High-Performance Motorcycle Mechanics Course

Lesson 1 • High-Performance Motorcycle Architecture Overview

Covers the major assemblies of sport and racing motorcycles and their interdependencies. Provides the system-level map students reference throughout the entire course.

Lesson 2 • Service Documentation and Technical Manuals

Teaches students to navigate OEM service manuals, wiring diagrams, and parts catalogs. Accurate documentation habits are established as a professional standard.

Lesson 3 • Professional Tool Identification and Use

Introduces hand tools, power tools, and specialty motorcycle tools required for high-performance work. Proper selection and care prevent damage to precision components.

Lesson 1 • Engine Component Measurement Techniques

Applies precision tools to pistons, cylinders, crankshafts, and valves. Measurements are compared to service limits to determine component serviceability.

Lesson 2 • Metrology Tools and Calibration

Introduces micrometers, dial indicators, bore gauges, and feeler gauges used in precision motorcycle work. Calibration procedures ensure measurement accuracy before every job.

Lesson 3 • Chassis and Suspension Measurement

Covers frame alignment, wheel runout, and suspension geometry measurement. Accurate chassis data directly affects handling and tire wear on performance machines.

Lesson 1 • Lubrication and Cooling System Theory

Explains wet-sump and dry-sump oiling systems alongside liquid and air cooling designs. Proper thermal management is critical for sustained high-performance operation.

Lesson 2 • Valve Train and Camshaft Operation

Covers DOHC and SOHC valve train layouts common in sport motorcycles. Cam timing, lift, and duration are linked to power band characteristics.

Lesson 3 • Engine Breathing and Airflow Principles

Introduces intake and exhaust flow dynamics that govern peak power output. Students connect port design, velocity stacks, and exhaust scavenging to performance gains.

Lesson 4 • Four-Stroke Combustion Cycle Theory

Explains intake, compression, power, and exhaust strokes with emphasis on volumetric efficiency. Understanding the cycle underpins every engine tuning decision covered later.

Lesson 1 • Engine Break-In and Initial Start Procedures

Establishes correct break-in protocols to seat rings and bearings without damage. Students monitor oil pressure, temperature, and leaks during the first start sequence.

Lesson 2 • Engine Removal and Disassembly Procedures

Covers safe engine extraction from the frame and systematic disassembly sequencing. Organized teardown prevents component damage and simplifies reassembly.

Lesson 3 • Top-End Inspection and Service

Addresses cylinder head, valves, camshafts, and piston inspection procedures. Findings determine whether components are reused, reconditioned, or replaced.

Lesson 4 • Engine Reassembly and Torque Procedures

Guides students through precision reassembly using correct sequences, sealants, and torque values. Proper assembly technique prevents premature failure under high-performance loads.

Lesson 1 • Fuel Injection System Components

Identifies throttle bodies, injectors, fuel pumps, pressure regulators, and sensors in EFI systems. Component function knowledge is prerequisite to diagnosis and tuning.

Lesson 2 • Engine Control Unit Operation

Explains ECU input processing, fuel and ignition maps, and closed-loop feedback control. Students understand how the ECU responds to sensor data to manage combustion.

Lesson 3 • Carburetor Theory and Jetting

Explains flat-slide and CV carburetor operation, circuits, and jetting principles. Correct jetting is the foundation of carburetor-based performance tuning.

Lesson 4 • EFI Diagnosis and Fault Code Retrieval

Covers scan tool connection, fault code interpretation, and live data analysis for EFI systems. Systematic diagnosis reduces guesswork and repair time.

Lesson 1 • Rear Shock Service and Linkage

Addresses piggyback and remote-reservoir shock service, nitrogen charging, and linkage inspection. Rear suspension balance with the front is critical for cornering performance.

Lesson 2 • Front Fork Service and Rebuild

Covers conventional and inverted fork disassembly, seal replacement, oil change, and reassembly. Correct oil level and viscosity directly affect front-end feel and stability.

Lesson 3 • Steering Geometry and Chassis Alignment

Explains rake, trail, wheelbase, and their effects on steering response and stability. Students measure and adjust geometry using alignment tools and manufacturer data.

Lesson 4 • Suspension Tuning for Track and Street

Applies systematic tuning protocols to match suspension to rider weight, style, and surface conditions. Students document settings and evaluate changes through structured test sessions.

Lesson 1 • Caliper and Master Cylinder Overhaul

Addresses piston removal, seal replacement, bore inspection, and reassembly for calipers and master cylinders. Overhauled components restore full hydraulic efficiency.

Lesson 2 • Hydraulic Brake System Theory

Explains Pascal's law, master cylinder ratios, and caliper piston area as they govern braking force. Theory connects directly to component selection and feel adjustment.

Lesson 3 • Brake Fluid Service and Bleeding

Covers fluid specification, moisture absorption, boiling points, and correct bleeding procedures. Contaminated or aerated fluid is a primary cause of brake fade under performance use.

Lesson 4 • Brake Rotor and Pad Selection

Compares rotor materials, floating vs. fixed designs, and pad compound characteristics for performance use. Correct pairing maximizes stopping power and minimizes fade.

Lesson 1 • Dynamometer Operation and Data Interpretation

Covers inertia and load-cell dyno operation, run procedures, and power curve analysis. Dyno data is the primary objective tool for validating every tuning change.

Lesson 2 • Systematic Fault Diagnosis Methodology

Applies a structured diagnostic process to intermittent and complex faults across all motorcycle systems. Logical fault isolation reduces diagnostic time and prevents misdiagnosis.

Lesson 3 • Ignition Timing Optimization

Covers timing advance effects on power, detonation risk, and heat rejection under high-load conditions. Students adjust ignition maps and verify results with dyno and AFR data.

Lesson 4 • Integrated Performance Build Planning

Guides students through planning a complete performance build from goal-setting to component selection and validation. Students produce a documented build specification and test plan.