Auto-Refillable Ejection Device with Photobooth Safety Enclosure
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Solution Overview
Problem
Conventional game rooms lack integration of interactive elements that combine physical and digital experiences, and traditional photo booths are vulnerable to damage and fail to capture dynamic interactions. Additionally, existing ejection devices are limited in functionality and adaptability, struggling to coordinate multiple orifices and canisters efficiently.
Innovation Solution
A game room system incorporating an auto-refillable ejection device with multiple ejection orifices, connected to a series of pumps and canisters filled with various substances like paint or foam, and a photobooth device with a safety enclosure to protect the camera equipment. The system is controlled by a controller that coordinates the ejection process based on game logic and current game states.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Productivity
If multiple ejection orifices are used to increase ejection rate, then productivity is improved, but device complexity increases due to multiple canisters and pumps
Solution Approach 1:
A single canister is designed to supply multiple ejection orifices through a distribution manifold system. The canister serves as a universal source for all orifices, eliminating the need for separate canisters at each location. This multi-functional design maintains high ejection rates while reducing system complexity by consolidating material storage into one centralized unit that serves the entire ejection array.
Solution Approach 2:
The ejection system is segmented into modular components: a single canister, a distribution manifold, multiple ejection orifices, and coordinated pumps. This segmentation allows the system to achieve high productivity through multiple simultaneous ejection points while managing complexity through modular design where each component has a specific function and can be independently controlled or replaced.
2Productivity
If multiple pumps are used to improve ejection efficiency, then productivity is improved, but device complexity increases
Solution Approach 1:
Multiple pumps are merged into a coordinated system controlled by a single controller that manages the timing and operation of each pump. Rather than operating independently, the pumps are combined under unified control, which simplifies the coordination complexity while maintaining the productivity benefits of multiple ejection points. The controller synchronizes pump operations to match game requirements.
Solution Approach 2:
The system incorporates feedback mechanisms where the controller monitors the state of multiple pumps and ejection orifices, adjusting pump operation in real-time based on game conditions and material flow requirements. This feedback loop enables efficient coordination of multiple pumps without requiring complex manual synchronization, as the system self-regulates based on actual operational needs.
3Measurement precision
If photo booth equipment is exposed to capture dynamic gameplay, then measurement precision is improved, but reliability decreases due to vulnerability to damage
Solution Approach 1:
The photo booth camera is enclosed in a protective housing with transparent or translucent panels that allow optical access while providing physical protection. This enclosure acts as a flexible shell that shields the sensitive camera equipment from damage by ejected materials and environmental factors, while still enabling the camera to capture high-quality images and video of the gameplay action.
Solution Approach 2:
Optical elements such as lenses, windows, or transparent barriers serve as intermediaries between the camera and the game environment. These intermediaries allow light to pass through for accurate capture while physically separating the camera from harmful elements like paint, foam, or other ejection materials, thus protecting the equipment while maintaining measurement precision.
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
The system enhances the gaming experience by providing a dynamic and immersive interaction between physical and digital elements, while ensuring the equipment's safety and efficiency. The auto-refillable ejection device allows for continuous gameplay with minimal downtime, and the photobooth captures memorable moments effectively.
Implementation Method 1
a series of pumps to: generate pressure for ejection of the ejection material
Data Source
AI summary
Embodiments described herein offer a unique and immersive gaming experience that combines physical gameplay with digital enhancements. The systems and methods may use a series of auto-refillable ejection devices, configured to expel various materials like foam or paint onto players, providing a dynamic and engaging environment. These devices could be controlled by an ejection logic that integrates with game data, device control data, photobooth data, and other potential data types to ensure precise timing and interaction during gameplay. Players are immersed in the game, with moments captured by multiple cameras of an integrated photobooth. The photobooth system could capture real-time images and videos, such as a “bomb explosion” of the ejection devices being engaged, which can be processed, stored, and shared through personalized links or social media platforms. The combination of interactive game mechanics, synchronized control, and shareable media content enhances player engagement, offering a memorable and replayable gaming experience.