Continuing Education in Civil Engineering

Lesson 1 • Units, Measurements, and Technical Documentation

Reviews SI and customary unit systems and technical drawing conventions. Ensures consistent communication across all project deliverables.

Lesson 2 • Regulatory and Standards Overview

Introduces design standards, building codes, and permitting processes. Provides the compliance baseline applied in all subsequent technical chapters.

Lesson 3 • Professional Ethics and Conduct

Covers ethical codes, conflict of interest, and whistleblowing duties. Grounds engineers in decision-making frameworks required throughout the course.

Lesson 1 • Construction Methods and Sequencing

Introduces earthwork, formwork, and erection sequencing for civil projects. Links construction method selection to schedule, cost, and safety outcomes.

Lesson 2 • Quality Control and Materials Testing

Covers field and laboratory testing protocols for construction materials. Ensures materials meet specification requirements before and during construction.

Lesson 3 • Steel and Structural Metal Properties

Reviews steel grades, weldability, and connection types for structural use. Connects material properties to fabrication and erection considerations.

Lesson 4 • Concrete Mix Design and Properties

Covers water-cement ratio, admixtures, and strength development in concrete. Provides mix design skills applied in structural and pavement construction.

Lesson 1 • Material Behavior and Structural Limits

Examines stress, strain, and failure modes in steel, concrete, and timber. Establishes allowable stress and limit-state design concepts used in later chapters.

Lesson 2 • Static Equilibrium and Force Systems

Covers free-body diagrams, resultant forces, and equilibrium conditions. Forms the analytical foundation for all structural design sections that follow.

Lesson 3 • Structural System Selection

Compares framing systems, lateral force-resisting systems, and foundation types. Guides engineers in matching structural systems to project constraints.

Lesson 4 • Load Types and Load Combinations

Identifies dead, live, wind, seismic, and environmental loads. Teaches load combination rules required for code-compliant structural design.

Lesson 1 • Slope Stability and Earth Retaining Structures

Evaluates slope failure mechanisms and retaining wall design methods. Prepares engineers to address earthwork and excavation safety challenges.

Lesson 2 • Shallow and Deep Foundation Design

Applies bearing capacity theory to spread footings and pile systems. Integrates soil data with structural loads to produce safe foundation designs.

Lesson 3 • Soil Strength and Compressibility

Analyzes shear strength parameters and consolidation behavior. Provides data inputs for slope stability and settlement calculations.

Lesson 4 • Soil Classification and Properties

Covers grain size, plasticity, and unified soil classification. Provides the soil characterization vocabulary used throughout geotechnical analysis.

Lesson 1 • Transportation Planning and Demand Modeling

Introduces four-step travel demand modeling and multimodal planning. Links land use, demographics, and policy to long-range infrastructure decisions.

Lesson 2 • Geometric Design of Roadways

Covers horizontal alignment, vertical profiles, and cross-section elements. Connects design speed and sight distance to safe roadway geometry.

Lesson 3 • Traffic Flow Theory and Analysis

Introduces flow, speed, density relationships, and level-of-service concepts. Establishes traffic analysis tools applied in roadway and intersection design.

Lesson 4 • Intersection and Signal Design

Applies capacity analysis and signal timing to at-grade intersections. Reduces conflict points and improves throughput for mixed traffic streams.

Lesson 1 • Wastewater Collection and Treatment Overview

Introduces gravity sewer design, lift stations, and treatment process selection. Connects collection system hydraulics to environmental discharge requirements.

Lesson 2 • Stormwater Management and Drainage Design

Covers rational method, detention basins, and low-impact development practices. Reduces peak runoff and improves water quality in developed watersheds.

Lesson 3 • Water Distribution System Design

Applies pipe network analysis and pump selection to potable water systems. Ensures adequate pressure and flow for domestic and fire protection demands.

Lesson 4 • Open-Channel Flow Hydraulics

Applies Manning's equation and energy principles to channel and culvert design. Connects flow regime analysis to safe conveyance capacity.

Lesson 1 • Project Scope and Delivery Methods

Defines scope development, work breakdown structures, and project delivery options. Aligns project objectives with appropriate contracting and delivery strategies.

Lesson 2 • Cost Estimating and Budget Control

Covers quantity takeoff, unit cost estimating, and earned value analysis. Provides tools to track and control project costs throughout construction.

Lesson 3 • Scheduling and Critical Path Analysis

Applies CPM and Gantt charts to civil construction schedules. Identifies critical activities and float to manage project duration effectively.

Lesson 4 • Construction Safety Management

Covers hazard identification, safety planning, and incident investigation. Integrates safety management into project planning and site supervision.

Lesson 1 • Risk Assessment and Mitigation in Design

Identifies technical and project risks and develops mitigation strategies. Embeds risk thinking into design decisions and project delivery planning.

Lesson 2 • Capstone Project Development

Guides engineers through a complete multi-discipline infrastructure design project. Synthesizes all core competencies into a professional-quality deliverable.

Lesson 3 • Sustainable Infrastructure Design

Applies green rating systems, low-carbon materials, and resilience principles to design. Aligns infrastructure performance with environmental and community sustainability goals.

Lesson 4 • Multi-Discipline Design Coordination

Addresses interface management between structural, civil, and MEP disciplines. Reduces design conflicts through systematic coordination and clash detection.