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Other Applied Science Fields
Transportation
Traffic Engineering and Control
1. Fundamentals of Traffic Engineering
2. Road User Characteristics
3. Vehicle Characteristics
4. Traffic Stream Characteristics
5. Traffic Data Collection and Analysis
6. Traffic Control Devices
7. Intersection Control and Design
8. Capacity and Level of Service Analysis
9. Traffic Management and Operations
10. Traffic Safety
11. Advanced Traffic Engineering Topics
Advanced Traffic Engineering Topics
Intelligent Transportation Systems
ITS Architecture
National ITS Architecture
Regional ITS Architecture
Systems Engineering Process
ITS Standards
Communication Standards
Data Standards
Interoperability Requirements
Advanced Traffic Management Systems
Traffic Management Centers
Center Operations
System Integration
Data Management
Field Devices
Detection Systems
Communication Systems
Control Systems
Traffic Control Strategies
Adaptive Signal Control
Ramp Metering Control
Variable Speed Limits
Advanced Traveler Information Systems
Information Collection
Information Processing
Information Dissemination
Dynamic Message Signs
Highway Advisory Radio
Internet and Mobile Applications
Commercial Vehicle Operations
Electronic Screening
Fleet Management
Freight Information Systems
Advanced Public Transportation Systems
Automatic Vehicle Location
Transit Signal Priority
Electronic Fare Payment
Connected and Autonomous Vehicles
Vehicle Automation Levels
SAE Automation Levels
Level 0 - No Automation
Level 1 - Driver Assistance
Level 2 - Partial Automation
Level 3 - Conditional Automation
Level 4 - High Automation
Level 5 - Full Automation
Vehicle Connectivity
Vehicle-to-Vehicle Communication
Safety Applications
Mobility Applications
Communication Protocols
Vehicle-to-Infrastructure Communication
Infrastructure Requirements
Data Exchange
System Integration
Vehicle-to-Everything Communication
Pedestrian Communication
Cloud Connectivity
Network Integration
Traffic Flow Impacts
Mixed Traffic Operations
Human-Automated Vehicle Interaction
Capacity Implications
Safety Considerations
Fully Automated Traffic
Capacity Increases
Following Distance Reduction
Intersection Operations
Infrastructure Implications
Roadway Design Changes
Traffic Control Device Evolution
Communication Infrastructure
Implementation Challenges
Technology Deployment
Regulatory Framework
Public Acceptance
Traffic Simulation and Modeling
Simulation Model Types
Macroscopic Models
Aggregate Flow Models
Network Assignment Models
Planning Applications
Mesoscopic Models
Individual Vehicle Tracking
Simplified Behavior Models
Large Network Applications
Microscopic Models
Detailed Vehicle Behavior
Car-Following Models
Lane-Changing Models
Model Development Process
Problem Definition
Model Selection
Network Coding
Demand Estimation
Model Calibration
Parameter Adjustment
Field Data Comparison
Iterative Process
Model Validation
Independent Data Testing
Statistical Validation
Sensitivity Analysis
Simulation Applications
Operational Analysis
Design Evaluation
Policy Assessment
Training and Education
Common Simulation Software
SUMO
VISSIM
AIMSUN
CORSIM
Sustainable Transportation
Complete Streets Design
Multimodal Integration
Context Sensitive Design
Accessibility for All Users
Traffic Calming
Speed Management
Speed Humps and Bumps
Speed Tables
Raised Crosswalks
Volume Management
Diverters
Closures
One-Way Conversions
Geometric Modifications
Chicanes
Chokers
Roundabouts
Non-Motorized Transportation
Pedestrian Facility Design
Sidewalk Design Standards
Crosswalk Treatments
Pedestrian Signals
Bicycle Facility Design
Bicycle Lane Types
Separated Bike Lanes
Bicycle Intersection Design
Shared-Use Path Design
Design Standards
Conflict Management
Maintenance Considerations
Transit-Oriented Development
Land Use Integration
Transit Accessibility
Multimodal Connections
Environmental Considerations
Air Quality Impacts
Noise Pollution
Stormwater Management
Energy Consumption
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10. Traffic Safety
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1. Fundamentals of Traffic Engineering