
Explore how gyroscopic effects and angular momentum shape motorcycle stability and steering, balancing wheel inertia, precession, and lean to deliver stable straight-line performance and agile turning.
Explore how suspension dynamics, weight distribution, and tire adhesion establish dynamic equilibrium in cornering, balancing preload, sag, mass distribution, and geometry to maintain grip within friction limits.
Explore how chassis load path fundamentals govern force transmission in motorbike frames, using load case analysis, topology optimization, and modular versus monocoque design strategies to optimize stiffness, weight, and durability.
Examine motorcycle frame architectures and stiffness-to-weight optimization to enhance dynamic performance. See how integrated subsystems and modal analysis guide material choices, joint design, and geometry for rigidity and stability.
Explore how carbon fiber layup schedules, resin transfer molding, autoclave curing, and nondestructive testing and repair techniques optimize composite materials for motorbikes, balancing stiffness to weight ratios and durability.
Analyze subframes and mounting systems, including detachable subframes and engine integration, to manage loads, vibration, and crash energy using materials like high strength steel, aluminum, and composites.
Explore how a four-stroke engine converts fuel into mechanical work through intake, compression, power, and exhaust strokes, with valve timing, ignition, volumetric efficiency, and non-ideal cycle analysis shaping torque.
Explore how two-stroke engines merge intake, compression, and power exhaust in overlapping cycles to boost power density. Learn about scavenging methods, crankcase compression, lubrication and emission challenges.
Explore torque transmission fundamentals from engine to wheel, covering clutch, gearbox, and final drive, efficiency budgeting, rotational inertia dynamics, and material selection strategies to optimize drivetrain performance.
The Motorbike Engineering: Motorcycle Fundamentals and Advanced Course is a multidisciplinary course where you will study the fundamental concepts regarding the Engineering and Operation of Motorbikes, including physics topics, mechanics, materials, transmission, engine operation and more. My intention is that you fully understand the main topics regarding the Design and Engineering of Motorbikes and other vehicles, so that you grasp clearly how to design Motorcycles and how to size their components and choose their materials.
The course is aimed at providing a solid background in Motorbike Engineering so that you can scale up your knowledge in the topic and gain confidence in your own skills. The course is about uniting Engineering and Technical skills for an overall improved know-how of Motorbikes.
The structure of the Course is the following:
Introduction
Vehicle Dynamics
Materials Science
Chassis
Engine
Transmission
We will discuss topics such as the design of the Chassis as it evolved over time and current trends, the forces acting on motorbikes including cornering force, traction and more. We will also get a bit more theoretical studying vehicle dynamics and much more!
The objectives of the Course are for you to understand the basics and some advanced concepts in the development and design of Motorbikes. This will be done in a similar way as studied in Engineering schools, from the fundamental physics concepts to the real application in cars today. The concepts you will learn will enable you to work confidently in Motorbike Projects as well as to expand your knowledge in this topic.
I encourage you to begin this journey to Motorbike Engineering, you won't regret it! If you have any doubts during the course feel free to contact me, I will answer as quick as possible!