Game Control Program Using 2D Projected Physics Simulation
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Solution Overview
Problem
Existing falling-block puzzle games lack innovation and entertainment value, as they do not effectively utilize physical laws to simulate realistic object movements and interactions, limiting player engagement.
Innovation Solution
A game control program that simulates physical phenomena in a three-dimensional space projected onto a two-dimensional plane, allowing for physical calculations of object movements and interactions, including adjustments to velocity and volume, to create a more immersive experience by applying virtual forces and simplifying temperature distribution calculations.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If physical calculations are applied to simulate realistic object movements and interactions, then entertainment value is improved, but computational load increases
Solution Approach 1:
The patent applies parameter changes by adjusting physical quantities (mass, volume, density) and forces (buoyancy, gravity) to control object behavior in the game. By modifying these parameters, the system achieves realistic physical simulations that enhance entertainment value while maintaining computational efficiency through controlled complexity in the physics calculations.
2Reliability
If virtual forces and physical phenomena are simulated in three-dimensional space, then object interaction realism is improved, but device complexity increases
Solution Approach 1:
The patent projects three-dimensional physical simulations onto a two-dimensional game field, allowing realistic object interactions to be visualized and controlled in 2D space. This dimensionality transformation reduces the complexity of the simulation system while preserving the essential physical interactions, making the game more manageable without sacrificing realism.
3Ease of operation
If physical quantities and forces are adjusted to create non-real-world motions, then game playability is improved, but physical calculation accuracy decreases
Solution Approach 1:
The patent deliberately modifies physical parameters (such as applying virtual buoyancy forces, adjusting mass and volume relationships) to create game-friendly motion characteristics. These parameter adjustments allow objects to move in ways that are more controllable and enjoyable for players, even when they deviate from strict real-world physics, thereby prioritizing playability over absolute physical accuracy.
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
Enhances the entertainment value of the game by providing realistic object collisions, deformations, and interactions, while reducing computational load through simplified simulations, allowing players to control objects with increased operational feasibility.
Implementation Method 1
simulating a physical phenomenon on a two-dimensional plane onto which the three-dimensional space is projected
Implementation Method 2
retrieving both a physical quantity of an object arranged in a game field and a force acting on the object and calculating the movement of the object by a physical calculation
Implementation Method 3
applying the simulated physical phenomenon on the object in the three-dimensional space
Implementation Method 4
adjusting the physical quantity of the object or the force acting of the object so that a motion of the object is different from a real-world motion
Data Source
AI summary
In a game device, a game control unit arranges an object in a three-dimensional space provided in a game field. A temperature-distribution simulator simulates a physical phenomenon on a two-dimensional plane, onto which a three-dimensional space is projected, in reference to a distribution-data storage unit. The game control unit applies the simulated physical phenomenon on an object in the three-dimensional space. A mycelial-growth simulator similarly simulates a physical phenomenon on a two-dimensional plane.