VeilRyders – Snowboarding Physics Prototype
A downhill snowboarding prototype developed in Unreal Engine, focusing on physics-based movement, slope interaction, and momentum-driven traversal to create a responsive and fluid gameplay experience.
Overview
VeilRyders is a snowboarding game developed in Unreal Engine as part of a team project. The project focuses on creating a responsive and engaging movement system for navigating downhill environments.
Development began using Blueprint-based prototyping before transitioning key systems into C++ for improved control and scalability.
Goals
The primary goal was to design a movement system that captures the feel of snowboarding, balancing speed, control, and responsiveness.
The project also aimed to explore the transition from rapid Blueprint prototyping to more structured C++ implementation.
My Contribution
- Developed and refined the player movement system
- Implemented slope-influenced movement behaviour and momentum-driven acceleration
- Contributed to transitioning gameplay systems from Blueprint to C++
- Worked on improving player control and responsiveness
System Architecture
Movement System
The player movement system is driven by physics-based interactions, incorporating slope direction, velocity, and player input.
Physics Interaction
Movement is influenced by terrain gradients and momentum, creating a more natural downhill flow.
Input Handling
Player input is mapped to directional control and speed modulation, balancing responsiveness with physical plausibility.
Blueprint to C++ Transition
Initial systems were prototyped in Blueprints before being reimplemented in C++ to allow more structured gameplay logic, improved maintainability, and finer control over movement behaviour.
Technical Deep Dive
Physics-Based Movement
Movement behaviour is influenced by terrain slope, gravity, and player input, allowing downhill acceleration and momentum to emerge dynamically from terrain interaction.
Momentum and Control Balancing
A key challenge was balancing momentum preservation with responsive player control. Movement tuning focused on maintaining downhill speed while still allowing directional correction and readable handling behaviour.
Blueprint to C++ Migration
Systems initially built in Blueprints were migrated to C++ to allow more precise control over behaviour and improve long-term scalability.
Challenges and Solutions
Achieving Responsive Movement
Creating a movement system that feels responsive while still respecting physics constraints proved challenging.
This was addressed through iterative tuning of movement parameters and input responsiveness.
Balancing Realism and Playability
Strict physics simulation often reduced player responsiveness and made directional control less predictable during high-speed traversal.
The system was adjusted to prioritise player control while retaining a sense of physical behaviour.
Transitioning from Blueprint to C++
Migrating systems required restructuring logic and ensuring feature parity.
This improved maintainability and allowed more precise control over gameplay systems.
Results
The final system delivers a responsive snowboarding experience with smooth downhill movement and controllable momentum.
The project demonstrates an understanding of gameplay system design, physics-based movement, and iterative refinement of player experience.
Future Improvements
- Advanced trick system and aerial control
- Improved camera behaviour for high-speed movement
- More refined physics tuning and terrain interaction
- Expanded level design and progression systems