capstone project electrical engineering

Most just want to finish and graduate, but I was unlucky enough to have a team member that insisted on doing something "novel" and that required a lot of research and/or developing new skills. Bad idea, let me tell you why.

I had one of those fuckers on my design team. Like every goddamn thing he pitched would have been a Master's thesis project in any engineering discipline except for Electrical/Computer Engineering. I wasn't having any of that shit, we sat there "brainstorming" until we agreed on an idea that no one liked, but was actually in the scope of the class.

My topic was: "Directional Control for Solar Panels" .

To optimize the efficiency of solar panels, they should always be pointed directly at the sun. Direct exposure to sunlight allows the panels to absorb the maximum amount of heat energy. The final project included the development of a controller that rotates the solar panel on a dual-axis. This design keeps the solar panel pointed at the sun and thereby maximizes the power generated.

This project also included taking into account hazardous conditions such as strong winds, heavy snowfall, and other inclement weather conditions.

True, I had to ask EduOwl.pro for help in preparing the report, but I do not regret it!

I built an optical communication system, blinking LED's to send data across the room. An earlier capstone did this with text, we attempted to send audio. We managed to do it but not at the desired range.

The biggest obstacle was one of my teammates. We split it into a Matlab signal processing section, a microcontroller section, and analog front-end section. One person responsible for each section. The analog person was a disaster. They lied about their progress, and even lied about which classes they had taken. Turns out we never had an analog person. Worst part was they were someone I was friends with and vouched for to be on the team. They were super nice but boy did they leave us in a bad position. Eventually my other teammate and I had to scramble to poorly handle their section. Group projects, am I right?

Beyond standard school group project bullshit, I'd advise you to go back and review concepts from your earlier classes when you hit a wall. Don't just bang at it with brute force when you get stuck. Take a breath, ask yourself "What type of problem is this? What am I not understanding?" and go back to your textbooks.

A huge problem I personally ran into was pride, which is strange considering my complete lack of self confidence. Group projects, am I right?

I thought any failure was because I wasn't trying hard enough. I couldn't admit that I forgot one of the ten thousand lessons I learned in 4 years of alcoholism. It's okay to say "Wow I forgot everything from my microelectronics class" and take a few days to review material. You're not supposed to be an expert. The whole point of the capstone project is to reinforce your learning and prove you can put the theory into practice.

Oh man dors that ever sound like a fun project idea though.

We did a RFID system and I researched and prototyped over the summer prior to the school year.

Start prototyping on a breadboard/solderboard as early as possible.

Your first PCB that you design and order WILL NOT work. I found that adding testing points at various nodes was helpful for troubleshooting.

Order backup PCBs and SMD components as you don't want to be set back because you fried too many components.

Don't stress too much about it and know that you are in the same boat as your peers.

Your first PCB that you design and order WILL NOT work.

This is universal, not limited to undergrads.

OSHPark has some great results in my experience. It's not worth trying to etch your own anymore.

This! I actually elected to develop equipment and processed to make my own two sized PCBs using presensitized copper clad boards. Wound up having a couple teams have me remake their boards because the ET lab could not keep up with demand. Maybe this is not a problem for your lab.

That being said, you don’t wanna have to waste time when it counts and there are things you can do to design your board for modifications.

-Use large package sizes for SMD components to make hand soldering easier -add empty spots for optional pull ups/pull downs/0ohm jumpers/series resistors -add test points everywhere! Physical soldered in hoop test points for signals you will be probing a lot like voltage rails. 100x100 headers for comms likes to attach logic analyzers. And 2mm pads on all other signals. -like test points, drop solder holes everywhere. Never know when you might need to jumper nets together with wires or inject DV voltage because your hand designed switching regular circuit didn’t work -bypass caps -often times ET labs can only do two sided PCBs which means polygon pours for GND and PWR. Do a good job of making sure the design is such that current loops are minimized. Use 0ohm resistors to jump over traces to get a more continuous gnd return path. -overside your power FETs, pay close considersations to gate drive and gate characteristics for any fast switching, be cautious of paralleled fet gates on high energy circuits -layout your board big and wide and space things out reasonably -use Saturn PCB toolkit for IPC based calculators -buy extra parts -learn some soldering tips

Ours did :-)

We had to build a rail gun...excuse me, “electromagnetic launcher”. We had limited funds and I think our biggest failure was shying away from things we perceived as difficult to fabricate. We had resources, if we had pursued them. That said, we built a prototype that functioned. Ablation was really problematic, as you might imagine.

Beware scope creep. Lock your scope in early and make sure it achievable

My team mate and I built an autonomous robot that raced towards a beacon, while running into cold cans, avoiding hot cans, and avoiding cinderblocks. We were greatly helped by getting a sensor package from a company in Belgium (Melexis) who organized this annual competition to showcase their sensors. They sent us a free pack of electronics.

I've had good luck getting samples from all kinds of vendors; Honeywell once sent me two $500 Hall-effect linear potentiometers. That was pretty sweet.

Spend more time in the lab than you think you have to. Get started early and if you have a breakthrough, perfect, you can take more time for other courses later.

For the presentations, and I can not stress this enough, get a tablecloth for the table and a bowl of wrapped candy. $5 at a dollar store could get you a cash prize. (We won second place in my year.)

I was EET and did mine solo but I designed and built a phase shifter guitar pedal with analog and digital components. take a listen here if you are interested

https://youtu.be/LCjus4VtTcE

My major design project was building an AM radio to out up WCCO in basement of the ER building. That was somewhat difficult and we had to use the building's pipe system as a make shift antenna for the circuit to work.

My senior design project was a DC current clamp meter. I design the instrumentation amplifier and etched my own PWB for the project. Everything was surface mount. Used hall effect sensors and ferrite core to sense the magnetic field. Worked pretty well.

My volunteer design project was the solar car project that raced from Boulder, CO to the Indy 500 race track. That was the best project for learning.

Can you give me your project design & report?

did a capstone that encompased using a microphone array to determine a sounds direction, a bunch of dsp to verify the sound was what we were looking for, a servo controlled speaker horn, and a ultrasonic parametric speaker for directional audio. basically a mini autonomous LRAD sound canon that ran off lipo and a solar panel.

some of the problem is at a certain point you have to stop brainstorming, commit to an idea, and just pull the bandaid and get to it. The sooner you do this, the sooner you'll figure out what you actually need and are actually capable of accomplishing.

Don't be afraid to go big though, and always go to your mentors/professors and ask their opinion.

It's hard to stay under budget. You're probably going to spend a ton out of pocket. But you can also reach out to local vendors and see if they're willing to sponsor you, donate product. It also doubles as part of your business research and goes into your report.

DO AS MUCH AS YOU CAN UP FRONT AS POSSIBLE! Spend nights and weekends on campus, in the lab, with your team. SHOW UP. I say this from personal experience. 3/4ths of the way through my capstone my gallbladder exploded and took me out for 2 weeks(almost killed me.) Fortunately, my team was more than willing to put in the effort without me there because I had front loaded so much work, helped all of them on their portions, and my shit was almost done and well documented. good will goes a long way.

Hardest parts are always team dynamics, getting people to deliver on time what they said they could do, and people trying to ride the coat tails of others. Had one guy on my team senior year of EE degree who literally didn't know how to power an led, why you would want to use a current limiting resistor, or to use ohms law to find the value. ass hat was getting a minor in business and was only doing EE because of the promised paycheck. I threatened to stab him. I still want to stab him. Other assclown was in the middle of a divorce(surprising no one as he kept trying to bang younger college girls), and basically useless.

A good capstone project should be easy to explain in a resume and job interview. Since that is when you will benefit from the effort. After your first job no one will ever ask again. If it's too esoteric your effort is wasted.

The best ones are marketable ideas, things people could picture buying or someone else using.

Avoid anything that handles fluids or is under pressure. It will leak at the wrong time.

If allowed use commodities parts, breadboards, Arduino or RaspPi. A custom PCB is extra work.

My team of 5 built a water quality data logger. It needed to float in the water body it’s testing, be waterproof and capable of running on its own power for at least a year. It takes a sample every 30 min and stores it to an SD card. Our budget was initially $100, but we quickly bartered for $500 unit cost. We used an off the shelf waterproof enclosure that we modified to house our electronics (including solar panel). Our microcontroller would essentially sleep for most of the time, then “wake” to take a reading and save it along with a time stamp. This included some error handling and an accelerometer to determine if it’s upside down.

I was in charge of project management and the power system to an extent. For a 5 EE team we were having trouble finding enough EE content for everyone to justify during the project, and we were forced to learn about some ME stuff since it wasn’t a pure electronics project.

We got really lucky in that our group was motivated to get this done for the most part. It’s definitely a marathon with every week needing a report and big document deadlines looming ahead. Completing the coursework is supposed to give you an idea for how development cycles work.

Also big note, we had to test the device in water for a whole 30 days. We were fortunate to be able to start testing right as we were all sent home for COVID. We were able to deploy in a university owned natural spring, and check up on it multiple times despite not being able to go to campus. Luckily, our enclosure held tight and our device took data for the most part. One of our sensors started failing and we had to talk about it in our final presentation. It sucked for a lot of groups that weren’t able to do anything after COVID shutdowns started.

Was the waterproof enclosure a Ziploc container? Because I know some guys who needed a waterproof container for a data logger for a PV system and they just got those glass clamp-lid ziplock containers. Wasn't pretty but it worked!

A lot of good advice here, but I'll add something that would have helped our group immensely!

Most capstone projects have sponsors (either commercial or university researchers) who may have a bad case of the scope-creeps and/or change-of-heartitis. After EVERY meeting with your sponsor, write an email with what was discussed and any details of the project (requirements, ordering parts, campus resources, etc) and cc the TA your group was assigned (if you have one that is). This has the initial benefit of clarifying any confusion swiftly, but more importantly you have everything in writing. Then when you're giving a presentation and your sponsor is like "the prototype is way too big!" or "I did not give permission to order those parts, so I won't pay for them!", you can go back and point out that you all agreed to those decisions. By cc'ing your TA, they can advocate for you in those situations and aren't blindsided by the misunderstanding.

If you have a two semester capstone course (1st semester usually documentation, planning, designing, etc and 2nd semester usually fabricating, testing, etc), make sure you and your group just blast through as much of the 1st semester stuff and be ready to start ordering parts come November/December. Have a long weekend? Your team better be working on that project EVERY. DAMN. DAY. of that long weekend. The more you can get done in the first semester, the more time you can spend testing and building, making your last semester at school a lot less stressful.

Lastly, PCBs never work the first time you get them and they take a lot of time to troubleshoot and order new batches. On PCBs, like others have mentioned, place test points and use zero resistors so you can easily access pins or reroute PCB traces.

Find your team before the semester. Don't work with your dumb friend just because they are your friend, they are still dumb. You also don't want to get stuck with a wildcard that turns out to just be a pain in your ass and totally useless.

Have backup plans. Have backups for your backups. Some examples from my own project:

We were using new (to us) BLE chips to do wireless communication between a Zedboard and our mobile PCB. In case we couldn't figure the new chip out, we integrated the standard XBee module footprint with our BLE footprint so we could pivot to a well understood part.

A core feature of our project was determining a mobile board's location via RFID. In the assorted PCB's, I included part placements for a backup plan that used ATTiny85's to flash IR LED's in a UART-esqe manner to indicate position. We ended up using this because the guy in charge of the RFID was a pain in the ass and totally useless. It would have been an incredible amount of work to un-fuck the project if this plan had not been baked in during the initial schematic capture and PCB layout.

Breakout unused pins to DNP pull-up and pull-down resistors. Especially pins on a microcontroller. The extra hour total of schematic and layout could save you literal days of mod'ing a board you've made mistakes on.

If some aspect of your design is complete and working, great! Make/plan a demo for it in case your team fails final integration. Make the demo materials soon after completing the feature since you certainly won't have time to do it when you are in the middle of failing to integrate your project two days before your deadline. This could be the difference between your final presentation being US Airways Flight 1549 or being the Hindenburg.

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ECE Capstone Projects

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About the ECE Capstone Course

The Carnegie Mellon University Department of Electrical and Computer Engineering offers an ECE Design Experience course (18-500) every semester. As part of this class, students work in teams to develop interdisciplinary capstone projects over the course of a semester. The students start from a blank slate, developing a problem statement, and iterating through the design process, to build a working project under several real-world constraints.

This site provides links to both completed and ongoing projects, where students can document their entire design process. We will periodically feature some of the most successful and/or interesting projects.

Spring 2023 Capstone Projects

Fall 2022 Capstone Projects

Spring 2022 Capstone Projects

Fall 2021 Capstone Projects

Spring 2021 Capstone Projects

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Everything begins with an idea!

Electrical Engineering Capstone Project Ideas

Electrical engineering is a branch of engineering concerned with the study and design of devices, systems and equipment which use electricity, electromagnetism, and electronics. Before students of electrical engineering can graduate from college, they will be required to do an electrical engineering capstone project. Although there are many projects ideas that students can use, they really need to be careful while choosing a specific one to use. A captivating project idea will assist students in impressing their professors and hence obtain high grades. We know that many students don’t have enough time to brainstorm for impressive projects Ideas, and we’ve decided to help them get impressive ideas easily. We have listed the best and the most impressive electrical engineering capstone project ideas below. Students will find it easy to work with all the ideas below since they are very interesting. We strongly believe that the ideas below will allow students to execute their projects without going through stress. By using the ideas below for electrical engineering capstone project, students will make the most out of their education.

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University of Missouri

Mizzou Engineering

Eecs spring 2022 capstone projects.

July 25, 2022

A semester-long capstone project concludes coursework for seniors in the Department of Electrical Engineering and Computer Science. During these projects, students work together in teams to study real world challenges and offer recommendations to those problems. The experience gives students the hands-on preparation they need to be successful after graduation.

Below are the EECS capstone projects from the Spring 2022 semester.

Project: Team Front Row – Project Vulcan Team Members: John McGinness, Jack Akers, Huzaifa Khan, Zachary Sample, James Tompkins, Stuart Aldrich Objective: Create system that allows users to program custom robots to be controlled in virtual reality.

Project: Manual Imaging Chamber Team Members: Gavin Stoddard, Landon Swartz, Kalescia Thomas Objective: Create a self-enclosed system that provides different viewpoints while giving the user access to consistent high-quality photos

Project: Wet/Dry Vacuum with User Configurable Series/Parallel Motors Team Members: Joy Adeyemo, Rushil Thakker, Hunter Hickerson, Ryan Shopher Objective: Develop a compact, cost-effective wet/dry vacuum with user-configurable series/parallel motors

Project: Portable Wildfire Detector Team Members: Kyle Denney, Riley Jackson, Andrea Varner, Dominic Youn Objective: Create a portable system for detecting and reporting the location of a suspected wildfire

Project: Solar Panel Tracking System Team Members: Matthew Kellermann, Ming Deng, Christian Kerbler Objective: Solar panel tracking system for optimizing productivity and efficiency of solar panels

Project: Substation Design for Power Transmission and Distribution Team Members: Nicholas Boggs, Hayden Mills, Brendan Young Objective: Design a substation for power transmission and distribution

Project: 3-Axis Gimbal Mounted Camera Team Members: Aaron Fuller, Charles Seibel, Alan Wendell, Sebastian Zheng Objective: Design a three-axis gimbal-mounted camera that automatically tracks boat-towed watersport participants

Project: Solving Direct Cooling Issue with Automated Fan Team Members: Cody Leonard, Lolo Ofokansi, Yusaf Harb, Kaleb Ross Objective: Create an automated fan that maintains continuous airflow on the user

Project: Self-Operating Sunlight Windshield Reflector Team Members: Maya Alberhasky, Miles Buttress, Kirk Embrey, Joe Tierney Objective: Develop a self-operating sunlight windshield reflector

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Electrical Engineering Capstone Project Ideas

Integrating solar panels into a home's electrical systems, or hybrid vehicles make excellent capstone projects for electrical engineers.

PLC Project Ideas

A capstone project for an electrical engineering student involves extensive research. The project is designed for the student to demonstrate a thorough knowledge of the course work. Projects such as designing an electrical generator, an electric motorcycle, a red light detector or a controller to rotate a solar panel are some of the capstone project ideas for electrical engineering students. These capstone projects help the student to demonstrate his competence in his field, while at the same time giving him a platform to interpret and apply classroom information to real life engineering solutions.

Portable Emergency Generator

Try a capstone project that is relevant to a community service. Designing a portable electrical generator that can be powered by a standard bicycle is a capstone project idea that can be tried by students who have interest in community service. A generator which creates electricity using the drive train of a bicycle can be used in areas where unplanned electricity power outages are likely. This kind of device has commercial applications, and requires the students to overcome a number of practical engineering obstacles.

Electric Hybrid Motorcycle

Another ecologically friendly capstone project is to design a motorcycle that operates on an electric motor rather than an internal combustion engine. This project has immediate applications in the community, and requires the student to answer many electrical engineering criteria. An electric motor controller can also be designed to regulate the power used by the motor, and the electric cycle could even be adapted with solar cells to recharge the cycle when not in use, or while driving down the road. The systems required to design this electric motor hybrid motorcycle helps the students to understand her field clearly.

Red Traffic Light Detector

A red traffic light detector is another capstone project idea for electrical engineering students. The red light detector system has direct application to the automotive industry. The warning system is designed to warn drivers of an impending red light when they are driving. This project can help save the lives of pedestrians, and protect drivers from accidents caused by inattentiveness to traffic light changes. The detector system would alert the driver when he approached a red light at an unsafe speed, or approaches a light that will turn red as the driver approaches.

Directional Control for Solar Panels

In order for solar panel efficiency to be optimized they should always be directly pointed at the sun. Direct exposure to the sun's rays allow the panels to absorb the maximum amount of heat energy. A capstone project could involve designing a controller that rotates the solar panel on dual axis. This project keeps the solar panel pointed at the sun and thereby maximizes the power generated. This project would involve taking into consideration hazardous conditions such as high winds, heavy snowfall and other inclement weather.

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University of California, Santa Barbara: Senior Capstone Projects

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Top 100 Capstone Project Ideas For Engineering Students In 2022

Hello guys, welcome back to my blog. In this article, I will share the top 10 capstone project ideas for engineering students in 2021, what is a capstone project, topics for a capstone project, etc.

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Capstone Project Ideas

What is a Capstone Project?

A capstone project is done for one year by students, they will work on a project for two-semester. In the capstone project, students will study the research papers in deep and design their project by using some tools.

Capstone Project Ideas Are

01. Testing Method and Application for Impulse- Dispersed Current Around Earthing Devices in Power Transmission Networks

02. Fuzzy Approach to Student-Project Allocation (SPA) Problem .

03. Maritime DC Power System With Generation Topology Consisting of Combination of Permanent Magnet Generator and Diode Rectifier .

04. An Urban Charging Infrastructure for Electric Road Freight Operations: A Case Study for Cambridge UK .

05. Low-Voltage Unipolar Inverter Based on Top-Gate Electric-Double-Layer Thin-Film Transistors Gated by Silica Proton Conductor .

06. Safety Distance Analysis of 500kV Transmission Line Tower UAV Patrol Inspection .

07. Analysis of Electrical Impedance Myography Electrodes Configuration for Local Muscle Fatigue Evaluation Based on Finite Element Method .

08. A Comprehensive Review of Wireless Charging Technologies for Electric Vehicles .

09. Electric Vehicle Battery Cycle Aging Evaluation in Real-World Daily Driving and Vehicle-to-Grid Services .

10. Coordinated Scheduling for Improving Uncertain Wind Power Adsorption in Electric Vehicles—Wind Integrated Power Systems by Multiobjective Optimization Approach .

11. Sub-THz Circularly Polarized Horn Antenna Using Wire Electrical Discharge Machining for 6G Wireless Communications .

12. Space Vector Modulation for Distributed Inverter-Fed Induction Motor Drive for Electric Vehicle Application .

13. Bidirectional Three-Level Cascaded Converter With Deadbeat Control for HESS in Solar-Assisted Electric Vehicles .

14. Harmonics and Interharmonics Analysis of Electrical Arc Furnaces Based on Spectral Model Optimization With High-Resolution Windowing .

15. Ageing: Causes and Effects on the Reliability of Polypropylene Film Used for HVDC Capacitor .

16. The Probabilistic Evaluation of Net Present Value of Electric Power Distribution Systems Based on the Kaldor–Hicks Compensation Principle .

17. Decentralized Charging of Plug-In Electric Vehicles and Impact on Transmission System Dynamics .

18. HPC-Based Probabilistic Analysis of LV Networks With EVs: Impacts and Control .

19. Development of a Portable Electrochemical Impedance Spectroscopy System for Bio-Detection .

20. Risk Assessment on Offshore Photovoltaic Power Generation Projects in China Using D Numbers and ANP .

21. Analysis of Dynamic Processes in Single-Cell Electroporation and Their Effects on Parameter Selection Based on the Finite-Element Model .

22. A New Coil Structure and Its Optimization Design With Constant Output Voltage and Constant Output Current for Electric Vehicle Dynamic Wireless Charging .

23. A Graphical Game Approach to Electrical Vehicle Charging Scheduling: Correlated Equilibrium and Latency Minimization .

24. Sensitivity Guided Image Fusion for Electrical Capacitance Tomography .

25. Design and Building of an Automatic Alternator Synchronizer Based on Open-Hardware Arduino Platform .

26. A Phaseless Microwave Imaging Approach Based on a Lebesgue-Space Inversion Algorithm .

27. Direct Phase-Change Cooling of Vapor Chamber Integrated With IGBT Power Electronic Module for Automotive Application .

28. Vulnerability Assessment of Equipment Excited by Disturbances Based on Support Vector Machine and Gaussian Process Regression .

29. A New Finite-Element Method to Deal With Motion Problem of Electromagnetic Rail Launcher .

30. A Novel Ultralow RON,sp Triple RESURF LDMOS With Sandwich n-p-n Layer .

31. Design and Verification Test of an HTS Leakage Flux-Controlled Reactor .

32. An Ordered Curtailment Strategy for Offshore Wind Power Under Extreme Weather Conditions Considering the Resilience of the Grid .

33. Current Reconstruction of Bundle Conductors Based on Tunneling Magnetoresistive Sensors .

34. WSN-Based Measurement of Ion-Current Density Under High-Voltage Direct Current Transmission Lines .

35. Influence of Rotor-Pole Number on Electromagnetic Performance of Novel Double-Rotor Hybrid Excited Axial Switched-Flux Permanent-Magnet Machines for EV/HEV Applications .

36. Electromagnetic Vibration and Noise of the Permanent-Magnet Synchronous Motors for Electric Vehicles: An Overview .

37. Incentive-Compatible Market Clearing for a Two-Stage Integrated Electricity-Gas-Heat Market .

38. Teaching Power Electronics With a Design-Oriented, Project-Based Learning Method at the Technical University of Denmark .

39. A Circuits and Systems Perspective of Organic/Printed Electronics: Review, Challenges, and Contemporary and Emerging Design Approaches .

40. MgO Based Magnetic Tunnel Junctions With Co20Fe60B20 Sensing Layer for Magnetic Field Sensors .

41. Reduction of Offset Field in Top-Pinned MTJ With Synthetic Antiferromagnetic Free Layer .

42. Cost-Effective Printed Electrodes Based on Emerging Materials Applied to Biosignal Acquisition .

43. A Review and Analysis of Automatic Optical Inspection and Quality Monitoring Methods in Electronics Industry .

44. Improved English Immersion Teaching Methods for the Course of Power Electronics for Energy Storage System in China .

45. New Improved Model and Accurate Analytical Response of SiPMs Coupled to Read-Out Electronics .

46. Graphene Field-Effect Transistors for Radio-Frequency Flexible Electronics .

47. Statistical Write Stability Characterization in SRAM Cells at Low Supply Voltage .

48. Teaching Electronics to Aeronautical Engineering Students by Developing Projects .

49. Improved ON-State Reliability of Atom Switch Using Alloy Electrodes .

50. Hybrid Thermal Modeling to Predict LED Thermal Behavior in Hybrid Electronics .

51. Fabrication of Phase-Shifted Fiber Bragg Grating by Femtosecond Laser Shield Method .

52. Humidity Sensor Based on Fabry–Perot Interferometer and Intracavity Sensing of Fiber Laser .

53. Switching Performance Analysis of Vertical GaN FinFETs: Impact of Interfin Designs .

54. Analysis of Thickness Variation in Biological Tissues Using Microwave Sensors for Health Monitoring Applications .

55. Ultrasound Measurement Using On-Chip Optical Micro-Resonators and Digital Optical Frequency Comb .

56. EMFi-Based Ultrasonic Sensory Array for 3D Localization of Reflectors Using Positioning Algorithms .

57. Single-Mode Quantum Cascade Laser Array Emitting From a Single Facet .

58. Superior Implementation of Accelerated QR Decomposition for Ultrasound Imaging .

59. Resonant-Type Piezoelectric Screw Motor for One Degree of Freedom Positioning Platform Application .

60. Simultaneous Wireless Information and Power Transfer in Cellular Two-Way Relay Networks With Massive MIMO .

61. Dual-Band Bandpass Filter With Wide Stopband Using One Stepped-Impedance Ring Resonator With Shorted Stubs .

62. A Novel Wide-Angle Scanning Phased Array Based on Dual-Mode Pattern-Reconfigurable Elements .

63. Full-Duplex SWIPT Relaying Based on Spatial-Modulation .

64. An Academic Approach to FPGA Design Based on a Distance Meter Circuit .

65. Direct SMT Interconnections of Large Low-CTE Interposers to Printed Wiring Board Using Copper Microwire Arrays .

66. Integrated Reconfigurable Silicon Photonics Switch Matrix in IRIS Project: Technological Achievements and Experimental Results .

67. Lifelogging Data Validation Model for Internet of Things Enabled Personalized Healthcare .

68. Adaptive Zeroing-Gradient Controller for Ship Course Tracking With Near Singularity Considered and Zero Theoretical Tracking Error .

69. Radio Interface Evolution Towards 5G and Enhanced Local Area Communications .

70. Reliability Assessment Model of IMA Partition Software Using Stochastic Petri Nets .

71. Medium-Voltage Power Converter Interface for Multigenerator Marine Energy Conversion Systems .

72. A Hybrid Prognostics Technique for Rolling Element Bearings Using Adaptive Predictive Models .

73. A Hybrid Method of Remaining Useful Life Prediction for Aircraft Auxiliary Power Unit .

74. Insensitivity to Humidity in Fabry–Perot Sensor With Multilayer Graphene Diaphragm .

75. Design and Testing of a Kinetic Energy Harvester Embedded Into an Oceanic Drifter .

76. 3-D Dual-Gate Photosensitive Thin-Film Transistor Architectures Based on Amorphous Silicon .

77. Automatic Structure Generation and Parameter Optimization for CMOS Voltage Reference Circuit .

78. CNN-Based Intra-Prediction for Lossless HEVC .

79. Resource Allocation for D2D Links in the FFR and SFR Aided Cellular Downlink .

80. A Hybrid EF/DF Protocol With Rateless Coded Network Code for Two-Way Relay Channels .

81. An Efficient Task Assignment Framework to Accelerate DPU-Based Convolutional Neural Network Inference on FPGAs .

82. Phase Calibration of On-Chip Optical Phased Arrays via Interference Technique .

83. A Multi-Carrier-Frequency Random-Transmission Chirp Sequence for TDM MIMO Automotive Radar .

84. High-Stability Algorithm in White-Light Phase-Shifting Interferometry for Disturbance Suppression .

85. Polarimetric Calibration Scheme Combining Internal and External Calibrations, and Experiment for Gaofen-3 .

86. Wireless Wearable Magnetometer-Based Sensor for Sleep Quality Monitoring .

87. Power-Gated 9T SRAM Cell for Low-Energy Operation .

88. An Improved Matrix Generation Framework for Thermal Aware Placement in VLSI .

89. Trip-Point Bit-Line Precharge Sensing Scheme for Single-Ended SRAM .

90. Intelligent Reflecting Surfaces to Achieve the Full-Duplex Wireless Communication .

91. Toward Energy-Awareness Smart Building: Discover the Fingerprint of Your Electrical Appliances .

92. Analysis of the starting transient of a synchronous reluctance motor for direct-on-line applications .

93. Motor Design and Characteristics Comparison of Outer-Rotor-Type BLDC Motor and BLAC Motor Based on Numerical Analysis .

94. IEEE Draft Guide for Motor Operated Valve (MOV) Motor Application, Protection, Control, and Testing in Nuclear Power Generating Stations .

95. A Novel Track Structure of Double-Sided Linear PM Synchronous Motor for Low Cost and High Force Density Applications .

96. A Novel Dual Three-Phase Permanent Magnet Synchronous Motor With Asymmetric Stator Winding .

97. A new two-motor drive to control a two-phase induction motor and a DC motor .

98. Development of a 7.5kW High Speed Interior Permanent Magnet Synchronous Spindle Motor for CNC Milling Machine .

99. Optimal Design of the 2nd Generation TMED Traction Motor .

100. Power factor correction and power quality improvement in BLDC motor drive using SEPIC converter

These are the different capstone project ideas from IEEE website. I hope this article “capstone project” may help you all a lot. Thank you for reading.

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Capstone Senior Projects

Student explains his senior design project at Expo

Upload a Project

Our goal is to seamlessly facilitate the student’s transition from Oregon State University to the engineering profession. All undergraduates in the School of Electrical Engineering and Computer Science complete a three-term course sequence (October-May) to expose students to the challenges of engineering design and project management. This career preparation experience includes open-ended design, project management, quality project artifacts (schematics, code, etc.) and documentation, and production of a final prototype in small team environments.

These projects culminate in the high-energy Engineering Expo in May where students present their Capstone Senior Project posters and demonstrate their prototypes. The annual event routinely attracts thousands of people, including industry representatives.

What about online students?

In addition to the bachelor's degree programs mentioned above, Oregon State University also offers a postbaccalaureate degree in computer science. This program's capstone project lasts for one-term instead of three.

Online students are also now able to enroll for the first time in the bachelor's degree program, including a three-term capstone sequence.

We need you!

Common questions, how big of a project can be done (project scope).

Project scope is typically what you would assign one summer intern. Projects must be non-critical path. Ideally, projects represent a complete system or product that integrates analysis, simulation, and design as appropriate. Keep in mind, this is the first exposure many of the students will have had to this type of project environment. If you are unsure if your project idea is a good fit, we encourage you to contact us and schedule a call. If you prefer, just upload the project .

Can my project include students from more than one major (electrical, computer science, etc.)?

This can be done, but requires extra planning. Multidisciplinary projects provide great experiences for students. Upload your project idea as soon as possible.

Tell me more about the project selection process. What can I do to help ensure my project is picked by students?

When uploading project ideas , keep in mind the students "bid" on the projects (with the faculty keeping teams appropriately balanced). So do not underestimate the "coolness" of your project proposal. Your enthusiasm can be infectious!

Students can see your projects ahead of time and "apply" to your project. You can review these applications (at your discretion) and indicate your preferences to the course instructors.

When do I need to submit my project by?

Upload project ideas by Sept. 1 .

What does a sponsorship entail?

For those organizations who are able, consider a sponsored Capstone Senior Project. Companies with more than 500 employees are asked to consider a $2K sponsorship contribution. For businesses with less than 500 employees, consider a $500 contribution.

Organizations who sponsor two Capstone Senior Projects will want to consider INSPiRE Industrial Affiliates membership. INSPiRE membership includes two or more sponsored Capstone Senior Projects.

Each capstone project has at least one mentor. These mentors come from a wide array of backgrounds — including non-technical fields. Our program has had mentors from industry, national labs, non-profit and community organizations — anyone can be a mentor. The only requirement is that you care about your project, and your student team, and are willing to meet with the students for at least one hour per week.

Share your project ideas with our class.

Capstone Sponsors

Videos of past projects

Pedestrian tracking, aircraft tracking arm, robot comedy, navigation assistance for the vision impaired, engineering expo 2017, eclipse megamovie, iot mailbox.

Top 100 Electrical Engineering Capstone Project Ideas

Apr 9, 2022

Apr 9, 2022 | Topics

Electrical engineering is an area of engineering concerned with the research and design of electrical, electromagnetic, and electronics-based devices, systems, and equipment. Electrical engineering students must complete an electrical engineering capstone project before graduating from college. Although there are several project options available to students, they must exercise caution when selecting one. Students will amaze their lecturers and receive excellent grades if they come up with an exciting project proposal. We understand that many students don’t have enough time to think for fantastic project ideas; therefore, we’ve chosen to make it easier for them to come up with them. We’ve compiled a selection of the most outstanding electrical engineering capstone project ideas for you to consider. All of the pictures below are pretty intriguing, so students will have no trouble working with them. We are confident that the suggestions below will help students complete their projects without feeling stressed. You can get the most out of their study if they use the capstone project ideas below for electrical engineering. 1. Automatic Anchor Light 2. Electric hybrid motorcycle 3. 1kW sine wave inverter 4. Automotive computing enterprise 5. Blue marble security 6. Four frequency generator 7. Ted traffic light detector 8. Automated USB controlled power switch 9. DC Panel Meter using Arduino 10. Directional control for solar panels 11. Solar Panel Charge Controller 12. High Power LED Stroboscope 13. Linear Timer For General Use 14. Power-Saving Relay Driver 15. Wireless communication enterprise 16. Plus-Minus 12V Supply From 9V Battery 17. Configurable RS232 18. High-Impedance Audio Buffer 19. TTL to I2C Adapter 20. PIN Diode Based Fire Sensor 21. Wireless Power Transfer 22. Portable emergency generator 23. Dual Axis Solar Tracker System 24. Single-stage amplifier using C++ 25. Infrared Motion-Sensing Relay Switch 26. Low-cost LPG Leakage Detector 27. Vibration Activated Smart CRO Probe 28. 2 channel multi-mode audio amplifier 29. 2 channel video and audio sequencer 30. Password-Based Circuit Breaker 31. Low-Cost Dusk-Dawn Controller 32. Efficient Mini Inverter 33. 3 Phase Induction Motor 34. Visitor Sensing Welcome Mat 35. Fire Detection and Alarm 36. Automated Smoking Zone Monitoring And Alerting 37. Advanced Wireless Power Transfer System 38. Smart Portable Cell Phone Jammer 39. Power Supply With Auto-Switching 40. Emergency Auto Led Light 41. Voltage Multiplier Circuit Microcontroller 42. Accurate Room Temperature Controller 43. Four Quadrant DC Motor Control 44. Activity Automation Using Programmable Switching 45. Multi-Power Supply Using 3 Separate Sources For Uninterruptible Power Supply Cycle 46. ATMEGA Microcontroller based Power Saver 47. CPWM Control System for Induction Motor 48. Smartwatch for Seniors 49. Smart Charger Monitoring System That Uses Arduino 50. IOT based Smart Radiation Monitoring System 51. IOT Based Automatic Road Accident Detection 52. Rotating Solar Inverter 53. RFID Based Water Pump Automation System 54. IOT Based Heart Monitoring System 55. IOT based Fire Alarm System using Raspberry Pi 56. Dual Axis Solar Tracking System 57. Dual Axis Weather Sensor 58. AC Power Strength Controller System 59. Face Recognition Door Lock System That Uses Raspberry Pi 60. Automatic Road Reflector Light 61. Vertical Axis Wind Turbine With Inverter 62. Auto Water Pump Switcher 63. Direction Controller and Induction Motor Speed 64. Digitally Controlled Home Automation 65. Grid-Tie Rotating Solar Rooftop System 66. Hybrid Inverter 67. Wireless Mobile Charging 68. Solar UPS 69. Switching Load By Touch 70. Power Supply With Auto-Switching 71. Emergency Auto Led Light 72. Under Voltage and� Over Voltage Load Protection 73. Protecting Induction Motor From Temperature 74. Advanced Wireless Power Transfer System 75. Generating DC High Voltage With Marx Generator 76. Mini Windmill Power Generation 77. Dual Power Generation Solar 78. 6 Volt DC to 12 Volt DC Converter 79. Ac to DC Using Voltage Multiplier Circuit 80. Smart Wireless Battery Charging 81. Windmill Generator 82. Single Phase Induction Motor 83. Testing The Life Cycle Of Electrical Loads With Counter 84. Controlling Solar Energy Charge 85. System To Measure Solar Power 86. Configurable Password Security System 87. Load Control System Using DTMF 88. Supervisory Controlling For Remote Industry 89. Flexible Ac Transmitter System That Uses TSR 90. Data Acquisition� For Remote Industry 91. Double Phase Induction Motor With Smooth Start 92. Lamp Illumination Control With Precision 93. Load Shedding Time Management That Has A Programmable Interface 94. Cycle Switching For Industrial Power Control 95. Device Load Monitor That Has A Programmable Meter For Auditing Energy 96. AC Power Controller That Has A Programmable Interface 97. Industry Power Consumption Penalty Minimization That Uses AFPC Unit Project 98. Commercial Power Saver 99. Smart Burglar Alarm 100. Wireless FM Transmitter Mic 101. Wireless Cell Phone Detection System 102. Automated Night Lighting System 103. Clap Based Fan Switching System 104. Plant Moisture Monitoring System 105. Sound Operated Timer Project 106. Wireless Doorbell Calling System https://writeproofread.com/ �

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COMMENTS

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Good capstone projects for electrical (EEE) engineering students · Smart Energy Meter using GSM · Home Automation System · Solar and smart energy
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Through the capstone design experience at USD's Shiley-Marcos School of Engineering, electrical engineering students work within interdisciplinary teams on
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The Carnegie Mellon University Department of Electrical and Computer Engineering offers an ECE Design Experience course (18-500) every semester.
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Electrical Engineering Capstone Project Ideas · Automatic Anchor Light · Electric hybrid motorcycle · 1kW sine wave inverter · Automotive computing enterprise · Blue
EECS Spring 2022 Capstone Projects
A semester-long capstone project concludes coursework for seniors in the Department of Electrical Engineering and Computer Science.
Electrical Engineering Capstone Project Ideas
A capstone project for an electrical engineering student involves extensive research. The project is designed for the student to demonstrate
Top 100 Capstone Project Ideas For Engineering Students In 2022
Top 100 Capstone Project Ideas For Engineering Students In 2022 · 01. Testing Method and Application for Impulse- Dispersed Current Around
Capstone Senior Projects
All undergraduates in the School of Electrical Engineering and Computer Science complete a three-term course sequence (October-May) to expose students to
Top 100 Electrical Engineering Capstone Project Ideas
Top 100 Electrical Engineering Capstone Project Ideas · 1. Automatic Anchor Light · 2. Electric hybrid motorcycle · 3. 1kW sine wave inverter · 4.