GMEG Engineering Simulator

Runner Dashboard

▼ Track Module Load Scaling
☰	$ L $	Module Length (m)		View Help Guide Purpose: Modular Basis. Logic: Defines the longitudinal footprint of a single structural block for manufacturing and logistics scaling. Type: Manual Entry Render on Grids: None Mathematical Formula: $Adjustable User Input$ Python Logic: `N/A` Live Evaluation: N/A (Input Variable)
☰	$ F_{\text{active, load}} $	Active Load per Module (N)	0.000000	View Help Guide Purpose: Local Load. Logic: Resolves the total outward kinetic pressure into the specific force acting upon a single modular section. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Gross Centrifugal Force (N) / ( Total Train Length (m) / Module Length (m) )$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ X_{\text{mag, support}} $	Magnetic Support Offset (%)		View Help Guide Purpose: Pre-Stress Assistance. Logic: Defines the percentage of centripetal load neutralized by external magnetic bracing before it even hits the carbon fiber track. Type: Manual Entry Render on Grids: None Mathematical Formula: $Adjustable User Input$ Python Logic: `N/A` Live Evaluation: N/A (Input Variable)
☰	$ F_{\text{net, structural}} $	Net Structural Load (N)	0.000000	View Help Guide Purpose: Resultant Operational Stress. Logic: The final resultant force that the carbon fiber runner must actually resist to maintain operational precision. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Active Load per Module (N) * ( 1 - Magnetic Support Offset (%) )$ Python Logic: `N/A` Live Evaluation: N/A
▼ Prescriptive Runner Design (The Wheel Guide)
☰	$ A_{\text{req, runner}} $	Required Runner Area (m2)	0.000000	View Help Guide Purpose: Stiffness Demand. Logic: The cross-sectional solid carbon fiber area required per module to suppress deflection and stay perfectly within the precision limit. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $( Net Structural Load (N) * Module Length (m) ) / ( ( Carbon Fibre Modulus (GPa) * 10^9 ) * Max Allowable Deflection (m) )$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ \eta_{\text{runner, aspect}} $	Runner Aspect Ratio (h:w)		View Help Guide Purpose: Profile Strategy. Logic: Defines the vertical-to-horizontal ratio of the guide rail to perfectly optimize it for bending resistance. Type: Manual Entry Render on Grids: None Mathematical Formula: $Adjustable User Input$ Python Logic: `N/A` Live Evaluation: N/A (Input Variable)
☰	$ H_{\text{predicted, runner}} $	Predicted Runner Height (m)	0.000000	View Help Guide Purpose: Architectural Output. Logic: The calculated vertical depth of the wheel guide path strictly required for structural rigidity. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $SQRT ( Required Runner Area (m2) * Runner Aspect Ratio (h:w) )$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ W_{\text{predicted, runner}} $	Predicted Runner Width (m)	0.000000	View Help Guide Purpose: Architectural Output. Logic: The calculated horizontal width of the guide path required to fully support the enabler wheel footprint. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Predicted Runner Height (m) / Runner Aspect Ratio (h:w)$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ M_{\text{modular, runner}} $	Modular Weight: Runner (kg)	0.000000	View Help Guide Purpose: Unit Mass. Logic: The dry weight of the solid wheel-guide runner for a single one-meter module. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Required Runner Area (m2) * Module Length (m) * Carbon Fiber Density (kg/m3)$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ \Sigma L_{\text{run}} $	Total Run Length (m)	0.000000	View Help Guide Purpose: System Span. Logic: The total cumulative length of the guide track for global mass modeling. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $DLLS Track full run length (m)$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ X_{\text{modules}} $	Modules	0.000000	View Help Guide Purpose: Component Multiplier. Logic: The total number of one-meter segments required to piece together and complete the full track run. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Total Run Length (m) / Module Length (m)$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ \Sigma M_{\text{runner}} $	Total Runner Weight (kg)	0.000000	View Help Guide Purpose: Cumulative Track Mass. Logic: The massive total weight of the primary carbon fiber wheel-guides for the entire system. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Modular Weight: Runner (kg) * Modules$ Python Logic: `N/A` Live Evaluation: N/A
▼ Running Track Safety Audit
☰	$ X_{\text{contact, pressure}} $	Contact Pressure (MPa)	0.000000	View Help Guide Purpose: Surface Stress. Logic: Measures the extreme pressure directly at the tiny contact interface between the enabler wheel and the carbon fiber track. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $( Net Structural Load (N) / Required Runner Area (m2) ) / 1,000,000$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ \sigma_{\text{material, yield}} $	Material Yield Strength (MPa)	598.000000	View Help Guide Purpose: Ultimate Threshold. Logic: The calculated maximum stress the material can handle before suffering permanent deformation. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Carbon Fibre Modulus (GPa) * 1000 * Strain Limit (%)$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ SF_{\text{compressive, safety}} $	Compressive Safety Factor	0.000000	View Help Guide Purpose: Crush Margin. Logic: Evaluates the headroom before the material surface experiences permanent indentation or crushing. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Carbon Fiber Compressive Limit (MPa) / Contact Pressure (MPa)$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ X_{\text{running, track}} $	Running Track Safety Blueprint Validation	0.000000	View Help Guide Purpose: Status Validation. Logic: Automated confirmation that the track surface can effortlessly withstand the highly concentrated rolling wheel loads. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $IF ( Compressive Safety Factor > Safety Factor Slider , "ULTRA-SAFE" , "REVISE" )$ Python Logic: `N/A` Live Evaluation: N/A
▼ Running Track Surface Safety Audit
☰	$ X_{\text{contact, pressure}} $	Contact Pressure (MPa)	0.000000	View Help Guide Purpose: Surface Stress. Logic: Measures the internal pressure directly at the contact interface between the wheels and the track. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $( Net Structural Load (N) / Required Runner Area (m2) ) / 1,000,000$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ \sigma_{\text{material, yield}} $	Material Yield Strength (MPa)	598.000000	View Help Guide Purpose: Ultimate Threshold. Logic: The calculated maximum stress the material can handle before suffering permanent deformation. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Carbon Fibre Modulus (GPa) * 1000 * Strain Limit (%)$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ SF_{\text{structural, safety}} $	Structural Safety Factor	0.000000	View Help Guide Purpose: Safety Margin. Logic: Evaluates the headroom before the track surface experiences permanent fatigue. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Material Yield Strength (MPa) / Contact Pressure (MPa)$ Python Logic: `N/A` Live Evaluation: N/A
☰	$ X_{\text{running, track}} $	Running Track Surface Safety Blueprint Validation	0.000000	View Help Guide Purpose: Status Validation. Logic: Provides an automated confirmation that the predicted track geometry is totally immune to surface crushing. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $IF ( Structural Safety Factor > Safety Factor Slider , "ULTRA-SAFE" , "REVISE" )$ Python Logic: `N/A` Live Evaluation: N/A

▼ Track Module Load Scaling
☰	\( L \)	Module Length (m)		View Help Guide Purpose: Modular Basis. Logic: Defines the longitudinal footprint of a single structural block for manufacturing and logistics scaling. Type: Manual Entry Render on Grids: None Mathematical Formula: $Adjustable User Input$ Python Logic: `N/A` Live Evaluation: N/A (Input Variable)
☰	\( F_{\text{active, load}} \)	Active Load per Module (N)	0.000000	View Help Guide Purpose: Local Load. Logic: Resolves the total outward kinetic pressure into the specific force acting upon a single modular section. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Gross Centrifugal Force (N) / ( Total Train Length (m) / Module Length (m) )$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( X_{\text{mag, support}} \)	Magnetic Support Offset (%)		View Help Guide Purpose: Pre-Stress Assistance. Logic: Defines the percentage of centripetal load neutralized by external magnetic bracing before it even hits the carbon fiber track. Type: Manual Entry Render on Grids: None Mathematical Formula: $Adjustable User Input$ Python Logic: `N/A` Live Evaluation: N/A (Input Variable)
☰	\( F_{\text{net, structural}} \)	Net Structural Load (N)	0.000000	View Help Guide Purpose: Resultant Operational Stress. Logic: The final resultant force that the carbon fiber runner must actually resist to maintain operational precision. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Active Load per Module (N) * ( 1 - Magnetic Support Offset (%) )$ Python Logic: `N/A` Live Evaluation: N/A
▼ Prescriptive Runner Design (The Wheel Guide)
☰	\( A_{\text{req, runner}} \)	Required Runner Area (m2)	0.000000	View Help Guide Purpose: Stiffness Demand. Logic: The cross-sectional solid carbon fiber area required per module to suppress deflection and stay perfectly within the precision limit. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $( Net Structural Load (N) * Module Length (m) ) / ( ( Carbon Fibre Modulus (GPa) * 10^9 ) * Max Allowable Deflection (m) )$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( \eta_{\text{runner, aspect}} \)	Runner Aspect Ratio (h:w)		View Help Guide Purpose: Profile Strategy. Logic: Defines the vertical-to-horizontal ratio of the guide rail to perfectly optimize it for bending resistance. Type: Manual Entry Render on Grids: None Mathematical Formula: $Adjustable User Input$ Python Logic: `N/A` Live Evaluation: N/A (Input Variable)
☰	\( H_{\text{predicted, runner}} \)	Predicted Runner Height (m)	0.000000	View Help Guide Purpose: Architectural Output. Logic: The calculated vertical depth of the wheel guide path strictly required for structural rigidity. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $SQRT ( Required Runner Area (m2) * Runner Aspect Ratio (h:w) )$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( W_{\text{predicted, runner}} \)	Predicted Runner Width (m)	0.000000	View Help Guide Purpose: Architectural Output. Logic: The calculated horizontal width of the guide path required to fully support the enabler wheel footprint. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Predicted Runner Height (m) / Runner Aspect Ratio (h:w)$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( M_{\text{modular, runner}} \)	Modular Weight: Runner (kg)	0.000000	View Help Guide Purpose: Unit Mass. Logic: The dry weight of the solid wheel-guide runner for a single one-meter module. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Required Runner Area (m2) * Module Length (m) * Carbon Fiber Density (kg/m3)$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( \Sigma L_{\text{run}} \)	Total Run Length (m)	0.000000	View Help Guide Purpose: System Span. Logic: The total cumulative length of the guide track for global mass modeling. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $DLLS Track full run length (m)$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( X_{\text{modules}} \)	Modules	0.000000	View Help Guide Purpose: Component Multiplier. Logic: The total number of one-meter segments required to piece together and complete the full track run. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Total Run Length (m) / Module Length (m)$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( \Sigma M_{\text{runner}} \)	Total Runner Weight (kg)	0.000000	View Help Guide Purpose: Cumulative Track Mass. Logic: The massive total weight of the primary carbon fiber wheel-guides for the entire system. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Modular Weight: Runner (kg) * Modules$ Python Logic: `N/A` Live Evaluation: N/A
▼ Running Track Safety Audit
☰	\( X_{\text{contact, pressure}} \)	Contact Pressure (MPa)	0.000000	View Help Guide Purpose: Surface Stress. Logic: Measures the extreme pressure directly at the tiny contact interface between the enabler wheel and the carbon fiber track. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $( Net Structural Load (N) / Required Runner Area (m2) ) / 1,000,000$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( \sigma_{\text{material, yield}} \)	Material Yield Strength (MPa)	598.000000	View Help Guide Purpose: Ultimate Threshold. Logic: The calculated maximum stress the material can handle before suffering permanent deformation. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Carbon Fibre Modulus (GPa) * 1000 * Strain Limit (%)$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( SF_{\text{compressive, safety}} \)	Compressive Safety Factor	0.000000	View Help Guide Purpose: Crush Margin. Logic: Evaluates the headroom before the material surface experiences permanent indentation or crushing. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Carbon Fiber Compressive Limit (MPa) / Contact Pressure (MPa)$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( X_{\text{running, track}} \)	Running Track Safety Blueprint Validation	0.000000	View Help Guide Purpose: Status Validation. Logic: Automated confirmation that the track surface can effortlessly withstand the highly concentrated rolling wheel loads. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $IF ( Compressive Safety Factor > Safety Factor Slider , "ULTRA-SAFE" , "REVISE" )$ Python Logic: `N/A` Live Evaluation: N/A
▼ Running Track Surface Safety Audit
☰	\( X_{\text{contact, pressure}} \)	Contact Pressure (MPa)	0.000000	View Help Guide Purpose: Surface Stress. Logic: Measures the internal pressure directly at the contact interface between the wheels and the track. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $( Net Structural Load (N) / Required Runner Area (m2) ) / 1,000,000$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( \sigma_{\text{material, yield}} \)	Material Yield Strength (MPa)	598.000000	View Help Guide Purpose: Ultimate Threshold. Logic: The calculated maximum stress the material can handle before suffering permanent deformation. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Carbon Fibre Modulus (GPa) * 1000 * Strain Limit (%)$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( SF_{\text{structural, safety}} \)	Structural Safety Factor	0.000000	View Help Guide Purpose: Safety Margin. Logic: Evaluates the headroom before the track surface experiences permanent fatigue. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $Material Yield Strength (MPa) / Contact Pressure (MPa)$ Python Logic: `N/A` Live Evaluation: N/A
☰	\( X_{\text{running, track}} \)	Running Track Surface Safety Blueprint Validation	0.000000	View Help Guide Purpose: Status Validation. Logic: Provides an automated confirmation that the predicted track geometry is totally immune to surface crushing. Type: Calculated (Math Output) Render on Grids: None Mathematical Formula: $IF ( Structural Safety Factor > Safety Factor Slider , "ULTRA-SAFE" , "REVISE" )$ Python Logic: `N/A` Live Evaluation: N/A

Runner Dashboard

Add New Variable & Layout Control

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✏️ Edit Variable

🔒 Isolated Bucket & Aggregator