Project timeline
Earthquake Simulation Table
Table system simulating earthquake effects with controlled movement.
Main tools and layers
Project category and focus
Worked on mechanical motion generation, frequency/amplitude scenarios, motor driving and experimental observation flow. Contrib...
Used technologies
Technologies used in this project
Key technologies in this project are matched automatically from its technology list and category structure.
MATLAB Advanced
Simulink Advanced
ROS Intermediate
FK/IK Intermediate
Simscape Intermediate
Gazebo Intermediate
Trajectory Planning Intermediate
Details
Project overview
The earthquake simulation table is an educational and experimental mechatronics system concept aimed at observing structural response through controlled vibration inputs. Mechanical motion generation, motor driving, frequency/amplitude control and repeatable user scenarios are the main parts of the work. The aim is to move earthquake effect from abstract explanation into a measurable and observable experiment environment.
System perspective: The project was considered not as a single technical output, but together with requirements, data flow, user interaction, failure scenarios, maintainability and future extensibility. This makes both the engineering decisions and software architecture choices easier to understand.
Implementation detail: The content was expanded to explain not only the technologies used, but also how the problem was approached, which layers were separated, how data and control flow were considered, and which competency the project represents inside the CV.
Portfolio depth: This record highlights not only the technologies used, but also how the requirement was decomposed, how data or control flow was considered, what output is presented to the user and how the project can be extended later. This turns the project card from a short showcase into a readable case study that explains engineering decisions.
Case Study
The technical story from problem to outcome
Theoretical calculation alone may not be enough to understand earthquake effects. A controlled and repeatable test platform is needed to observe how different frequencies, amplitudes and motion profiles affect small scale models.
Vibration table logic, motor control and scenario based motion inputs were designed together.
The mechanical table produces motion, the motor driver layer manages frequency/amplitude behavior and the user repeats experiments through scenario parameters.
The project strongly demonstrates the relationship between control, mechanical design and experimental validation. The earthquake simulation table makes it possible to study the effect of different motion profiles on model behavior more clearly.
Architecture
Block-based system flow
Theoretical calculation alone may not be enough to understand earthquake effects. A controlled and repeatable test platform is needed to observe how different frequencies, amplitudes and motion profiles affect small scale models.
The mechanical table produces motion, the motor driver layer manages frequency/amplitude behavior and the user repeats experiments through scenario parameters.
Vibration table logic, motor control and scenario based motion inputs were designed together.
The project strongly demonstrates the relationship between control, mechanical design and experimental validation. The earthquake simulation table makes it possible to study the effect of different motion profiles on model behavior more clearly.
Live showcase
Demo, output and visual story
Theoretical calculation alone may not be enough to understand earthquake effects. A controlled and repeatable test platform is needed to observe how different frequencies, amplitudes and motion profiles affect small scale models.
The project strongly demonstrates the relationship between control, mechanical design and experimental validation. The earthquake simulation table makes it possible to study the effect of different motion profiles on model behavior more clearly.
The mechanical table produces motion, the motor driver layer manages frequency/amplitude behavior and the user repeats experiments through scenario parameters.
The project strongly demonstrates the relationship between control, mechanical design and experimental validation. The earthquake simulation table makes it possible to study the effect of different motion profiles on model behavior more clearly.