Gameplay Effects Rendering via OS-Level Graphics Interception
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Solution Overview
Problem
Modifying games to be compatible with multiple game engines and platforms is cumbersome and inefficient, often leading to increased power consumption and latency due to lack of optimization, and requires developers to individually add features and effects to each game engine.
Innovation Solution
A custom framework integrated into the operating system's API layer modifies graphics data at an operating system level to apply effects to non-user interface elements during gameplay, without altering the game code, using scene and UI detection to selectively apply effects to non-UI graphical elements.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If a game is modified to add effects or features, then the game functionality is improved, but the compatibility across different game engines and platforms deteriorates due to cumbersome modifications required for each platform
Solution Approach 1:
The patent introduces an intermediary framework that operates between the game engine and the graphical rendering pipeline. This framework intercepts rendering calls and applies effects uniformly across different platforms without requiring game code modifications. The framework acts as a mediator that translates platform-specific rendering requirements into a unified effect application mechanism, resolving the contradiction between cross-platform compatibility and modification complexity.
Solution Approach 2:
The framework is designed to be universal, working across multiple game engines (Unreal Engine, Unity, CryEngine) and platforms (PC, console, mobile) without requiring platform-specific implementations. By creating a multi-functional system that can apply effects uniformly regardless of the underlying engine or platform, the patent eliminates the need for separate modifications for each target, thereby improving adaptability while reducing complexity.
2Illumination intensity
If effects are applied during gameplay, then the visual quality is improved, but the power consumption and latency increase
Solution Approach 1:
The framework applies effects selectively rather than universally - it identifies and applies effects only to specific graphical elements that require enhancement, rather than processing every rendering call uniformly. This partial action approach reduces unnecessary computational overhead and power consumption while maintaining visual quality where needed. The system determines which graphical elements warrant effect application based on scene analysis and user preferences, avoiding excessive processing.
Solution Approach 2:
The effect application is made dynamic rather than static - the framework adjusts the intensity and type of effects applied based on real-time conditions such as scene complexity, hardware capabilities, and user preferences. This dynamic adjustment allows the system to optimize power consumption by reducing or eliminating effects in situations where they provide minimal visual benefit, while maintaining high visual quality when necessary.
3Illumination intensity
If effects are applied to all graphical elements, then the visual enhancement is maximized, but the user interface elements are also affected which degrades user experience
Solution Approach 1:
The framework applies different rendering characteristics to different parts of the graphical output - effects are applied locally to game-world graphical elements (characters, environments, objects) while user interface elements maintain their original rendering properties. This local quality differentiation ensures that visual enhancements are delivered where they provide value (in-game graphics) while preserving clarity and usability where they would be detrimental (UI elements).
Data Source
AI summary
Systems and methods of rendering effects are described herein. A computing device can receive a user selection of an effect to be applied during gameplay of a computer game. The computing device can initiate a framework with which to apply the effect during the gameplay. The computing device can determine scenes during the gameplay to apply the effect through the framework. The computing device can determine graphical elements in the scenes that correspond to non-user interface elements through the framework. The computing system can apply the effect to the graphical elements through the framework.