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Active Projects (this semester)
See also the participants page.

The following projects are currently being performed.

Prj #StatusSupervisorProject titleAllocation 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


52 students \ 26 projects

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?

  • The project design will encompass the creation of 3D models from real-world imagery and the integration of these models into a virtual reality environment. It will involve the use of image processing algorithms for feature extraction and the development of a user interface compatible with VR devices.

    What realistic constraints is the project outcome expected to satisfy?

  • Accurate translation of real-world scenes into 3D models
  • Compatibility with a range of VR hardware and devices
  • Smooth user experience with minimal motion sickness

    Under which realistic circumstances is the designed product/system supposed to operate?

  • The designed VR system should operate in various realistic circumstances, including indoor and outdoor environments. Users will be able to explore and interact with virtual versions of real-world locations, providing an immersive experience.

    What are the specific criteria for the success of the project?

  • High-fidelity 3D models and textures that closely resemble the real world
  • Seamless navigation and interaction within the virtual environment
  • Positive user feedback regarding the VR experience

    Division of Tasks [for Group Projects]:

  • 3D modeling and texture creation (Student 1)
  • VR application development (Student 2)
  • User interface design (Student 3)
  • Testing and user feedback analysis (Student 4)

    Specific Components/Tools:

  • VR headset and controllers
  • 3D modeling software (e.g., Blender, Unity)
  • Image processing libraries (if applicable)
  • VR development platforms (e.g., Unity, Unreal Engine)

    The completed project will be kept by the students to do with as they wish.


  • 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?

  • The entire circuit is the key design of the project

    What realistic constraints is the project outcome expected to satisfy?

  • The ultimate circuit must be able to harvest RF energy from kHz range radio signals

    Under which realistic circumstances is the designed product/system supposed to operate?

  • It can operate indoor and/or outdoor
  • It must be endurant against interference and noise

    What are the specific criteria for the success of the project?

  • If the realized circuit can harvest energy from a dedicated RF signal source in kHz range even with a low efficiency, project can be regarded as successful

    Division of tasks:

  • Specific components/tools:

  • Proper antenna(s)
  • Proper Schotty Diodes
  • Various capacitors, inductors and resistors

    The completed project will be kept by the students to do with as they wish.


  • 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?

  • A significant portion of the project requires electronic and software design work. Some mechanical design work should also be carried out to ensure ease of use for the device's users.

    What realistic constraints is the project outcome expected to satisfy?

  • Display 3.2 inch Large LCD Screen
  • Measuring Method Oscillometric

    Under which realistic circumstances is the designed product/system supposed to operate?

  • Energy-efficient: Without use, Auto-power off in 60 seconds
  • Easy to Use with One-button Operation

    What are the specific criteria for the success of the project?

  • Accuracy Blood Pressure avalue: ± 3mmHg

    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.


  • 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?

  • A significant portion of the project requires electronic and software design work. Some mechanical design work should also be carried out to ensure ease of use for the device's users.

    What realistic constraints is the project outcome expected to satisfy?

  • Display 3.2 inch Large LCD Screen
  • Measuring Method Oscillometric

    Under which realistic circumstances is the designed product/system supposed to operate?

  • Energy-efficient: Without use, Auto-power off in 60 seconds
  • Easy to Use with One-button Operation

    What are the specific criteria for the success of the project?

  • Accuracy Blood Pressure avalue: ± 3mmHg

    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.


  • 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?

  • Design a MATLAB graphical-user-interface (GUI) program to perform the calibration and then show the determined permittivity on the screen using coaxial probe measurements.

    What realistic constraints is the project outcome expected to satisfy?

  • The GUI program is expected to run on a general-purpose PC.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • It is expected that the proposed system will operate at ordinary laboratory conditions.

    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.

  • It should be user-friendly.
  • The program should allow the flexibility of using different calibration reference liquids.
  • It should show on the screen the determined permittivity over frequency.
  • It is expected that the screen be zoomed in and out capability.

    Division of tasks

  • Write a MATLAB GUI program.
  • Integrate the program with real microwave experiments to test the performance of the program

    Specific components/tools

  • MATLAB program
  • Vector network analyzer
  • Coaxial probe

    The completed project will be kept by the supervisor for further use.


  • 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?

  • Design a MATLAB graphical-user-interface (GUI) program to perform the calibration and then show the determined permittivity on the screen using coaxial probe measurements.

    What realistic constraints is the project outcome expected to satisfy?

  • The GUI program is expected to run on a general-purpose PC.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • It is expected that the proposed system will operate at ordinary laboratory conditions.

    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.

  • It should be user-friendly.
  • The program should allow the flexibility of using different calibration reference liquids.
  • It should show on the screen the determined permittivity over frequency.
  • It is expected that the screen be zoomed in and out capability.

    Division of tasks

  • Write a MATLAB GUI program.
  • Integrate the program with real microwave experiments to test the performance of the program

    Specific components/tools

  • MATLAB program
  • Vector network analyzer
  • Coaxial probe

    The completed project will be kept by the supervisor for further use.


  • 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?

  • Wearable device which can track Alzheimer patient will be designed.

    What realistic constraints is the project outcome expected to satisfy?

  • A person wears a belt with sensors such as a pulse sensor, blood oxygen, fall detection system, accelerometer, temperature sensor, and GPS tracking. These sensors will measure data and send it to a microcontroller that will then use a wifi module to update a database and reflect changes in our web application. If any data from these sensors is outside normal parameters, then the microcontroller will send an alert to a beeper and a notification to the web application.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • Provide an accurate ± 5 beats per minute (BPM) compared to a calibrated Apple Watch measurement
  • Provide an accurate ± 2% oxygen level compared to a calibrated Apple Watch measurement.
  • Be able to detect if a person has fallen with 70% accuracy. This is detected when a person changes their orientation to a different plan rapidly with high acceleration and is motionless for 60 seconds.
  • Provide the location of where the elderly person is within an accuracy of ±50 meters from the location measured using Google Maps.

    What are the specific criteria for the success of the project?

  • A notification is sent to the web app within 2 mins ± 30 secs when there is an irregular heart rate, temperature, or fall detection.
  • The staff can monitor close to real-time heart rate, temperature, GPS location, and fall detection of the person within 2 minutes ± 30 seconds.
  • The beeper on the belt emits an alert within 30 seconds of an irregularity being observed to attract immediate attention.

    Division of tasks

  • Specific components/tools

  • Arduino , GPS module, , Current sensor module, Piezo Buzzer.

    The completed project will be kept by the students to do with as they wish.


  • 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?

  • Impedance Analyzer measurements are important for non-destructive, non-contact, and non-invasive measurements to test the material under test. The objective of the project is to write a LABVIEW program that implements the calibration procedure, automating the measurements by predefined user parameters.

    What realistic constraints is the project outcome expected to satisfy?

  • The LABVIEW program should be as interactive as possible showing on the screen.
  • This program should have a capability of automizing the measurements by predefined user parameters.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • The program should operate impedance analyzer measurement system in the Microwave and Antennas Laboratory.

    What are the specific criteria for the success of the project?

  • The LABVIEW program should perform calibration and allow atomization of measurements by predefined user parameters through communicating the instrument with the computer.

    Division of tasks

  • Write a LABVIEW program.
  • Test the automized measurement system

    Specific components/tools

  • LABVIEW program
  • Impedance analyzer

    The completed project will be kept by the supervisor for further use.


  • 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?

  • Impedance Analyzer measurements are important for non-destructive, non-contact, and non-invasive measurements to test the material under test. The objective of the project is to write a LABVIEW program that implements the calibration procedure, automating the measurements by predefined user parameters.

    What realistic constraints is the project outcome expected to satisfy?

  • The LABVIEW program should be as interactive as possible showing on the screen.
  • This program should have a capability of automizing the measurements by predefined user parameters.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • The program should operate impedance analyzer measurement system in the Microwave and Antennas Laboratory.

    What are the specific criteria for the success of the project?

  • The LABVIEW program should perform calibration and allow atomization of measurements by predefined user parameters through communicating the instrument with the computer.

    Division of tasks

  • Write a LABVIEW program.
  • Test the automized measurement system

    Specific components/tools

  • LABVIEW program
  • Impedance analyzer

    The completed project will be kept by the supervisor for further use.


  • 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?

  • Hardware Design
  • Software Design
  • Mechanical Design

    What realistic constraints is the project outcome expected to satisfy?

  • Accuracy and Precision: The pulse oximeter must provide accurate and reliable measurements of blood oxygen saturation (SpO2) and pulse rate within clinically acceptable ranges. Typically, the accuracy should be within ±2% for SpO2 readings.
  • Wireless Range: The wireless communication (e.g., Bluetooth or Wi-Fi) must cover an adequate range for real-time data transmission without interruption, ideally 30 meters for Bluetooth and greater for Wi-Fi.

    Under which realistic circumstances is the designed product/system supposed to operate?

    Home Care Settings

  • Self-Monitoring by Patients: Patients with chronic respiratory conditions or other health issues may use the device at home for self-monitoring. It should be easy to operate, requiring minimal training.
  • Assisted Living Facilities: The device may be used in assisted living facilities where caregivers monitor multiple patients health metrics.

    Mobile and Outdoor Environments

  • Portability: The pulse oximeter should be designed for portability, allowing for use in various locations, including outdoor settings, sports activities, or travel.

    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:

  • Embedded hardware design group
  • Embedded software design group
  • Mechanical design group

    The completed project will be kept by the students to do with as they wish or donated to the department for display or lab.


  • 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?

  • Hardware Design
  • Software Design
  • Mechanical Design

    What realistic constraints is the project outcome expected to satisfy?

  • Accuracy and Precision: The pulse oximeter must provide accurate and reliable measurements of blood oxygen saturation (SpO2) and pulse rate within clinically acceptable ranges. Typically, the accuracy should be within ±2% for SpO2 readings.
  • Wireless Range: The wireless communication (e.g., Bluetooth or Wi-Fi) must cover an adequate range for real-time data transmission without interruption, ideally 30 meters for Bluetooth and greater for Wi-Fi.

    Under which realistic circumstances is the designed product/system supposed to operate?

    Home Care Settings

  • Self-Monitoring by Patients: Patients with chronic respiratory conditions or other health issues may use the device at home for self-monitoring. It should be easy to operate, requiring minimal training.
  • Assisted Living Facilities: The device may be used in assisted living facilities where caregivers monitor multiple patients health metrics.

    Mobile and Outdoor Environments

  • Portability: The pulse oximeter should be designed for portability, allowing for use in various locations, including outdoor settings, sports activities, or travel.

    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:

  • Embedded hardware design group
  • Embedded software design group
  • Mechanical design group

    The completed project will be kept by the students to do with as they wish or donated to the department for display or lab.


  • 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?

  • Hardware design
  • Software design

    What realistic constraints is the project outcome expected to satisfy?

  • Motor Compatibility: The control system works with single phase motor.
  • Speed Control Precision: The system should provide accurate speed control with minimal fluctuations, ensuring smooth motor operation.
  • Direction Control Accuracy: Switching between clockwise and counterclockwise rotation must be seamless and safe.
  • Response Time: The system should respond quickly to user commands for speed and direction changes to prevent operational delays.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • Wireless Control (Bluetooth): The system should function smoothly within a 10-20m range for Bluetooth applications and allow remote monitoring via IoT.
  • Power Failures & Voltage Fluctuations: The design should handle power surges or drops to avoid damage to components.

    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.


  • 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?

  • Hardware design
  • Software design

    What realistic constraints is the project outcome expected to satisfy?

  • Motor Compatibility: The control system works with single phase motor.
  • Speed Control Precision: The system should provide accurate speed control with minimal fluctuations, ensuring smooth motor operation.
  • Direction Control Accuracy: Switching between clockwise and counterclockwise rotation must be seamless and safe.
  • Response Time: The system should respond quickly to user commands for speed and direction changes to prevent operational delays.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • Wireless Control (Bluetooth): The system should function smoothly within a 10-20m range for Bluetooth applications and allow remote monitoring via IoT.
  • Power Failures & Voltage Fluctuations: The design should handle power surges or drops to avoid damage to components.

    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.


  • 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.

  • The system will use a fingerprint sensor to authenticate users and grant access.

    2. Eliminating the need for users to carry physical keys or remember passwords.

  • The system will replace traditional keys and passwords with biometric authentication.

    3. Providing an easy-to-use, fast, and reliable authentication system.

  • The system will be user-friendly, with quick response times and high accuracy.

    What is the design in this project?

    The design of the project includes the following components and workflow:

    1. Hardware Design:

  • Fingerprint Sensor: Captures and processes fingerprint data.
  • Microcontroller: Processes the data and controls the locking mechanism.
  • Actuator: A servo motor or solenoid to physically lock/unlock the system.
  • Power Supply: Provides energy to the system (battery or adapter).
  • User Interface: LED indicators or an LCD screen to display system status (e.g., "Access Granted" or "Access Denied").

    2. Software Design:

  • Fingerprint Enrollment: Allows new users to register their fingerprints.
  • Fingerprint Matching: Compares scanned fingerprints with stored templates.
  • Access Control Logic: Grants or denies access based on the match result.
  • Error Handling: Manages cases like poor fingerprint quality or unauthorized access attempts.

    3. System Workflow:

  • User places their finger on the sensor.
  • Sensor captures the fingerprint and sends it to the microcontroller.
  • Microcontroller compares the fingerprint with stored templates.
  • If a match is found, the actuator unlocks the system; otherwise, access is denied.

    What realistic constraints is the project outcome expected to satisfy?

  • Cost: The system should be affordable and use cost-effective components.
  • Accuracy: The fingerprint recognition system must have a low false acceptance rate (FAR) and false rejection rate (FRR).
  • Durability: The system should be robust and able to withstand regular use.
  • Power Consumption: The system should be energy-efficient, especially if battery-powered.
  • Response Time: The system should authenticate users within a few seconds.
  • Security: The system must protect stored fingerprint data from unauthorized access.

    Under which realistic circumstances is the designed product/system supposed to operate?

    1. Environmental Conditions:

  • The system should operate reliably in typical indoor environments (e.g., homes, offices).
  • It should be resistant to minor environmental factors like dust or humidity.

    2. User Interaction:

  • The system should be intuitive and require minimal training for users.

    3. Maintenance:

  • The system should require minimal maintenance (e.g., occasional cleaning of the sensor).

    What are the specific criteria for the success of the project?

    1. Functional Prototype:

  • A working prototype that can enroll fingerprints and control a locking mechanism.

    2. Accuracy:

  • At least 95% accuracy in fingerprint recognition.

    3. Response Time:

  • Authentication completed within 2-3 seconds.

    4. User Satisfaction:

  • Positive feedback from test users regarding ease of use and reliability.

    5. Documentation:

  • Clear documentation of the design, code, and user instructions.

    Division of Tasks:

    Student 1:

  • Research and select components (fingerprint sensor, microcontroller, etc.).
  • Design and assemble the hardware circuit.

    Student 2:

  • Develop the software for fingerprint enrollment and matching.
  • Integrate the software with the hardware.

    Student 3:

  • Test the system for accuracy, response time, and reliability.
  • Prepare documentation and user instructions.

    Specific components/tools

    1. Hardware:

  • Fingerprint Sensor Module (e.g., R307, FPC1020).
  • Microcontroller (e.g., Arduino Uno, ESP32).
  • Actuator (e.g., Servo Motor, Solenoid Lock).
  • Power Supply (e.g., 9V Battery, 5V Adapter).
  • LED Indicators or LCD Display.

    2. Software:

  • Arduino IDE or PlatformIO for programming.
  • Fingerprint Sensor Library (e.g., Adafruit Fingerprint Library).

    3. Tools:

  • Soldering Kit, Breadboard, Jumper Wires.
  • Multimeter for testing.

    The completed project will be kept by the students to do with as they wish.


  • 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

  • Objective: The project aims to design and implement an IoT-based smart warehouse management system that uses sensors to track products in real-time. The system will monitor parameters like location, temperature, humidity, and other critical data, transmitting this information to a central system for automated warehouse management.
  • Technologies: RFID, NFC, Bluetooth Low Energy (BLE), LoRaWAN, cloud computing, and IoT platforms.
  • Outcome: Real-time inventory tracking, automated stock alerts, and in-warehouse optimization.

    What is the design in this project?

    The design of the project will include the following components:

    1. Sensor Network:

  • Deploy IoT sensors (e.g., RFID tags, temperature/humidity sensors, BLE beacons) throughout the warehouse to collect real-time data.
  • Use LoRaWAN for long-range, low-power communication between sensors and the central system.

    2. Central Management System:

  • A cloud-based platform to receive, process, and store data from the sensors.
  • A dashboard for real-time monitoring and alerts (e.g., low stock, temperature deviations).

    3. User Interface:

  • A mobile or web application for warehouse staff to access inventory data, receive alerts, and manage operations.

    4. Data Analytics:

  • Implement algorithms for inventory optimization, predictive maintenance, and demand forecasting.

    What realistic constraints is the project outcome expected to satisfy?

    1. Cost Constraints:

  • The system should be cost-effective, using affordable sensors and open-source platforms where possible.

    2. Power Consumption:

  • Sensors and communication modules should be energy-efficient to ensure long battery life.

    3. Scalability:

  • The system should be scalable to accommodate larger warehouses or additional sensors in the future.

    4. Data Security:

  • Ensure secure transmission and storage of sensitive inventory data.

    5. Integration:

  • The system should integrate seamlessly with existing warehouse management software or hardware.

    Under which realistic circumstances is the designed product/system supposed to operate?

    1. Environment:

  • The system should operate in a typical warehouse environment with varying temperatures, humidity levels, and potential interference from metal racks or other equipment.

    2. Network Reliability:

  • The system should function reliably even with intermittent internet connectivity or in remote locations.

    3. User Accessibility:

  • The interface should be user-friendly and accessible to warehouse staff with minimal technical expertise.

    4. Maintenance:

  • The system should require minimal maintenance, with self-diagnostic capabilities for sensors and communication modules.

    What are the specific criteria for the success of the project?

    1. Functionality:

  • Real-time tracking of inventory with accurate location, temperature, and humidity data.
  • Automated alerts for low stock, temperature deviations, or other critical events.

    2. Performance:

  • Data transmission latency should be minimal (e.g., under 5 seconds).
  • The system should handle at least 100 sensors simultaneously without performance degradation.

    3. Usability:

  • The user interface should be intuitive and provide actionable insights.

    4. Scalability:

  • The system should demonstrate the ability to scale to larger warehouses or additional sensors.

    5. Cost-Effectiveness:

  • The total cost of implementation should be within a reasonable budget for small to medium-sized warehouses.

    Division of Tasks:

    Student 1:

  • Research and select appropriate sensors (RFID, temperature/humidity, BLE).
  • Design and implement the sensor network and data transmission (LoRaWAN/BLE).

    Student 2:

  • Develop the cloud-based central management system.
  • Implement data storage, processing, and analytics algorithms.

    Student 3:

  • Design and develop the user interface (mobile/web app).
  • Integrate the sensor network with the central system and ensure seamless communication.

    Specific components/tools

    1. Hardware:

  • RFID tags and readers, BLE beacons, temperature/humidity sensors, LoRaWAN modules.

    2. Software:

  • Cloud platforms (e.g., AWS IoT, Google Cloud IoT).
  • Programming languages (e.g., Python, JavaScript).
  • IoT platforms (e.g., Arduino, Raspberry Pi).

    3. Tools:

  • Data visualization tools (e.g., Tableau, Grafana).
  • Version control (e.g., Git).

    The completed project will be kept by the students to do with as they wish.


  • 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?

  • Design of power electronics circuits for solar and grid integration.
  • Development of IoT-based sensors for real-time energy monitoring.
  • Implementation of AI/ML algorithms for energy optimization.

    What realistic constraints is the project outcome expected to satisfy?

  • Economic: Affordable for residential use.
  • Environmental: Minimize carbon footprint by using renewable energy.
  • Safety: Safe integration of multiple energy sources.
  • Sustainability: Long-lasting and low-maintenance design.

    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?

  • Energy savings of 20-30%.
  • User-friendly interface for real-time monitoring.
  • Compatibility with different energy sources.

    Division of Tasks:

  • Power Electronics: Design of energy conversion circuits.
  • Software: Development of IoT and AI-based control algorithms.
  • Testing: System performance evaluation in a simulated home environment.

    Specific components/tools

  • Microcontroller, IoT sensors, and communication modules.
  • Solar panels, batteries, and grid interface.
  • Energy monitoring and testing tools.

    The completed project will be kept by the students to do with as they wish.


  • 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?

  • The DC motor can be controlled via Bluetooth.
  • At least 3 speed levels should exist.

    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?

  • The DC motor can be controlled via Bluetooth.
  • At least 3 speed levels should exist.

    Division of Tasks: --

    The completed project will be kept by the students to do with as they wish.


  • 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?

  • The DC motor can be controlled via Bluetooth.
  • At least 3 speed levels should exist.

    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?

  • The DC motor can be controlled via Bluetooth.
  • At least 3 speed levels should exist.

    Division of Tasks: --

    The completed project will be kept by the students to do with as they wish.


  • 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:

  • Sensor Stage: An optical pair consisting of an IR LED and a phototransistor will detect light reflected from a reflective strip placed on the rotating object, generating a pulse for each revolution.
  • Signal Conditioning Stage: The analog signal from the sensor will be cleaned and converted into a clean digital signal (TTL) using an op-amp-based comparator circuit before being sent to one of the STM32's input capture pins.
  • Microcontroller Stage: The STM32F103C8T6 (Blue Pill board) microcontroller will use its hardware timers (TIMers) to measure the time period between pulses with high precision. This period information will be used to calculate the RPM value (RPM = 60 / (Period * Number of Reflective Strips)).
  • Display Stage: The calculated RPM value will be displayed continuously to the user on a 16x2 character LCD display.
  • Power Stage: The system will be powered by a 9V battery or a wall adapter; an integrated voltage regulator (e.g., LM7805) will be used to step down the voltage to 5V and 3.3V.

    Expected Operating Conditions:

  • Non-contact measurement using the IR sensor.
  • Reliable operation in industrial, automotive, and scientific environments subject to vibration and electrical noise.
  • Stable measurement performance unaffected by ambient indoor lighting conditions (fluorescent, LED, etc.).

    What realistic constraints is the project outcome expected to satisfy?

  • Measurement Range: 2.5 - 3000 RPM. (Requires algorithm optimization for very low and high speeds).
  • Measurement Distance: 50 - 100 mm.
  • Accuracy: ±1% or ±1 RPM (whichever is greater).
  • Power Supply: 9V Battery or 7-12V DC adapter.
  • Cost: The total cost of components should not exceed 250 TRY.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • The project will be developed as a prototype in a laboratory environment.
  • Testing will be performed using a DC motor, a drill, or a fan with a reflective strip attached.
  • The system will be portable and assembled on a single printed circuit board (PCB) or a breadboard.
  • It will be designed to operate at room temperature (10°C - 35°C).

    What are the specific criteria for the success of the project?

  • Functional Success: The system must provide consistent and accurate RPM readings within the specified measurement range and distance.
  • Software Success: The microcontroller code must operate efficiently and flawlessly using interrupts and timers. The LCD must display the correct information.
  • Hardware Success: The sensor circuit must effectively filter out ambient light noise. The entire circuit must operate stably.
  • Documentation: The project must be delivered with a professional report and comprehensive documentation, including all circuit schematics, flowcharts, and source code.
  • Timely Delivery: The project must be completed by the capstone project submission deadline stated in the academic calendar.

    Division of Tasks:

    Not applicable as this is a single-student project.

    Specific components/tools

  • Microcontroller: STM32F103C8T6 (Blue Pill Development Board)
  • Development Environment: STM32CubeIDE, HAL Libraries
  • Programming Tool: ST-Link V2 Programmer/Debugger
  • Sensor: IR LED and Phototransistor (e.g., TCRT5000 module)
  • Display: 16x2 LCD Display (I2C or parallel)
  • Operational Amplifier: LM358 or LM741 (for signal conditioning)
  • Voltage Regulator: LM7805 (5V) and AMS1117-3.3 (3.3V)
  • Passive Components: Resistors, Capacitors, Potentiometer â
  • Other: Breadboard/PCB, Jumper wires, Battery connector, Soldering equipment

    The completed project will be kept by the supervisor for further use.


  • 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:

  • Sensor Stage: An optical pair consisting of an IR LED and a phototransistor will detect light reflected from a reflective strip placed on the rotating object, generating a pulse for each revolution.
  • Signal Conditioning Stage: The analog signal from the sensor will be cleaned and converted into a clean digital signal (TTL) using an op-amp-based comparator circuit before being sent to one of the STM32's input capture pins.
  • Microcontroller Stage: The STM32F103C8T6 (Blue Pill board) microcontroller will use its hardware timers (TIMers) to measure the time period between pulses with high precision. This period information will be used to calculate the RPM value (RPM = 60 / (Period * Number of Reflective Strips)).
  • Display Stage: The calculated RPM value will be displayed continuously to the user on a 16x2 character LCD display.
  • Power Stage: The system will be powered by a 9V battery or a wall adapter; an integrated voltage regulator (e.g., LM7805) will be used to step down the voltage to 5V and 3.3V.

    Expected Operating Conditions:

  • Non-contact measurement using the IR sensor.
  • Reliable operation in industrial, automotive, and scientific environments subject to vibration and electrical noise.
  • Stable measurement performance unaffected by ambient indoor lighting conditions (fluorescent, LED, etc.).

    What realistic constraints is the project outcome expected to satisfy?

  • Measurement Range: 2.5 - 3000 RPM. (Requires algorithm optimization for very low and high speeds).
  • Measurement Distance: 50 - 100 mm.
  • Accuracy: ±1% or ±1 RPM (whichever is greater).
  • Power Supply: 9V Battery or 7-12V DC adapter.
  • Cost: The total cost of components should not exceed 250 TRY.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • The project will be developed as a prototype in a laboratory environment.
  • Testing will be performed using a DC motor, a drill, or a fan with a reflective strip attached.
  • The system will be portable and assembled on a single printed circuit board (PCB) or a breadboard.
  • It will be designed to operate at room temperature (10°C - 35°C).

    What are the specific criteria for the success of the project?

  • Functional Success: The system must provide consistent and accurate RPM readings within the specified measurement range and distance.
  • Software Success: The microcontroller code must operate efficiently and flawlessly using interrupts and timers. The LCD must display the correct information.
  • Hardware Success: The sensor circuit must effectively filter out ambient light noise. The entire circuit must operate stably.
  • Documentation: The project must be delivered with a professional report and comprehensive documentation, including all circuit schematics, flowcharts, and source code.
  • Timely Delivery: The project must be completed by the capstone project submission deadline stated in the academic calendar.

    Division of Tasks:

    Not applicable as this is a single-student project.

    Specific components/tools

  • Microcontroller: STM32F103C8T6 (Blue Pill Development Board)
  • Development Environment: STM32CubeIDE, HAL Libraries
  • Programming Tool: ST-Link V2 Programmer/Debugger
  • Sensor: IR LED and Phototransistor (e.g., TCRT5000 module)
  • Display: 16x2 LCD Display (I2C or parallel)
  • Operational Amplifier: LM358 or LM741 (for signal conditioning)
  • Voltage Regulator: LM7805 (5V) and AMS1117-3.3 (3.3V)
  • Passive Components: Resistors, Capacitors, Potentiometer â
  • Other: Breadboard/PCB, Jumper wires, Battery connector, Soldering equipment

    The completed project will be kept by the supervisor for further use.


  • 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?

  • Software design
  • Hardware design

    What realistic constraints is the project outcome expected to satisfy?

  • Soft start switching will be used in the project to extend the life of the motor used for the project, to protect the motor driver circuit and to provide a more stable and comfortable ride.
  • Since the project is for electric vehicles, an efficient design is required. The aim should be for the system efficiency not to fall below 80%.
  • In real life, since the system is located inside vehicles, it needs to be boxed to prevent it from taking up too much space and to protect it from external effects.

    What are the specific criteria for the success of the project?

  • System efficiency must be above 80%.
  • The system must be able to operate freely and under load.

    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.


  • 1326 Active Sema Kayhan Smart Color Sorting Line 2025 Fall 3 (1st Edu) Bekri Bustani Eyid,Mohammed Khayat,Muhammed Fetyen


    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?

  • A color detection unit using color sensors
  • A conveyor belt to move objects along the line
  • Actuators (servos or small motors) to divert objects into bins according to color
  • A microcontroller to process sensor data and control actuators

    What realistic constraints is the project outcome expected to satisfy?

  • Sort at least 10 objects per minute
  • Minimum 90% color recognition accuracy
  • Operates safely and reliably indoors
  • Compact and low-cost for desktop demonstration

    Under which realistic circumstances is the designed product/system supposed to operate?

  • Indoor environment with standard lighting
  • Objects with clear, distinct colors
  • Room temperature (20-25°C)
  • Continuous operation for at least 1 hour without manual intervention

    What are the specific criteria for the success of the project?

  • Correctly sorts at least 9 out of 10 objects by color
  • No mechanical jams or failures during operation
  • Smooth integration of sensors, actuators, and conveyor system

    Division of Tasks:

  • Student A: Programming the microcontroller and sensor calibration
  • Student B: Mechanical design and assembly of conveyor and actuator system
  • Student C: System integration, testing, and troubleshooting

    Specific components/tools

  • Arduino Uno (or similar microcontroller)
  • TCS3200 color sensors
  • Servo motors or small actuators
  • Mini conveyor belt assembly
  • 3D-printed or laser-cut parts for structure
  • Power supply and necessary wiring

    The completed project will be donated to the department for display or lab.


  • 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:

  • Mechanics
  • Electronics
  • Software and control

    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.


  • 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?

  • It should be cost effective
  • It should be lightweight

    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:

  • Mechanical Part
  • Electronic Part
  • Software part

    Specific components/tools

    Microcontroller, Sensors, cleaning part, etc.

    The completed project will be kept by the students to do with as they wish.


  • 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?

  • Wearable technology design is required in the project.

    What realistic constraints is the project outcome expected to satisfy?

  • The device should operate for one full day without recharging or replacing batteries.
  • The device should not be heavier than a standard smart phone.
  • The device should not cost more than a standard smart phone.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • Although this depends on the specific type of sportive activity, the device is supposed to be healthy to wear, shockproof and waterproof.

    What are the specific criteria for the success of the project?

  • The criteria will vary depending on the specific design, so they will be determined by the student after preliminary research.

    Division of tasks:

  • Specific components/tools:

  • The completed project will be kept by the students to do with as they wish.


  • 1332 Active Tolgay Kara Wearable technologies for disabled people 2025 Fall 1(1st edu) Abdelrahman Yousef


    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?

  • Wearable technology design is required in the project.

    What realistic constraints is the project outcome expected to satisfy?

  • The device should operate for one full day without recharging or replacing batteries.
  • The device should not be heavier than a standard smart phone.
  • The device should not cost more than a standard smart phone.

    Under which realistic circumstances is the designed product/system supposed to operate?

  • Although this depends on the specific type of sportive activity, the device is supposed to be healthy to wear, shockproof and waterproof.

    What are the specific criteria for the success of the project?

  • The criteria will vary depending on the specific design, so they will be determined by the student after preliminary research.

    Division of tasks:

  • Specific components/tools:

  • The completed project will be kept by the students to do with as they wish.


  • 52 students \ 26 projects