Mortar System

This system includes several notable features:

• Multiple visual and gameplay effects


• Configurable minimum and maximum firing range


• Simulated shell travel time


• Burst fire capability

Turret System

This system was previously implemented as an anti-aircraft turret, but it can be readily adapted for a wide range of applications.

• Adjustable bullet spread


• Configurable rotation speed and movement constraints


• Parallax background support


• Integrated sound effects

Airplane

I have dedicated a significant amount of time to developing this aircraft, which has evolved through multiple iterations ranging from fully physics-based to transform-driven implementations.
Overall, it has been an enjoyable and iterative process to fine-tune its behavior to achieve realistic flight characteristics.

Space Shooter

Space Shooter was developed as a university project, during which I implemented the following features:

• 2D gameplay mechanics using sprites


• Start, options, and exit menu systems


• Parallax background effects


• Randomized spawn point logic


• Player health management

Kitchen Chaos Course

This course was completed for a previous job opportunity and covered a wide range of essential topics for game development, including:

• Gameplay architecture utilizing events, interfaces, and state machines


• Polishing games with audio, visual effects, and production-ready structure


• User interface systems, game states, and scene management


• Player input handling, movement, and interaction systems


• Unity project setup and workflow best practices


• Data management using Scriptable Objects


• Clean, maintainable C# coding practices

Drone System

This system was previously utilized in a project as an autonomous aerial unit and can be adapted for various alternative use cases.

• Autonomous roaming within a defined area, featuring randomized target selection, smooth force-based movement, rotational alignment, and gradual deceleration near targets


• Hover mechanics incorporating dynamic height adjustment, oscillation effects, and physics-based lift and damping for stable flight


• Propeller-based balancing using torque and damping to maintain stability while allowing controlled directional leaning


• Use of Unity physics (Rigidbody, AddForce, AddTorque) to achieve realistic motion rather than purely kinematic behavior


• Collision avoidance implemented through cylindrical detection and physics-based impulse responses


• Debugging and visualization tools such as Gizmos and Debug.DrawLine to assist with monitoring behavior within the editor


• System integration ensuring that roaming, hovering, and avoidance mechanics operate cohesively