project. Specific components/tools The completed project will be kept by the supervisor for further use. |
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1322 | Active | Mehmet Demir | Design and Implementation of a Contactless Digital Tachometer Using an STM32 Microcontroller | 2025 Fall | 1 (2nd Edu) |
Eren Adan |
|
Title: Design and Implementation of a Contactless Digital Tachometer Using an STM32 Microcontroller Overview of the project This project involves the development of a contactless digital tachometer designed to measure the rotational speed (RPM - Revolutions Per Minute) of motors or other rotating objects without physical contact. An infrared (IR) transmitter-receiver pair will be used to detect rotational motion. The signals from the sensor will be processed by an STM32 microcontroller, and the calculated RPM values will be displayed in real-time on an LCD screen. The system will be designed to be low-cost, highly accurate, and suitable for use in industrial environments. What is the design in this project? The project design includes the following components and workflow: Expected Operating Conditions:
What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate?
What are the specific criteria for the success of the project? Division of Tasks: Not applicable as this is a single-student project. Specific components/tools The completed project will be kept by the supervisor for further use. |
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1325 | Active | Ali Osman Arslan | Motor driver design for sensor-equipped BLDC motors. | 2025 Fall | 3 (1st Edu) |
Cemal Baris Güler, İbrahim Ege Balkan ,Oguzhan İkiz |
|
Title: Motor driver design for sensor-equipped BLDC motors. Overview of the project This project will design a driver circuit to drive DC brushless (BLDC) motors used in electric vehicle propulsion systems. The circuit will include protection circuits to protect against high temperatures, currents, and voltages. The circuit will generate the necessary pulse width modulation (PWM) based on a unique algorithm developed by the microcontroller to drive the motor at the desired speed. Details of the project will be presented in detail at an upcoming meeting. What is the design in this project?
What realistic constraints is the project outcome expected to satisfy?
What are the specific criteria for the success of the project?
Division of Tasks: Hardware & Software
The completed project will be kept by the students to be used as they wish or will be donated to the department for display. |
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1326 | Active | Sema Kayhan | Smart Color Sorting Line | 2025 Fall | 3 (1st Edu) |
Bekri Bustani Eyid,Mohammed Khayat,Muhammed Fetyen |
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Title: Smart Color Sorting Line Overview of the project This project involves designing a small-scale automated line that sorts objects based on their color. The system uses sensors and actuators to detect the color of each object and guide it to the corresponding bin. It demonstrates practical automation, sensor integration, and programming principles. What is the design in this project?
What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate?
What are the specific criteria for the success of the project?
Division of Tasks:
Specific components/tools
The completed project will be donated to the department for display or lab. |
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1329 | Active | Musa Bute | Coil Winding Machine | 2025 Fall | 3 (2nd Edu) |
Nurettin Alper Albayram, Hasan Erkan Sevinc, Mustafa Kaplan |
|
Title: Coil Winding Machine Overview of the project Automatic bobbin winding depending on the desired size and number of turns. What is the design in this project? Hardware Design , Software Design and Machine Design What realistic constraints is the project outcome expected to satisfy? The machine we designed will wind bobbins quickly and to the desired dimensions, depending on the need. It can wind regardless of the diameter of the wire used. Under which realistic circumstances is the designed product/system supposed to operate? Our system will produce coils in response to the need for magnetic weapons in a workshop environment. What are the specific criteria for the success of the project? The number of turns in each layer of the winding is the same and the enamel part of the copper wire is wound without being damaged. Division of Tasks:
Specific components/tools Arduino, motor driver, motor, gear, bearing, induction shaft, 3D parts.
The completed project will be kept by the students to do with as they wish. |
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1330 | Active | Taner İnce | Solar Panel Cleaning Robot | 2025 Fall | 4 (2nd Edu) |
Muhammed Deniz, Mehmet Emre Ozcan, Mustafa Ekinci, Yunus Emre Bayraktar |
|
Title: Solar Panel Cleaning Robot Overview of the project Solar panels are a vital component in renewable energy production, but their efficiency can be significantly reduced by the accumulation of dirt, dust, and debris on their surfaces. Manual cleaning methods are often labor-intensive and costly. This project aims to develop an autonomous robot designed to clean solar panels efficiently and effectively, thereby maintaining their optimal performance. What is the design in this project? A cleaning robot will be designed. It consist of mechanical and electrical parts to operate the robot efficiently. What realistic constraints is the project outcome expected to satisfy?
Under which realistic circumstances is the designed product/system supposed to operate? It should clean all the surface area of the panel. The robot must be able to work even if the solar panel has a tilt angle. What are the specific criteria for the success of the project? Efficiency and cost effectiveness play a vital role in this project. The robot should work under any weather condition. Division of Tasks:
Specific components/tools Microcontroller, Sensors, cleaning part, etc.
The completed project will be kept by the students to do with as they wish. |
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1331 | Active | Tolgay Kara | Wearable technologies for disabled people | 2025 Fall | 1(2nd edu) |
Enes Erdem Baspinar |
|
Title: Wearable technologies for disabled people Overview of the project The project involves designing a wearable technological device with the specific aim of helping people with disabilities. The student is free to decide the type of disability and design the wearable device as they prefer, but improvement in daily lives of disabled people should be clearly justified. What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project? Division of tasks: Specific components/tools: The completed project will be kept by the students to do with as they wish. |
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1332 | Active | Tolgay Kara | Wearable technologies for disabled people | 2025 Fall | 1(1st edu) |
Abdelrahman Yousef |
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Title: Wearable technologies for disabled people Overview of the project The project involves designing a wearable technological device with the specific aim of helping people with disabilities. The student is free to decide the type of disability and design the wearable device as they prefer, but improvement in daily lives of disabled people should be clearly justified. What is the design in this project? What realistic constraints is the project outcome expected to satisfy? Under which realistic circumstances is the designed product/system supposed to operate? What are the specific criteria for the success of the project? Division of tasks: Specific components/tools: The completed project will be kept by the students to do with as they wish. |