| Project # | Status | Project title |
| Project 1154 |
Available for 1 (2nd Edu) student
|
Portable Oscilloscope |
| Project 1157 |
Available for 3 (1st Edu) students
|
Tennis Ball Picker |
| Project 1161 |
Available for 4 (1st Edu) students
|
Environment Modeling with Virtual Reality (VR) |
| Project 1162 |
Available for 4 (2nd Edu) students
|
Environment Modeling with Virtual Reality (VR) |
| Project 1169 |
Available for 3 (1st Edu) students
|
Function generator |
| Project 1170 |
Available for 3 (2nd Edu) students
|
Function generator |
| Project 1172 |
Available for 3 (2nd Edu) students
|
Design of high efficienyc class D power amplifier |
| Project 1176 |
Available for 4 (2nd Edu) students
|
Design and implementation of a robotic flying bird with a remote controller |
| Project 1179 |
Available for 1 (1st Edu) student
|
Wearable technologies for disabled people |
| Project 1182 |
Available for 3 (2nd Edu) students
|
Trash disposal robot |
| Project 1183 |
Available for 3 (1st Edu) students
|
Design, construction and testing of a unicycle robot with PID control |
| Project 1184 |
Available for 3 (2nd Edu) students
|
Design, construction and testing of a unicycle robot with PID control |
| Project 1185 |
Available for 3 (1st Edu) students
|
Real Time Modified Sign Language Recognition |
| Project 1187 |
Available for 1 (1st Edu) student
|
Realization Low-Frequency RF Energy Harvester |
| Project 1188 |
Available for 1 (2nd Edu) student
|
Realization Low-Frequency RF Energy Harvester |
| Project 1193 |
Available for 1 (1st Edu) student
|
Wearable gas sensor |
| Project 1199 |
Available for 3 or 4 (1st Edu) students
|
Design an realization of the parallel plate system |
| Project 1201 |
Available for 1 (1st Edu) student
|
Design an realization of number location system. |
| Project 1205 |
Available for 1 (1st Edu) student
|
Development of 5V DC To 80V DC-DC Boost Converter |
| Project 1206 |
Available for 1 (2nd Edu) student
|
Development of 5V DC To 80V DC-DC Boost Converter |
| Project 1207 |
Available for 3 (1st Edu) students
|
Touch Screen Controlled Robotic Arm |
| Project 1209 |
Available for 1 (1st Edu) student
|
Development of a cuff-based blood pressure measurement device |
| Project 1210 |
Available for 1 (2nd Edu) student
|
Development of a cuff-based blood pressure measurement device |
| Project 1225 |
Available for 1 (1st Edu) student
|
A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements |
| Project 1226 |
Available for 1 (2nd Edu) student
|
A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements |
| Project 1235 |
Available for 1 (1st Edu) student
|
A Tracking system for Alzheimer’s Patient |
| Project 1239 |
Available for 1 (1st Edu) student
|
An Impedance Analyzer Measurement System Using a LABVIEW program |
| Project 1240 |
Available for 1 (2nd Edu) student
|
An Impedance Analyzer Measurement System Using a LABVIEW program |
| Project 1245 |
Available for 3 students
|
Trash disposal robot |
| Project 1255 |
Available for 3 (1st Edu) students
|
Infrared Vein Imaging System Using a Smartphone |
| Project 1256 |
Available for 3 (2nd Edu) students
|
Infrared Vein Imaging System Using a Smartphone |
| Project 1258 |
Available for 4 (2nd Edu) students
|
Autonomous Parking Robot Design |
| Project 1263 |
Available for 3 (1st Edu) students
|
Development of a small-sized oscilloscope that connects to a PC via USB |
| Project 1264 |
Available for 3 (2nd Edu) students
|
Development of a small-sized oscilloscope that connects to a PC via USB |
| Project 1265 |
Available for 3 (1st Edu) students
|
Design of a drone used for agricultural spraying |
| Project 1266 |
Available for 3 (2nd Edu) students
|
Design of a drone used for agricultural spraying |
| Project 1267 |
Available for 1 (1st Edu) student
|
Cloud-Based Pulseoximeter |
| Project 1268 |
Available for 1 (2nd Edu) student
|
Cloud-Based Pulseoximeter |
| Project 1270 |
Available for 3 (2nd Edu) students
|
Devepolment of Connected weareble ECG Device |
| Project 1276 |
Available for 2 (1st Edu) students
|
Monitoring System for Car/Bicycles |
| Project 1277 |
Available for 2 (2nd Edu) students
|
Monitoring System for Car/Bicycles |
| Project 1278 |
Available for 4 (1st Edu) students
|
Smartphone-Based Vehicle Paint Inspection Using UV Light |
| Project 1279 |
Available for 4 (2nd Edu) students
|
Smartphone-Based Vehicle Paint Inspection Using UV Light |
| Project 1280 |
Available for 3 (1st Edu) students
|
Turkish coffee brewing machine |
| Project 1281 |
Available for 3 (2nd Edu) students
|
Turkish coffee brewing machine |
| Project 1282 |
Available for 3 (1st Edu) students
|
Speed and rotation direction control of AC Induction machine |
| Project 1283 |
Available for 3 (2nd Edu) students
|
Speed and rotation direction control of AC Induction machine |
| Project 1284 |
Available for 3 (1st Edu) students
|
Remote Speed Control of BLDC DC Motors for Drones |
| Project 1285 |
Available for 3 (2nd Edu) students
|
Remote Speed Control of BLDC DC Motors for Drones |
| Project 1286 |
Available for 3 (1st Edu) students
|
Implementation of PID controller on Arduino for speed control of a DC motor |
| Project 1287 |
Available for 3 (2nd Edu) students
|
Implementation of PID controller on Arduino for speed control of a DC motor |
| Project 1288 |
Available for 3 (1st Edu) students
|
PWM control of a universal motor |
| Project 1289 |
Available for 3 (2nd Edu) students
|
PWM control of a universal motor |
| Project 1290 |
Available for 3 (1st Edu) students
|
Fingerprint-Recognition Based Smart Locking System |
| Project 1291 |
Available for 3 (2nd Edu) students
|
Fingerprint-Recognition Based Smart Locking System |
| Project 1292 |
Available for 3 (1st Edu) students
|
IoT-Based Smart Warehouse Management System |
| Project 1293 |
Available for 3 (2nd Edu) students
|
IoT-Based Smart Warehouse Management System |
| Project 1294 |
Available for 3 or 4 (2nd Edu) students
|
Design an realization of the parallel plate system |
| Project 1154 |
Available for 1 (2nd Edu) student
|
Portable Oscilloscope |
|
Title: Portable Oscilloscope
Overview of the project
Developing a mini oscilloscope to display electrical signals up to 20
kHz. The system will be battery powered. The design should be small to
be portable.
What is the design in this project?
Design of a portable oscilloscope
What realistic constraints is the project outcome expected to
satisfy?
The dimensions of oscilloscope 20 x 10 centimeters (maximum).
Under which realistic circumstances is the designed product/system
supposed to operate?
Frequency range upto 20 Khz.
Maximum sampling rate of 50000 samples/sec.
What are the specific criteria for the success of the project?
The design should be portable
Division of tasks:
Specific components/tools:
Arduino Nano
OLED Display
Battery
LEDs
Resistor
Capacitor
Transistor
The project will be kept by the students to do with as they wish.
|
| Project 1157 |
Available for 3 (1st Edu) students
|
Tennis Ball Picker |
|
Title: Tennis Ball Picker
Overview of the project
In this project an automatic tennis ball picker will be designed. It
will pick the ball on the surface and put it in its storage box. Tennis
balls in the area are recognized by the robot automatically.
What is the design in this project?
Construction of a tennis ball picker
What realistic constraints is the project outcome expected to
satisfy?
Designed machine will collect all the balls in the area.
Under which realistic circumstances is the designed product/system
supposed to operate?
It should collect the balls as fast as possible.
What are the specific criteria for the success of the project?
The design should be battery powered and operate at least 10
minutes.
Division of tasks:
Specific components/tools:
Arduino Nano
LCD Display
Control buttons
Resistor
Capacitor
Transistor
The project will be kept by the students to do with as they wish.
|
| Project 1161 |
Available for 4 (1st Edu) students
|
Environment Modeling with Virtual Reality (VR) |
|
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.
|
| Project 1162 |
Available for 4 (2nd Edu) students
|
Environment Modeling with Virtual Reality (VR) |
|
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.
|
| Project 1169 |
Available for 3 (1st Edu) students
|
Function generator |
|
Title: Function generator
Overview of the project
A function generator will be designed having the following properties
Frequency range: 0.2HZ to 2 MHz
Output signal: sine, triangular,square, TTL pulse and DC output signal
Amplitude: Peak to peak voltage of 10 V
What is the design in this project?
A function generator will be designed to produce sine, triangular,
square, TTL pulse and DC output signal.
What realistic constraints is the project outcome expected to
satisfy?
Operating at room temperature
Having frequency range of 0.2Hz to 2 MHz
Having peak to peak voltage of 10 V for output signal
Under which realistic circumstances is the designed product/system
supposed to operate?
At room temperature
What are the specific criteria for the success of the project?
Having frequency range of 0.2Hz to 2 MHz
Having peak to peak voltage of 10 V for output signal
Division of tasks [for group projects]
Specific components/tools
The project will be kept by the students to do with as they
wish.
|
| Project 1170 |
Available for 3 (2nd Edu) students
|
Function generator |
|
Title: Function generator
Overview of the project
A function generator will be designed having the following properties
Frequency range: 0.2HZ to 2 MHz
Output signal: sine, triangular,square, TTL pulse and DC output signal
Amplitude: Peak to peak voltage of 10 V
What is the design in this project?
A function generator will be designed to produce sine, triangular,
square, TTL pulse and DC output signal.
What realistic constraints is the project outcome expected to
satisfy?
Operating at room temperature
Having frequency range of 0.2Hz to 2 MHz
Having peak to peak voltage of 10 V for output signal
Under which realistic circumstances is the designed product/system
supposed to operate?
At room temperature
What are the specific criteria for the success of the project?
Having frequency range of 0.2Hz to 2 MHz
Having peak to peak voltage of 10 V for output signal
Division of tasks [for group projects]
Specific components/tools
The project will be kept by the students to do with as they
wish.
|
| Project 1172 |
Available for 3 (2nd Edu) students
|
Design of high efficienyc class D power amplifier |
|
Title: Design of high efficienyc class D power amplifier
Overview of the project
High efficiecy amplifier will be designed to drive computer speakers or
a set of stereo headphones.
What is the design in this project?
Class D power amplifier
What realistic constraints is the project outcome expected to
satisfy?
Efficiency should be %75 or greater
Under which realistic circumstances is the designed product/system
supposed to operate?
System should be operated between 20 Hz to 20 kHz
What are the specific criteria for the success of the project?
Efficiency should be %75 or greater
Division of tasks [for group projects]
Specific components/tools
The project will be kept by the students to do with as they
wish.
|
| Project 1176 |
Available for 4 (2nd Edu) students
|
Design and implementation of a robotic flying bird with a remote controller |
|
Title: Design and implementation of a robotic flying bird with a remote controller
Overview of the project
In this project the robotic flying bird is designed and implemented. Two
step motors are used to drive the bird’s wings. The bird is
contolled by using a remote controller. The body of the bird should
consist of a lightweight material. The material of which the wing is
made should also be designed from a lightweight material.
What is the design in this project?
The design involves creating a lightweight robotic bird that can
mimic the flight of a real bird using two step motors to drive the
wings. The bird will be remotely controlled, and both the body and wings
will be made of lightweight materials to ensure efficient flight.
What realistic constraints is the project outcome expected to
satisfy?
Weight Limitation: The entire structure (including the motors,
batteries, and control mechanism) must be lightweight to achieve and
maintain flight.
Aerodynamic Design: The shape and design should facilitate flight
rather than hinder it.
Battery Life: The robot should have enough battery life for a
reasonable flight duration.
Range: The remote controller should have a sufficient range to
control the bird without losing connection.
Durability: While being lightweight, the materials used should also
be durable to withstand minor impacts or crashes.
Safety: The design should not have sharp or protruding parts that
can cause injury.
Under which realistic circumstances is the designed product/system
supposed to operate?
Weather Conditions: Ideal operations in light to no wind conditions.
It may not be designed to handle heavy rains or strong winds.
Altitude: The robotic bird should operate at a safe altitude, not
too high to lose control or too low to crash into obstacles.
Daytime: Given that it's a student project, it might be designed
for daytime operations unless additional lighting or night vision
capabilities are added.
Open Spaces: The bird should be operated in open areas away from
tall buildings, trees, and power lines.
What are the specific criteria for the success of the project?
Flight Stability: The bird should be able to maintain stable flight
without erratic movements.
Remote Control Responsiveness: The bird should respond accurately
and promptly to the commands given through the remote controller.
Flight Duration: Achieve a minimum flight duration (e.g., 15
minutes) on a full charge.
Safety: No incidents of the robot causing harm during tests and
demonstrations.
Safety: No incidents of the robot causing harm during tests and
demonstrations.
Division of tasks:
Design & Material Selection: One student can focus on the design
aesthetics and selecting the appropriate lightweight materials.
Motor & Wing Mechanics: A second student can focus on
integrating the step motors with the wing design to achieve realistic
bird-like flapping.
Electronics & Remote Control: A third student can work on the
remote control system and integrating it with the bird.
Testing & Modifications: The fourth student can handle the
testing phase, gathering feedback, and suggesting modifications based on
test results.
Specific components/tools:
Lightweight materials (e.g., foam or lightweight plastic) for the
body and wings.
Two step motors.
Batteries (preferably rechargeable).
Remote control system (transmitter and receiver).
Electronics for control (e.g., microcontroller).
Tools: soldering iron, adhesive, cutting tools, etc.
The project will be kept by the students to do with as they wish.
|
| Project 1179 |
Available for 1 (1st Edu) student
|
Wearable technologies for disabled people |
|
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.
|
| Project 1182 |
Available for 3 (2nd Edu) students
|
Trash disposal robot |
|
Title: Trash disposal robot
Overview of the project
In this project, an autonomous trash disposal robot for indoor use will
be designed and constructed. The robot will move around looking for
dumped trash. When it finds the trash, it will pick it up and put it
into the trash can.
What is the design in this project?
Robot mechanics
Robot electronics
Sensing and control
What realistic constraints is the project outcome expected to
satisfy?
Weight limit of trash: 1 kg
Robot dimensions: 100 cm maximum in any dimension.
Battery life: half an hour.
Under which realistic circumstances is the designed product/system
supposed to operate?
For indoor use at airport terminals or similar large areas.
Can be used on slippery floor, i.e. should have good traction.
Suitable for use in crowd.
What are the specific criteria for the success of the project?
The robot must be able to distinguish between trash and other
objects like bags of people.
Division of tasks:
Mechanics,
Electronis,
Software and control.
Specific components/tools:
The completed project will be kept by the students to do with as
they wish.
|
| Project 1183 |
Available for 3 (1st Edu) students
|
Design, construction and testing of a unicycle robot with PID control |
|
Title: Design, construction and testing of a unicycle robot with PID control
Overview of the project
A unicycle robot will be developed, and self-balancing performance will
be tested using PID control method.
What is the design in this project?
Design of unicycle robot mechanics.
Design of unicycle robot electronics.
PID control design.
What realistic constraints is the project outcome expected to
satisfy?
The robot should not be larger than 50 cm. in any dimension.
The robot should keep its balance despite disturbances up to 15
degrees with respect to vertical.
Under which realistic circumstances is the designed product/system
supposed to operate?
The robot will operate indoors and outdoors on different surfaces.
What are the specific criteria for the success of the project?
The success criterion is to get the steady-state and transient
control performances from the designed PID controller.
Division of tasks:
Robot Mechanics,
Robot Electronis,
Software and control.
Specific components/tools:
The completed project will be kept by the students to do with as
they wish.
|
| Project 1184 |
Available for 3 (2nd Edu) students
|
Design, construction and testing of a unicycle robot with PID control |
|
Title: Design, construction and testing of a unicycle robot with PID control
Overview of the project
A unicycle robot will be developed, and self-balancing performance will
be tested using PID control method.
What is the design in this project?
Design of unicycle robot mechanics.
Design of unicycle robot electronics.
PID control design.
What realistic constraints is the project outcome expected to
satisfy?
The robot should not be larger than 50 cm. in any dimension.
The robot should keep its balance despite disturbances up to 15
degrees with respect to vertical.
Under which realistic circumstances is the designed product/system
supposed to operate?
The robot will operate indoors and outdoors on different surfaces.
What are the specific criteria for the success of the project?
The success criterion is to get the steady-state and transient
control performances from the designed PID controller.
Division of tasks:
Robot Mechanics,
Robot Electronis,
Software and control.
Specific components/tools:
The completed project will be kept by the students to do with as
they wish.
|
| Project 1185 |
Available for 3 (1st Edu) students
|
Real Time Modified Sign Language Recognition |
|
Title: Real Time Modified Sign Language Recognition
Overview of the project
The students are supposed to develop a software on PC that recognizes
the sign language in real time. The traditional sign language must be
modified and each move must mean some thing else. For example the phrase
“How are you?” must be represented by only one hand move.
What is the design in this project?
The software that is to be developed and the modified sign language
are the design sections of the projects.
What realistic constraints is the project outcome expected to satisfy?
If the developed software recognizes at least some of the hand moves
with a remarkable accuracy, it is satisfactory.
Under which realistic circumstances is the designed product/system supposed to operate?
The developed software must operate at least on PC(preferred)
What are the specific criteria for the success of the project?
If the developed software recognizes at least some of the hand moves
with a remarkable accuracy in real time, project can be regarded as
succesful.
Division of tasks:
Up to the students
Specific components/tools:
A powerful enough PC with a webcam or an external camera
Required software
The completed project will be kept by the students to do with as they wish.
|
| Project 1187 |
Available for 1 (1st Edu) student
|
Realization Low-Frequency RF Energy Harvester |
|
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.
|
| Project 1188 |
Available for 1 (2nd Edu) student
|
Realization Low-Frequency RF Energy Harvester |
|
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.
|
| Project 1193 |
Available for 1 (1st Edu) student
|
Wearable gas sensor |
|
Title: Wearable gas sensor
Overview of the project
In this project, a wearable gas sensor for industrial harsh conditions will be developed. The
system will consist of a vest, a gas sensor, a suitable Arduino board, and additional
components. The function of this vest will be as follows: The system should be able to
continuously check the following gas densities (minimum 2 gas types are required). The ppm
level of the gas can be shown on an LCD display. If the ppm level of the gas becomes greater
than the predefined threshold level, the system will alert the user. This system will be connected
to a mobile phone by Bluetooth. The system should be able to continuously measure the
environment temperature and humidity. Other details can be discussed with the supervisor.
For this project, the ppm level of minimum 2 gas types from the following list should be
continuously monitored:
Carbon monoxide CO 1 - 1000ppm
Nitrogen dioxide NO2 0.05 - 10ppm
Ethanol C2H5OH 10 - 500ppm
Hydrogen H2 1 - 1000ppm
Ammonia NH3 1 - 500ppm
Metan CH4>1000ppm
Propan C3H8>1000ppm
İzobütan C4H10>1000ppm
What is the design in this project?
The design in this project is a wearable gas sensor.
What realistic constraints is the project outcome expected to
satisfy?
The ppm levels of minimum 2-gas types of should be monitored.
The system should continuously monitor the temperature and humidity of the
environment.
Under which realistic circumstances is the designed product/system
supposed to operate?
The robot should be operated under room temperature conditions.
What are the specific criteria for the success of the project?
The ppm levels of minimum 2-gas types of should be monitored.
The system should continuously monitor the temperature and humidity of the
environment.
Division of tasks:
Specific components/tools:
A suitable Arduino board
MICS-6814 gas sensor
Battery
A compatible temperature and humidity sensor
A compatible Bluetooth module
A mobile phone or tablet supports Bluetooth connection
Other related hardware/components
The project will be kept by the students to do with as they wish.
|
| Project 1199 |
Available for 3 or 4 (1st Edu) students
|
Design an realization of the parallel plate system |
|
Title: Design an realization of the parallel plate system
Overview of the project
In this Project the system will be designed to keep the plate paralel to ground to hold the free moving
sphere on it. The plate located on to the controllable system will move in required direction to keep
the Rolling sphere at the center.
What is the design in this project?
Control mechanism both software and hardware will be originally designed according to the chosen
method. To follow the motion of the sphere and to transfer that information to mechanic structure are
main parts of the system.
What realistic constraints is the project outcome expected to
satisfy?
The dimension of the plate will be 30x30 cm. The plate may be centers or may be holded on some edges
or corners. 2 dimensional motion of the plate must be satisfied by servo motors.
Under which realistic circumstances is the designed product/system
supposed to operate?
The free moving sphere must be kept on plate at least 10 sec.
What are the specific criteria for the success of the project?
Both software and hardware must be realized.
Division of Tasks:
All students will be responsible from all part of the system. Students may focus their power on some
part of the Project.
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.
|
| Project 1201 |
Available for 1 (1st Edu) student
|
Design an realization of number location system. |
|
Title: Design an realization of number location system.
Overview of the project
In this Project the system will be designed to locate the numbers from 1 to 10 by using some carrirying
mechanism.
What is the design in this project?
The system to recognize the number using image processing will be prepared and a mechanism will hold
the number and will locate it on to specific position on some base.
What realistic constraints is the project outcome expected to
satisfy?
The dimension of the plate will be 30x30 cm. There will be signs from 1 to 10 on the plate and an
arm will hold and carry the number to that position.
Under which realistic circumstances is the designed product/system
supposed to operate?
The numbers will g oto the correct position.
What are the specific criteria for the success of the project?
Both software and hardware must be realized.
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.
|
| Project 1205 |
Available for 1 (1st Edu) student
|
Development of 5V DC To 80V DC-DC Boost Converter |
|
Title: Development of 5V DC To 80V DC-DC Boost Converter
Overview of the project
In the project, the input voltage varies between 5V-10V volts. Output voltage will
be 80V DC. Student needs to design embedded software, embedded hardware
and power electronics circuitry to develop this converter.
What is the design in this project?
embedded hardware
embedded software
power electronic circuits
What realistic constraints is the project outcome expected to
satisfy?
image transmission distance 3KM
Measuring Method Oscillometric
Brushless motor
Under which realistic circumstances is the designed product/system
supposed to operate?
Control Type Remote Control
Power Battery
What are the specific criteria for the success of the project?
Maximum Flight Time 35 Minutes
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.
|
| Project 1206 |
Available for 1 (2nd Edu) student
|
Development of 5V DC To 80V DC-DC Boost Converter |
|
Title: Development of 5V DC To 80V DC-DC Boost Converter
Overview of the project
In the project, the input voltage varies between 5V-10V volts. Output voltage will
be 80V DC. Student needs to design embedded software, embedded hardware
and power electronics circuitry to develop this converter.
What is the design in this project?
embedded hardware
embedded software
power electronic circuits
What realistic constraints is the project outcome expected to
satisfy?
image transmission distance 3KM
Measuring Method Oscillometric
Brushless motor
Under which realistic circumstances is the designed product/system
supposed to operate?
Control Type Remote Control
Power Battery
What are the specific criteria for the success of the project?
Maximum Flight Time 35 Minutes
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.
|
| Project 1207 |
Available for 3 (1st Edu) students
|
Touch Screen Controlled Robotic Arm |
|
Title: Touch Screen Controlled Robotic Arm
Overview of the project
In the project, the robot will be controlled remotely through a touchscreen.
Movements to be executed by the robot will be transmitted to the robot via radio
signals through the touchscreen. The robot is expected to analyze the received
signal and perform the necessary tasks accordingly.
What is the design in this project?
embedded hardware
embedded software
What realistic constraints is the project outcome expected to
satisfy?
Axis 6-axis
Voltage 220V
Frequency 50HZ
Input 12V/4A DC
Power 50W max
Accuracy 0.2mm
Under which realistic circumstances is the designed product/system
supposed to operate?
Control Type Remote Control
Power Battery
What are the specific criteria for the success of the project?
The robot arm is expected to move in 3 directions and start executing the command within 1
second.
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.
|
| Project 1209 |
Available for 1 (1st Edu) student
|
Development of a cuff-based blood pressure measurement device |
|
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.
|
| Project 1210 |
Available for 1 (2nd Edu) student
|
Development of a cuff-based blood pressure measurement device |
|
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.
|
| Project 1225 |
Available for 1 (1st Edu) student
|
A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements |
|
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.
|
| Project 1226 |
Available for 1 (2nd Edu) student
|
A MATLAB-GUI user interface program for calibration and visualization of coaxial probe measurements |
|
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.
|
| Project 1235 |
Available for 1 (1st Edu) student
|
A Tracking system for Alzheimer’s Patient |
|
Title: A Tracking system for Alzheimer’s 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’s 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.
|
| Project 1239 |
Available for 1 (1st Edu) student
|
An Impedance Analyzer Measurement System Using a LABVIEW program |
|
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.
|
| Project 1240 |
Available for 1 (2nd Edu) student
|
An Impedance Analyzer Measurement System Using a LABVIEW program |
|
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.
|
| Project 1245 |
Available for 3 students
|
Trash disposal robot |
|
Title: Trash disposal robot
Overview of the project
In this project, an autonomous trash disposal robot for indoor use will
be designed and constructed. The robot will move around looking for
dumped trash. When it finds the trash, it will pick it up and put it
into the trash can.
What is the design in this project?
Robot mechanics
Robot electronics
Sensing and control
What realistic constraints is the project outcome expected to
satisfy?
Weight limit of trash: 1 kg
Robot dimensions: 100 cm maximum in any dimension.
Battery life: half an hour.
Under which realistic circumstances is the designed product/system
supposed to operate?
For indoor use at airport terminals or similar large areas.
Can be used on slippery floor, i.e. should have good traction.
Suitable for use in crowd.
What are the specific criteria for the success of the project?
The robot must be able to distinguish between trash and other
objects like bags of people.
Division of tasks:
Mechanics,
Electronis,
Software and control.
Specific components/tools:
The completed project will be kept by the students to do with as
they wish.
|
| Project 1255 |
Available for 3 (1st Edu) students
|
Infrared Vein Imaging System Using a Smartphone |
|
Title: Infrared Vein Imaging System Using a Smartphone
Overview of the project
This project aims to develop an infrared vein imaging system that can be
attached to a smartphone. The system uses infrared light to visualize
superficial veins beneath the skin by integrating with the smartphone
camera. This technology can aid in easier and more accurate vein
detection for intravenous injections and other procedures. The project
includes the design of the device hardware, software integration, and
user experience.
What is the design in this project?
The design involves an infrared light source and camera adapter that can
be attached to a smartphone. The infrared light highlights veins beneath
the skin, and the smartphone camera captures this image. The software
processes the images to make the veins more visible. The design also
includes user interface considerations and the portability of the
device.
What realistic constraints is the project outcome expected to
satisfy?
Image Quality: The veins must be clearly and accurately visualized.
Portability: The device should be lightweight and easy to use.
Compatibility: The device must be compatible with various smartphone
models.
Cost: The project should use cost-effective components.
Energy Efficiency: The device should have low power consumption to
ensure long usage periods.
Under which realistic circumstances is the designed product/system
supposed to operate?
Clinical Settings: The device will be used in hospitals and clinics
for medical procedures.
Home Use: It may be used in home care settings to facilitate vein
detection.
Different Skin Types: It should work effectively across various skin
tones and thicknesses.
Variable Lighting Conditions: It should function well under different
ambient lighting conditions.
What are the specific criteria for the success of the project?
Image Accuracy: Accurate and clear visualization of veins.
User Experience: A user-friendly and ergonomic design.
Application Performance: Effective functioning of the infrared light
source and camera adapter.
Portability: The device should be practical and easy to carry.
Cost Effectiveness: The project should be completed within budget
constraints.
Division of Tasks:
Hardware Design: Designing the infrared light source and adapter,
material selection, and assembly.
Software Development: Developing image processing software and user
interface design.
Testing and Evaluation: Testing the device's performance under
various conditions.
Project Management: Planning the project, managing timelines, and
coordinating team efforts.
Specific components/tools
Infrared LED Light Source
Smartphone Adapter
Camera Lenses or Filters
Software Development Tools (e.g., mobile application development
software)
Testing Equipment (e.g., tools for testing on different skin types
and veins)
The completed project will be kept by the supervisor for further use..
|
| Project 1256 |
Available for 3 (2nd Edu) students
|
Infrared Vein Imaging System Using a Smartphone |
|
Title: Infrared Vein Imaging System Using a Smartphone
Overview of the project
This project aims to develop an infrared vein imaging system that can be
attached to a smartphone. The system uses infrared light to visualize
superficial veins beneath the skin by integrating with the smartphone
camera. This technology can aid in easier and more accurate vein
detection for intravenous injections and other procedures. The project
includes the design of the device hardware, software integration, and
user experience.
What is the design in this project?
The design involves an infrared light source and camera adapter that can
be attached to a smartphone. The infrared light highlights veins beneath
the skin, and the smartphone camera captures this image. The software
processes the images to make the veins more visible. The design also
includes user interface considerations and the portability of the
device.
What realistic constraints is the project outcome expected to
satisfy?
Image Quality: The veins must be clearly and accurately visualized.
Portability: The device should be lightweight and easy to use.
Compatibility: The device must be compatible with various smartphone
models.
Cost: The project should use cost-effective components.
Energy Efficiency: The device should have low power consumption to
ensure long usage periods.
Under which realistic circumstances is the designed product/system
supposed to operate?
Clinical Settings: The device will be used in hospitals and clinics
for medical procedures.
Home Use: It may be used in home care settings to facilitate vein
detection.
Different Skin Types: It should work effectively across various skin
tones and thicknesses.
Variable Lighting Conditions: It should function well under different
ambient lighting conditions.
What are the specific criteria for the success of the project?
Image Accuracy: Accurate and clear visualization of veins.
User Experience: A user-friendly and ergonomic design.
Application Performance: Effective functioning of the infrared light
source and camera adapter.
Portability: The device should be practical and easy to carry.
Cost Effectiveness: The project should be completed within budget
constraints.
Division of Tasks:
Hardware Design: Designing the infrared light source and adapter,
material selection, and assembly.
Software Development: Developing image processing software and user
interface design.
Testing and Evaluation: Testing the device's performance under
various conditions.
Project Management: Planning the project, managing timelines, and
coordinating team efforts.
Specific components/tools
Infrared LED Light Source
Smartphone Adapter
Camera Lenses or Filters
Software Development Tools (e.g., mobile application development
software)
Testing Equipment (e.g., tools for testing on different skin types
and veins)
The completed project will be kept by kept by the supervisor for further use.
|
| Project 1258 |
Available for 4 (2nd Edu) students
|
Autonomous Parking Robot Design |
|
Title: Autonomous Parking Robot Design
Overview of the project
It is known that autonomous vehicles will be the future of transportation systems.
The purpose of this project is to design a robot car which maneuvers through a
miniature parking lot to find open perpendicular or parallel spots and then
automatically parks the robot car.
What is the design in this project?
Hardware design for autonomous robot car
Software design for the microcontroller-based operation
What realistic constraints is the project outcome expected to
satisfy?
The robot car must park automatically without hitting other cars in the parking lot.
Under which realistic circumstances is the designed product/system
supposed to operate?
The robot car must have its own battery.
Parking must be accomplished using techniques from image processing and remote
sensing to interpret data from a camera and/or lidar and use basic control theory for
robot car movement. However, there is freedom in the design and sensors to be used.
What are the specific criteria for the success of the project?
The robot car must be able to park autonomously both parallel and perpendicularly
whenever needed.
The completed project will be kept by the students to do with as they
wish.
|
| Project 1263 |
Available for 3 (1st Edu) students
|
Development of a small-sized oscilloscope that connects to a PC via USB |
|
Title: Development of a small-sized oscilloscope that connects to a PC via USB
Overview of the project
The project involves the development of an oscilloscope referred to as a
USB oscilloscope. As the name suggests, the oscilloscope will connect to
a PC via a USB port, and the PC's screen will be used as the
oscilloscope's display. The project requires both embedded software and
embedded hardware work. The details will be shared in the first meeting
with the students.
What is the design in this project?
Embedded hardware
Embedded software
User interface program
What realistic constraints is the project outcome expected to
satisfy?
Hardware trigger
Maximum voltage measured 10V
Minimum voltage division 20mV
Number of samples per second 200Kbytes
Under which realistic circumstances is the designed product/system
supposed to operate?
It is expected to display different waveforms at different voltage
levels on the screen
What are the specific criteria for the success of the project?
The ability to display different waveforms on the screen with the
desired resolution is a condition for success.
Division of Tasks:
Embedded hardware design group
Embedded software 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.
|
| Project 1264 |
Available for 3 (2nd Edu) students
|
Development of a small-sized oscilloscope that connects to a PC via USB |
|
Title: Development of a small-sized oscilloscope that connects to a PC via USB
Overview of the project
The project involves the development of an oscilloscope referred to as a
USB oscilloscope. As the name suggests, the oscilloscope will connect to
a PC via a USB port, and the PC's screen will be used as the
oscilloscope's display. The project requires both embedded software and
embedded hardware work. The details will be shared in the first meeting
with the students.
What is the design in this project?
Embedded hardware
Embedded software
User interface program
What realistic constraints is the project outcome expected to
satisfy?
Hardware trigger
Maximum voltage measured 10V
Minimum voltage division 20mV
Number of samples per second 200Kbytes
Under which realistic circumstances is the designed product/system
supposed to operate?
It is expected to display different waveforms at different voltage
levels on the screen
What are the specific criteria for the success of the project?
The ability to display different waveforms on the screen with the
desired resolution is a condition for success.
Division of Tasks:
Embedded hardware design group
Embedded software 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.
|
| Project 1265 |
Available for 3 (1st Edu) students
|
Design of a drone used for agricultural spraying |
|
Title: Design of a drone used for agricultural spraying
Overview of the project
Manual pesticide spraying has been widely used in agriculture for many
years. However, this method may not be precise enough in pest control
and often leads to excessive chemical use, causing environmental damage.
Particularly, direct contact of workers with pesticides can result in
health issues such as skin irritation, respiratory problems, nervous
system disorders, and, in the long term, even cancer. The World Health
Organization (WHO) reports that approximately one million people
experience health problems each year due to pesticide exposure. These
risks highlight the need to develop new spraying methods aimed at both
improving worker safety and protecting the environment. This is where
drone technology comes into play. As indicated by the name of the
project, the design and implementation of a drone for pesticide spraying
in agriculture will be carried out. The project output will consist of a
spraying pump to ensure the controlled application of the chemical
liquid to the plants, a tank to carry a sufficient amount of pesticide
during the spraying process, an octocopter mechanical frame, motors, a
battery, and a camera to monitor and manage the spraying process in
real-time.
What is the design in this project?
Embedded hardware
Embedded software
Mechanical design
What realistic constraints is the project outcome expected to
satisfy?
Flight time will be 10 minutes.
Flight speed is 10 meters per second.
Communication range is 500 meters.
Spraying width is 4 meters.
Under which realistic circumstances is the designed product/system
supposed to operate?
It will be sufficient for the project output to successfully fulfill its
function if the values specified in the constraints section are met.
What are the specific criteria for the success of the project?
If it sprays at a width of 4 meters with a speed of 10 meters per
second, the project output will be considered successful.
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.
|
| Project 1266 |
Available for 3 (2nd Edu) students
|
Design of a drone used for agricultural spraying |
|
Title: Design of a drone used for agricultural spraying
Overview of the project
Manual pesticide spraying has been widely used in agriculture for many
years. However, this method may not be precise enough in pest control
and often leads to excessive chemical use, causing environmental damage.
Particularly, direct contact of workers with pesticides can result in
health issues such as skin irritation, respiratory problems, nervous
system disorders, and, in the long term, even cancer. The World Health
Organization (WHO) reports that approximately one million people
experience health problems each year due to pesticide exposure. These
risks highlight the need to develop new spraying methods aimed at both
improving worker safety and protecting the environment. This is where
drone technology comes into play. As indicated by the name of the
project, the design and implementation of a drone for pesticide spraying
in agriculture will be carried out. The project output will consist of a
spraying pump to ensure the controlled application of the chemical
liquid to the plants, a tank to carry a sufficient amount of pesticide
during the spraying process, an octocopter mechanical frame, motors, a
battery, and a camera to monitor and manage the spraying process in
real-time.
What is the design in this project?
Embedded hardware
Embedded software
Mechanical design
What realistic constraints is the project outcome expected to
satisfy?
Flight time will be 10 minutes.
Flight speed is 10 meters per second.
Communication range is 500 meters.
Spraying width is 4 meters.
Under which realistic circumstances is the designed product/system
supposed to operate?
It will be sufficient for the project output to successfully fulfill its
function if the values specified in the constraints section are met.
What are the specific criteria for the success of the project?
If it sprays at a width of 4 meters with a speed of 10 meters per
second, the project output will be considered successful.
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.
|
| Project 1267 |
Available for 1 (1st Edu) student
|
Cloud-Based Pulseoximeter |
|
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.
|
| Project 1268 |
Available for 1 (2nd Edu) student
|
Cloud-Based Pulseoximeter |
|
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.
|
| Project 1270 |
Available for 3 (2nd Edu) students
|
Devepolment of Connected weareble ECG Device |
|
Title: Devepolment of Connected weareble ECG Device
Overview of the project
As medical remote patient monitoring becomes more important, the need
for wearable ECG capability has become ciritical. Connected wearable
electrocardiogram (ECG) devices represent a significant advancement in
the field of personal healthcare monitoring. These devices are designed
to continuously track heart activity, offering real-time insights into
cardiovascular health. With the integration of advanced sensors,
wireless technology, and cloud-based platforms, connected wearable ECG
devices are transforming how patients and healthcare providers manage
heart conditions. In the project, students will develop a portable ECG
measurement device with internet connectivity. Project details will be
shared in the first meeting with the students.
What is the design in this project?
Hardware Design
Software Design
Design for internet connection and data storage
What realistic constraints is the project outcome expected to
satisfy?
Battery Life: The device should operate for an extended period
(e.g., 24 hours or more) on a single charge to ensure continuous
monitoring without frequent recharging.
Data Transmission Range: The wireless communication module (e.g.,
Bluetooth or Wi-Fi) must maintain reliable connectivity within a certain
range, typically up to 10 meters for Bluetooth and broader for Wi-Fi.
Data Accuracy and Precision: The ECG readings must meet
clinically
acceptable accuracy levels (typically ±2% for heart rate and ±2% for
SpO2 if applicable) to ensure reliable monitoring and diagnosis.
Under which realistic circumstances is the designed product/system
supposed to operate?
Active Lifestyle: The device should function effectively during
various daily activities, including walking, running, exercising, and
engaging in sports. It must provide accurate readings even during
physical exertion.
Sleep Monitoring: The device should be comfortable enough to
wear during sleep to monitor heart activity and detect sleep-related
issues like sleep apnea.
Variable Weather: The device should be operational in different
weather conditions, including rain, humidity, and temperature
variations. Water-resistant or waterproof designs will be important for
outdoor use.
Different Settings: Users may wear the device in various
settings, including at home, in the workplace, or while traveling. It
should be unobtrusive and not interfere with normal activities.
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.
|
| Project 1276 |
Available for 2 (1st Edu) students
|
Monitoring System for Car/Bicycles |
|
Title: Monitoring System for Car/Bicycles
Overview of the project
Car monitoring systems are becoming increasingly common in newer cars
today.
However, the majority of cars on the road are older models that lack
these advanced safety features. Additionally, vehicles parked in
high-risk or unfamiliar areas are often vulnerable to potential theft or vandalism.The purpose of this project is to build a comprehensive car monitoring
system that can be easily installed into any older car, providing drivers with improved safety and security both while driving
and when their vehicle is parked.
What is the design in this project?
Car(you can use bike also) monitoring systems including a blindspot
detection and monitoring system equipped with sensors will be designed.
What realistic constraints is the project outcome expected to
satisfy?
Blind Spot Detection and Alerting
Away From Car/Bike (AFB) Monitoring
Alerting System and Mobile App
Under which realistic circumstances is the designed product/system
supposed to operate?
The system shall accurately detect obstacles or
vehicles in the cyclist's blind spot within a 3-meter radius and provide
real-time visual
(LED) and audible alerts within 1 second of detection.
The system shall monitor motion around the parked car/bicycle
sending
an alert
to the mobile application within 3 seconds.
The mobile application shall display riding analytics
and provide an intuitive interface for managing system features, if any
motion is detected.
What are the specific criteria for the success of the project?
The system accurately detects vehicles in blindspots and motion
around the car with at least 90% accuracy and minimal false alarms.
Alerts (LED, sound, or mobile app notifications) are activated
within
1 second of detecting a vehicle
Specific components/tools
Microcontroller
Sensors; i.e. array of ultrasonic sensors
Mobile Application
Alerting System
Power System
The completed project will be kept by the students to do with as they
wish.
|
| Project 1277 |
Available for 2 (2nd Edu) students
|
Monitoring System for Car/Bicycles |
|
Title: Monitoring System for Car/Bicycles
Overview of the project
Car monitoring systems are becoming increasingly common in newer cars
today.
However, the majority of cars on the road are older models that lack
these advanced safety features. Additionally, vehicles parked in
high-risk or unfamiliar areas are often vulnerable to potential theft or vandalism.The purpose of this project is to build a comprehensive car monitoring
system that can be easily installed into any older car, providing drivers with improved safety and security both while driving
and when their vehicle is parked.
What is the design in this project?
Car(you can use bike also) monitoring systems including a blindspot
detection and monitoring system equipped with sensors will be designed.
What realistic constraints is the project outcome expected to
satisfy?
Blind Spot Detection and Alerting
Away From Car/Bike (AFB) Monitoring
Alerting System and Mobile App
Under which realistic circumstances is the designed product/system
supposed to operate?
The system shall accurately detect obstacles or
vehicles in the cyclist's blind spot within a 3-meter radius and provide
real-time visual
(LED) and audible alerts within 1 second of detection.
The system shall monitor motion around the parked car/bicycle
sending
an alert
to the mobile application within 3 seconds.
The mobile application shall display riding analytics
and provide an intuitive interface for managing system features, if any
motion is detected.
What are the specific criteria for the success of the project?
The system accurately detects vehicles in blindspots and motion
around the car with at least 90% accuracy and minimal false alarms.
Alerts (LED, sound, or mobile app notifications) are activated
within
1 second of detecting a vehicle
Specific components/tools
Microcontroller
Sensors; i.e. array of ultrasonic sensors
Mobile Application
Alerting System
Power System
The completed project will be kept by the students to do with as they
wish.
|
| Project 1278 |
Available for 4 (1st Edu) students
|
Smartphone-Based Vehicle Paint Inspection Using UV Light |
|
Title: Smartphone-Based Vehicle Paint Inspection Using UV Light
Overview of the project
This project aims to develop a smartphone-based system for detecting
inconsistencies in vehicle paint using ultraviolet (UV) light. The
system will help identify repainting, scratches, and underlying surface
defects by analyzing fluorescence properties under UV illumination. The
solution will include a smartphone-compatible UV light source and a
mobile application for image processing and defect detection. The
project will focus on developing an affordable, portable, and
user-friendly inspection tool for vehicle owners, automotive
professionals, and insurance assessors.
What is the design in this project?
The design consists of:
A UV light attachment compatible with smartphone cameras.
A mobile application that captures and processes UV-exposed images
to
highlight paint inconsistencies.
A user-friendly interface for image enhancement and defect
classification.
A comparative analysis feature to differentiate between original and
repainted sections.
What realistic constraints is the project outcome expected to
satisfy?
Cost-effectiveness: The system should be affordable for general
consumers.
Portability: The design should be compact and easy to attach to a
smartphone.
Usability: The application should be intuitive, requiring minimal
user
expertise.
Accuracy: The detection algorithm should provide reliable results.
Battery Efficiency: The UV light should consume minimal power for
prolonged usage.
Safety: The UV exposure levels should be within safe limits for
human
use.
Under which realistic circumstances is the designed product/system
supposed to operate?
Automobile workshops for verifying original paint.
Used car dealerships for assessing paint repairs.
Insurance assessments to detect accidental repairs.
Individual vehicle owners for self-inspection.
Low-light conditions, as UV light works best in dim environments.
What are the specific criteria for the success of the project?
Successful attachment of the UV light module to a smartphone.
Development of an application capable of detecting paint
inconsistencies.
Achieving a minimum detection accuracy of 80% in test conditions.
Real-time image processing without significant lag.
Positive feedback from test users regarding ease of use and
effectiveness.
Division of Tasks:
Hardware Development: Designing and testing the UV light module.
Software Development: Building and optimizing the mobile
application.
Image Processing: Implementing algorithms for paint defect
detection.
Testing & Validation: Conducting real-world tests on various vehicle
surfaces.
Documentation & Reporting: Preparing reports and presentations.
Specific components/tools
Smartphone with high-resolution camera
UV LED module (365-395 nm wavelength)
3D-printed or pre-fabricated attachment clip
Mobile application (Android/iOS) for image processing
Image processing libraries (OpenCV, TensorFlow, etc.)
The completed project will be kept by the students to do with as they
wish.
|
| Project 1279 |
Available for 4 (2nd Edu) students
|
Smartphone-Based Vehicle Paint Inspection Using UV Light |
|
Title: Smartphone-Based Vehicle Paint Inspection Using UV Light
Overview of the project
This project aims to develop a smartphone-based system for detecting
inconsistencies in vehicle paint using ultraviolet (UV) light. The
system will help identify repainting, scratches, and underlying surface
defects by analyzing fluorescence properties under UV illumination. The
solution will include a smartphone-compatible UV light source and a
mobile application for image processing and defect detection. The
project will focus on developing an affordable, portable, and
user-friendly inspection tool for vehicle owners, automotive
professionals, and insurance assessors.
What is the design in this project?
The design consists of:
A UV light attachment compatible with smartphone cameras.
A mobile application that captures and processes UV-exposed images
to
highlight paint inconsistencies.
A user-friendly interface for image enhancement and defect
classification.
A comparative analysis feature to differentiate between original and
repainted sections.
What realistic constraints is the project outcome expected to
satisfy?
Cost-effectiveness: The system should be affordable for general
consumers.
Portability: The design should be compact and easy to attach to a
smartphone.
Usability: The application should be intuitive, requiring minimal
user
expertise.
Accuracy: The detection algorithm should provide reliable results.
Battery Efficiency: The UV light should consume minimal power for
prolonged usage.
Safety: The UV exposure levels should be within safe limits for
human
use.
Under which realistic circumstances is the designed product/system
supposed to operate?
Automobile workshops for verifying original paint.
Used car dealerships for assessing paint repairs.
Insurance assessments to detect accidental repairs.
Individual vehicle owners for self-inspection.
Low-light conditions, as UV light works best in dim environments.
What are the specific criteria for the success of the project?
Successful attachment of the UV light module to a smartphone.
Development of an application capable of detecting paint
inconsistencies.
Achieving a minimum detection accuracy of 80% in test conditions.
Real-time image processing without significant lag.
Positive feedback from test users regarding ease of use and
effectiveness.
Division of Tasks:
Hardware Development: Designing and testing the UV light module.
Software Development: Building and optimizing the mobile
application.
Image Processing: Implementing algorithms for paint defect
detection.
Testing & Validation: Conducting real-world tests on various vehicle
surfaces.
Documentation & Reporting: Preparing reports and presentations.
Specific components/tools
Smartphone with high-resolution camera
UV LED module (365-395 nm wavelength)
3D-printed or pre-fabricated attachment clip
Mobile application (Android/iOS) for image processing
Image processing libraries (OpenCV, TensorFlow, etc.)
The completed project will be kept by the students to do with as they
wish.
|
| Project 1280 |
Available for 3 (1st Edu) students
|
Turkish coffee brewing machine |
|
Title: Turkish coffee brewing machine
Overview of the project
In this project, students will design a Turkish coffee brewing machine that has both
a feature to prevent foam from overflowing and a feature to detect the brewing point
of the coffee. Students are expected to carry out electronic hardware, software, and
mechanical design work within the scope of the project. The details of the project
will be shared at a meeting to be held.
What is the design in this project?
Hardware design
Software design
Mechanical design
What realistic constraints is the project outcome expected to
satisfy?
Brewing Process Accuracy: The machine must replicate the traditional Turkish
coffee
preparation method, including precise water temperature control (approximately
85-95°C), proper coffee-ground mixing, and controlled foam formation.
Heating System: The heating system should provide consistent and even heating to
prevent over-boiling while ensuring optimal foam development.
Automation Level: If the machine is fully automated, it must efficiently
control water addition, stirring, and foam separation.
Power Consumption: The machine must operate within standard household power
limits (e.g., 220-240V, 50/60Hz in Turkey).
Material Selection: All materials in contact with food or heat must be food-grade
and heat-resistant (e.g., stainless steel, BPA-free plastics).
Under which realistic circumstances is the designed product/system
supposed to operate?
Designed for standard household electrical outlets: 220V, 50Hz
(Turkiye)
Key features: Easy operation, quick brewing, minimal maintenance.
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..
|
| Project 1281 |
Available for 3 (2nd Edu) students
|
Turkish coffee brewing machine |
|
Title: Turkish coffee brewing machine
Overview of the project
In this project, students will design a Turkish coffee brewing machine that has both
a feature to prevent foam from overflowing and a feature to detect the brewing point
of the coffee. Students are expected to carry out electronic hardware, software, and
mechanical design work within the scope of the project. The details of the project
will be shared at a meeting to be held.
What is the design in this project?
Hardware design
Software design
Mechanical design
What realistic constraints is the project outcome expected to
satisfy?
Brewing Process Accuracy: The machine must replicate the traditional Turkish
coffee
preparation method, including precise water temperature control (approximately
85-95°C), proper coffee-ground mixing, and controlled foam formation.
Heating System: The heating system should provide consistent and even heating to
prevent over-boiling while ensuring optimal foam development.
Automation Level: If the machine is fully automated, it must efficiently
control water addition, stirring, and foam separation.
Power Consumption: The machine must operate within standard household power
limits (e.g., 220-240V, 50/60Hz in Turkey).
Material Selection: All materials in contact with food or heat must be food-grade
and heat-resistant (e.g., stainless steel, BPA-free plastics).
Under which realistic circumstances is the designed product/system
supposed to operate?
Designed for standard household electrical outlets: 220V, 50Hz
(Turkiye)
Key features: Easy operation, quick brewing, minimal maintenance.
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..
|
| Project 1282 |
Available for 3 (1st Edu) students
|
Speed and rotation direction control of AC Induction machine |
|
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.
|
| Project 1283 |
Available for 3 (2nd Edu) students
|
Speed and rotation direction control of AC Induction machine |
|
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.
|
| Project 1284 |
Available for 3 (1st Edu) students
|
Remote Speed Control of BLDC DC Motors for Drones |
|
Title: Remote Speed Control of BLDC DC Motors for Drones
Overview of the project
In this project, a remotely controllable driver circuit will be designed to drive
brushless DC (BLDC) motors used in drones. The remote control distance is planned to
be more than 100 meters. For this reason, user preferences will be transmitted to the
microcontroller via a control console operating with an RF signal. The
microcontroller will generate the pulse width modulation (PWM) waveform required to
drive the BLDC motor at the desired speed. The details of 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?
Real-Time Responsiveness: The control system should have low latency for
real-time
speed adjustments. Wireless communication must ensure minimal delay to avoid
instability in flight.
Weight and Size Constraints: The motor controller and remote system should be
lightweight to avoid reducing drone performance. The system should be compact enough
to fit within standard drone architectures.
Wireless Communication Reliability: The remote control system must function
without
interference from other radio signals (e.g., Wi-Fi, Bluetooth, or RF communication).
The system should have a stable signal range suitable for drone operation.
Under which realistic circumstances is the designed product/system
supposed to operate?
Outdoor and Indoor Environments:The system should work indoors for small drones
used
in research, surveillance, or entertainment.
Variable Load Conditions: The system should adapt to different payloads (cameras,
sensors, delivery packages).
Wireless Communication with Low Latency:The system should support real-time
remote
operation using RF.
High-Speed and High-Precision Operations:The system should allow for smooth speed
transitions for drone maneuverability. It must provide accurate speed and direction
control to ensure stable flight dynamics.
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.
|
| Project 1285 |
Available for 3 (2nd Edu) students
|
Remote Speed Control of BLDC DC Motors for Drones |
|
Title: Remote Speed Control of BLDC DC Motors for Drones
Overview of the project
In this project, a remotely controllable driver circuit will be designed to drive
brushless DC (BLDC) motors used in drones. The remote control distance is planned to
be more than 100 meters. For this reason, user preferences will be transmitted to the
microcontroller via a control console operating with an RF signal. The
microcontroller will generate the pulse width modulation (PWM) waveform required to
drive the BLDC motor at the desired speed. The details of 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?
Real-Time Responsiveness: The control system should have low latency for
real-time
speed adjustments. Wireless communication must ensure minimal delay to avoid
instability in flight.
Weight and Size Constraints: The motor controller and remote system should be
lightweight to avoid reducing drone performance. The system should be compact enough
to fit within standard drone architectures.
Wireless Communication Reliability: The remote control system must function
without
interference from other radio signals (e.g., Wi-Fi, Bluetooth, or RF communication).
The system should have a stable signal range suitable for drone operation.
Under which realistic circumstances is the designed product/system
supposed to operate?
Outdoor and Indoor Environments:The system should work indoors for small drones
used
in research, surveillance, or entertainment.
Variable Load Conditions: The system should adapt to different payloads (cameras,
sensors, delivery packages).
Wireless Communication with Low Latency:The system should support real-time
remote
operation using RF.
High-Speed and High-Precision Operations:The system should allow for smooth speed
transitions for drone maneuverability. It must provide accurate speed and direction
control to ensure stable flight dynamics.
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.
|
| Project 1286 |
Available for 3 (1st Edu) students
|
Implementation of PID controller on Arduino for speed control of a DC motor |
|
Title: Implementation of PID controller on Arduino for speed control of a DC motor
Overview of the project
The Proportional-Integral-Derivative (PID) controller is a widely used control loop
feedback mechanism in industrial control systems, offering robustness and accuracy in
maintaining desired system behavior. This project focuses on designing and
implementing a PID controller on an Arduino microcontroller to achieve precise speed
control of a DC motor.
In this project, the Arduino board will be programmed to serve as the controller,
utilizing the PID algorithm to adjust the motor's speed based on real-time feedback.
The setup includes an encoder to measure the motor's speed and provide feedback to
the controller. An LCD or similar one can be used to display the motor speed. By
tuning the PID parameters (proportional, integral, and derivative gains), the system
can minimize speed fluctuations and ensure stable operation.
What is the design in this project?
The design in this project is an Arduino based PID speed controller for a DC motor.
What realistic constraints is the project outcome expected to
satisfy?
The settling time of the controller should be maximum 1.0 second.
The steady-state error of the controller should be maximum 5%.
Under which realistic circumstances is the designed product/system
supposed to operate?
The control system should operate under room temperature conditions.
What are the specific criteria for the success of the project?
The settling time of the controller should be maximum 1.0 second.
The steady-state error of the controller should be maximum 5%.
The motor speed should be shown on an LCD (or a similar one) display.
Division of Tasks:
Student-1 will derive the linear model of the DC motor.
Student-2 will design the PID controller based on the derived motor model in
Matlab
Student-3 will design the hardware part of the project.
The completed project will be kept by the students to do with as they
wish.
|
| Project 1287 |
Available for 3 (2nd Edu) students
|
Implementation of PID controller on Arduino for speed control of a DC motor |
|
Title: Implementation of PID controller on Arduino for speed control of a DC motor
Overview of the project
The Proportional-Integral-Derivative (PID) controller is a widely used control loop
feedback mechanism in industrial control systems, offering robustness and accuracy in
maintaining desired system behavior. This project focuses on designing and
implementing a PID controller on an Arduino microcontroller to achieve precise speed
control of a DC motor.
In this project, the Arduino board will be programmed to serve as the controller,
utilizing the PID algorithm to adjust the motor's speed based on real-time feedback.
The setup includes an encoder to measure the motor's speed and provide feedback to
the controller. An LCD or similar one can be used to display the motor speed. By
tuning the PID parameters (proportional, integral, and derivative gains), the system
can minimize speed fluctuations and ensure stable operation.
What is the design in this project?
The design in this project is an Arduino based PID speed controller for a DC motor.
What realistic constraints is the project outcome expected to
satisfy?
The settling time of the controller should be maximum 1.0 second.
The steady-state error of the controller should be maximum 5%.
Under which realistic circumstances is the designed product/system
supposed to operate?
The control system should operate under room temperature conditions.
What are the specific criteria for the success of the project?
The settling time of the controller should be maximum 1.0 second.
The steady-state error of the controller should be maximum 5%.
The motor speed should be shown on an LCD (or a similar one) display.
Division of Tasks:
Student-1 will derive the linear model of the DC motor.
Student-2 will design the PID controller based on the derived motor model in
Matlab
Student-3 will design the hardware part of the project.
The completed project will be kept by the students to do with as they
wish.
|
| Project 1288 |
Available for 3 (1st Edu) students
|
PWM control of a universal motor |
|
Title: PWM control of a universal motor
Overview of the project
This project aims to implement Pulse Width Modulation (PWM) control to regulate the
speed of a universal motor. Universal motors are versatile and can operate on either
AC or DC power, making them ideal for various applications, including household
appliances and power tools. However, precise speed control is essential for optimal
performance and efficiency.
In this project, an Arduino microcontroller will be used to generate PWM signals to
control the universal motor's speed. The PWM technique involves varying the duty
cycle of the signal to adjust the average voltage supplied to the motor, effectively
controlling its speed. By fine-tuning the PWM parameters, the project will
demonstrate the ability to achieve smooth and responsive speed control.
The setup will include a feedback mechanism, such as an optical encoder or a
tachometer, to monitor the motor's speed and adjust the PWM signal accordingly. This
closed-loop control system will ensure accurate and stable operation.
What is the design in this project?
The design in this project is an Arduino based PWM control scheme for a universal
motor.
What realistic constraints is the project outcome expected to
satisfy?
The settling time of the controller should be maximum 1.0 second.
The steady-state error of the controller should be maximum 5%.
Under which realistic circumstances is the designed product/system
supposed to operate?
The control system should operate under room temperature conditions.
What are the specific criteria for the success of the project?
The settling time of the controller should be maximum 1.0 second.
The steady-state error of the controller should be maximum 5%.
The motor speed should be shown on an LCD (or a similar one) display.
Division of Tasks:
Student-1 will derive the linear model of the universal motor.
Student-2 will design the PWM controller scheme based on the derived motor model
in Matlab
Student-3 will design the hardware part of the project.
The completed project will be kept by the students to do with as they
wish.
|
| Project 1289 |
Available for 3 (2nd Edu) students
|
PWM control of a universal motor |
|
Title: PWM control of a universal motor
Overview of the project
This project aims to implement Pulse Width Modulation (PWM) control to regulate the
speed of a universal motor. Universal motors are versatile and can operate on either
AC or DC power, making them ideal for various applications, including household
appliances and power tools. However, precise speed control is essential for optimal
performance and efficiency.
In this project, an Arduino microcontroller will be used to generate PWM signals to
control the universal motor's speed. The PWM technique involves varying the duty
cycle of the signal to adjust the average voltage supplied to the motor, effectively
controlling its speed. By fine-tuning the PWM parameters, the project will
demonstrate the ability to achieve smooth and responsive speed control.
The setup will include a feedback mechanism, such as an optical encoder or a
tachometer, to monitor the motor's speed and adjust the PWM signal accordingly. This
closed-loop control system will ensure accurate and stable operation.
What is the design in this project?
The design in this project is an Arduino based PWM control scheme for a universal
motor.
What realistic constraints is the project outcome expected to
satisfy?
The settling time of the controller should be maximum 1.0 second.
The steady-state error of the controller should be maximum 5%.
Under which realistic circumstances is the designed product/system
supposed to operate?
The control system should operate under room temperature conditions.
What are the specific criteria for the success of the project?
The settling time of the controller should be maximum 1.0 second.
The steady-state error of the controller should be maximum 5%.
The motor speed should be shown on an LCD (or a similar one) display.
Division of Tasks:
Student-1 will derive the linear model of the universal motor.
Student-2 will design the PWM controller scheme based on the derived motor model
in Matlab
Student-3 will design the hardware part of the project.
The completed project will be kept by the students to do with as they
wish.
|
| Project 1290 |
Available for 3 (1st Edu) students
|
Fingerprint-Recognition Based Smart Locking System |
|
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.
|
| Project 1291 |
Available for 3 (2nd Edu) students
|
Fingerprint-Recognition Based Smart Locking System |
|
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.
|
| Project 1292 |
Available for 3 (1st Edu) students
|
IoT-Based Smart Warehouse Management System |
|
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.
|
| Project 1293 |
Available for 3 (2nd Edu) students
|
IoT-Based Smart Warehouse Management System |
|
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.
|
| Project 1294 |
Available for 3 or 4 (2nd Edu) students
|
Design an realization of the parallel plate system |
|
Title: Design an realization of the parallel plate system
Overview of the project
In this Project the system will be designed to keep the plate paralel to ground to hold the free moving
sphere on it. The plate located on to the controllable system will move in required direction to keep
the Rolling sphere at the center.
What is the design in this project?
Control mechanism both software and hardware will be originally designed according to the chosen
method. To follow the motion of the sphere and to transfer that information to mechanic structure are
main parts of the system.
What realistic constraints is the project outcome expected to
satisfy?
The dimension of the plate will be 30x30 cm. The plate may be centers or may be holded on some edges
or corners. 2 dimensional motion of the plate must be satisfied by servo motors.
Under which realistic circumstances is the designed product/system
supposed to operate?
The free moving sphere must be kept on plate at least 10 sec.
What are the specific criteria for the success of the project?
Both software and hardware must be realized.
Division of Tasks:
All students will be responsible from all part of the system. Students may focus their power on some
part of the Project.
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.
|
