
During a three-month period, Jan Horák developed core multiplayer features for the sps-trutnov-eps/projekt-1ep-tabor repository, focusing on real-time client-server architecture and gameplay systems. He implemented foundational networking in Python, enabling client input handling, server state management, and position broadcasting, while improving deployment through configuration management. Jan added client-side projectile mechanics with per-frame physics and rendering using Pygame, reducing latency and enhancing combat feedback. He also introduced a catastrophe event system with visual effects, refactored UI and rendering code for maintainability, and streamlined asset management. His work demonstrated depth in backend development, asynchronous programming, and robust network programming practices.

June 2025 monthly summary: Delivered a Catastrophe Event System with Visual Effects for the multiplayer project, including screen shake for earthquakes and tornadoes, plus rendering/UI refactors, improved network connections, and enhanced asset loading error handling. Also cleaned up unused disaster assets to streamline the project. These changes improve gameplay realism, stability, and maintainability while reducing asset bloat and setting a solid foundation for future disaster features.
June 2025 monthly summary: Delivered a Catastrophe Event System with Visual Effects for the multiplayer project, including screen shake for earthquakes and tornadoes, plus rendering/UI refactors, improved network connections, and enhanced asset loading error handling. Also cleaned up unused disaster assets to streamline the project. These changes improve gameplay realism, stability, and maintainability while reducing asset bloat and setting a solid foundation for future disaster features.
Month: 2025-05 performance summary for sps-trutnov-eps/projekt-1ep-tabor. Key delivery: Projectile Mechanics and Combat Visuals enabling client-side shooting, per-frame physics updates, projectile lifetime management, and rendering relative to the player's view. The feature is implemented across commits 94281ce69b737b886de16616456aa58a29966b32 and 452db38a45684500b5aea7c62057fffd87caa00e. No explicit bug fixes recorded this month; improvements focus on stability and visual fidelity. Impact: faster player feedback during combat, reduced server round-trip latency for visuals, and a solid foundation for future weapon systems. Technologies/skills: real-time physics, rendering pipeline, per-frame updates, lifecycle management, and version-control discipline.
Month: 2025-05 performance summary for sps-trutnov-eps/projekt-1ep-tabor. Key delivery: Projectile Mechanics and Combat Visuals enabling client-side shooting, per-frame physics updates, projectile lifetime management, and rendering relative to the player's view. The feature is implemented across commits 94281ce69b737b886de16616456aa58a29966b32 and 452db38a45684500b5aea7c62057fffd87caa00e. No explicit bug fixes recorded this month; improvements focus on stability and visual fidelity. Impact: faster player feedback during combat, reduced server round-trip latency for visuals, and a solid foundation for future weapon systems. Technologies/skills: real-time physics, rendering pipeline, per-frame updates, lifecycle management, and version-control discipline.
April 2025 performance summary for projekt-1ep-tabor: Delivered foundational real-time multiplayer framework with client input handling, server state management, and position broadcasting, plus server IP configuration to streamline deployment. Strengthened server robustness with improved client address handling and added error handling for connections and data processing. Clarified host configuration to reduce deployment friction. The work establishes a scalable multiplayer baseline, lowers runtime issues, and supports faster feature delivery in the next cycle.
April 2025 performance summary for projekt-1ep-tabor: Delivered foundational real-time multiplayer framework with client input handling, server state management, and position broadcasting, plus server IP configuration to streamline deployment. Strengthened server robustness with improved client address handling and added error handling for connections and data processing. Clarified host configuration to reduce deployment friction. The work establishes a scalable multiplayer baseline, lowers runtime issues, and supports faster feature delivery in the next cycle.
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