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Simple & Pragmatic Problem Solving
#108Chapter 8: Modern Problem-Solving Techniques• Modern Problem Solving Techniquesspatial, sensory, immersive and interactive (Immersive & Spatial 3D) Thinkingindividual and group (3D workshops) Mode1-3 Weeks (Modeling to Simulation)(Medium to time-consuming)

Virtual and Augmented Reality (VR/AR) for Problem Solving

From the book "Advanced Problem-Solving Toolbox: 115 Creative Plays" | Compiled & Edited by: Mojtaba Goudarzi, Open translation: Mehrshid Goudarzi
Executive Synopsis & Core Logic:

Innovative problem-solving techniques in immersive spaces; Using VR and AR technologies to walk through the problem, simulate high-risk scenarios, manipulate 3D models and test ergonomics before spending money on physical construction.

Operational Parameters & Specifications

Category
Modern Problem Solving Techniques
Dominant Thinking
spatial, sensory, immersive and interactive (Immersive & Spatial 3D)
Participation
individual and group (3D workshops)
Estimated TimeMedium to time-consuming
1-3 Weeks (Modeling to Simulation)
Workshop
Input Format
3D CAD models, spatial scenarios, multidimensional data, VR/AR headset equipment
Output Format
Interactive virtual prototypes, bodily insights, crisis simulation and optimal ergonomics
Key Application
simulation of complex heart and brain surgeries, design of factories and assembly lines, architecture and interior design, and safety training in hazardous environments (power plants and mines).
Core Differentiator:

Transporting humans from behind 2D flat monitors into the 1:1 scale 3D world of the problem, and activating the sensorimotor cortex of the brain to explore physical and spatial nodes.

Quick Field Example:

The aircraft cabin design team sits inside the virtual cockpit with VR goggles, tests button accessibility in an emergency, and finds ergonomic flaws before making expensive molds.

Operational Benefits & Implementation Risks

Advantages & Value Creation:

Zeroing the risks of life and the costs of building a physical replica, an incredibly deep visual understanding of spatial proportions, simultaneous multi-user collaboration from far distances.

Risks & Potential Trade-offs:

The initial cost of purchasing headsets and developing 3D software, the possibility of motion sickness in some users.

Real-World Organizational & Industry Scenarios

Medical and surgical industry: Team planning of surgeons to separate conjoined twins with AR holographic model.
Automotive and Aerospace: Re-engineering the dashboard and engine by unlocking real-scale virtual parts in a VR environment.
Crisis Management Training: Oil Rig Fire Scenario Practice for Technicians in a Risk Free Simulated Environment.

Strategic Rationale & Why to Apply

1The brain evolved in 3D space: examining a complex engine on a flat screen monitor cripples half of human spatial intelligence.
2Cheap Test of Fatal Errors: In VR you can crash a plane repeatedly to discover the optimal emergency landing angle.
3Team holographic collaboration: Two engineers in Tokyo and Berlin walk around a mock-up engine in a virtual room and move the part by hand.
490% reduction in prototyping time: changing the material and form is done with one click instead of 2 weeks of turning and molding.

Conceptual Framework & Book Method Description

"Virtual and Augmented Reality for Problem Solving" (VR/AR for Problem Solving) is one of the most advanced manifestations of the convergence of humans and technology. Virtual reality (VR) allows a 1:1 scale examination of phenomena by fully immersing the user in a digital world, while augmented reality (AR) superimposes digital information and holograms on the real room environment. Wearing headsets, problem-solving teams sift through multidimensional data in space, manipulate virtual parts by hand, and test system behaviors before reality.

Step-by-Step Real-World Implementation Scenario

Designing and optimizing the ergonomics of the operating room with virtual reality
1
Step 1: Creating a 3D digital twin of the operating roomArchitectural drawings and CAD models of all surgical equipment, patient beds, monitors, and suspended stands were transferred to the VR environment.
2
Step 2: Enter the medical team into the immersive environment (scale 1:1)Surgeons, anesthesiologists and supervisors entered the virtual operating room with VR headsets and stood behind the virtual patient bed.
3
Step 3: Simulation of the emergency code and surgery scenarioThe team practiced a simulated surgery; The surgeon immediately realized that the monitor stand interferes with the anesthesia tube when the assistant moves!
4
Step 4: Interactive manipulation and optimal arrangement of partsIn the same virtual session, the team moved the stands to the ceiling, changed the angle of the monitors, and freed up the path of the sterile trolley.
5
Step 5: Extraction of final drawings and physical constructionThe design was communicated to the construction contractor without the slightest error; Operating room preparation time was reduced by 25% and no changes were required during manufacturing.

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