Multisensory Simulation Architecture for High-Fidelity Immersion
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Solution Overview
Problem
Current multisensory simulation systems lack an economical and integrated design that effectively stimulates multiple user senses to achieve high fidelity simulations, limiting their ability to provide immersive and accurate experiences.
Innovation Solution
The proposed multisensory simulation system comprises modular components such as an Omni-Directional Treadmill, Gravity Modification System, Motion and Gesture Tracking System, Data Analytics System, Visual and Auditory Stimulation Systems, Operator Interface, User Harness System, Tactile Stimulation System, Atmospheric Simulation System, Neurological Stimulation System, Olfactory and Gustatory Systems, User Monitoring System, a Controller, Game Engine System, database, Communication Unit, and a User Safety System, all interconnected via a communication bus to provide a comprehensive and immersive experience.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If multiple modular components are integrated to stimulate multiple senses, then simulation fidelity is improved, but device complexity increases
Solution Approach 1:
The system is divided into multiple independent modular components including Visual Stimulation System, Auditory Stimulation System, Tactile Stimulation System, Atmospheric Simulation System, and other subsystems. Each module can be independently designed, tested, and maintained while contributing to the overall simulation fidelity through their coordinated operation.
Solution Approach 2:
The Controller serves as a universal coordinating component that manages multiple stimulation systems simultaneously. The communication bus provides a universal interface for data exchange between all subsystems, enabling the system to handle various simulation scenarios through a common architectural framework.
2Reliability
If multiple stimulation systems are integrated, then immersion experience is improved, but system cost increases
Solution Approach 1:
By segmenting the system into standardized modular components, each stimulation system can be optimized independently for its specific function while sharing common infrastructure elements such as the communication bus and controller architecture, thereby reducing redundant costs.
Solution Approach 2:
Multiple stimulation systems are merged into a single integrated platform that shares common control and communication infrastructure. This consolidation allows for economies of scale in system management and reduces the overall cost compared to operating separate independent systems.
3Measurement precision
If comprehensive sensory stimulation is provided, then simulation accuracy is improved, but ease of operation deteriorates
Solution Approach 1:
The Controller provides a universal interface that manages all stimulation systems through a single point of control. This centralized control mechanism simplifies operation by allowing users to manage complex multi-sensory simulations through unified commands rather than controlling each subsystem separately.
Solution Approach 2:
The communication bus acts as an intermediary layer between the controller and various stimulation systems, handling the complexity of data routing and coordination automatically. This mediator absorbs the operational complexity, presenting a simplified interface to the user while maintaining accurate coordination of all subsystems.
Data Source
AI summary
A Multisensory Simulation System comprises systems including: an Omni-Directional Treadmill (ODT), a Gravity Modification System (GMS), a Motion and gesture Tracking System (MTS), a Data Analytics System (DAS), a Visual Stimulation System (VSS), an Auditory Stimulation System (AUSS), an Operator Interface System (OIS), a User Harness System (UHS), a Tactile Stimulation System (TSS), an Atmospheric Simulation System (ATSS), a Neurological Stimulation System (NSS), an Olfactory Stimulation System (OSS), a Gustatory System Stimulation System (GSS), a User Monitoring System (UMS), a Controller, a Game Engine System (GES), database, a Communication Unit (CU), a User Safety System (USS), and a communication bus.