小瓢虫传媒

Enseignants

Toussaint S茅bastien;

Langue
d'enseignement

Anglais

笔谤茅补濒补产濒别蝉

Le(s) pr茅requis de cette Unit茅 d鈥檈nseignement (UE) sont pr茅cis茅s 脿 la fin de cette fiche, en regard des programmes/formations qui proposent cette UE.

Acquis
d'apprentissage

A la fin de cette unit茅 d鈥檈nseignement, l鈥櫭﹖udiant est capable de :

Ma卯triser correctement les ordres de grandeur et les unit茅s. R茅soudre des probl猫mes de physique 茅l茅mentaire gr芒ce 脿 l'analyse dimensionnelle, l'analyse vectorielle et l'analyse 茅nerg茅tique. Identifier comment ces probl猫mes permettent d'茅valuer les syst猫mes technologiques. Expliquer, 脿 l'aide des concepts physiques pertinents, des observations 茅l茅mentaires. Formuler des concepts et des id茅es de mani猫re scientifique.

Contenu

In this course, students will develop the methodological approach to describe a physical phenomenon. The method is based on three building blocks: dimensional analysis, vector-based analysis (Newton鈥檚 law of motion), and energy-based analysis (work-energy theorem). This course aims at bridging the gap between physics-based concepts and their real-world implementations in technologies. Students will strengthen their critical reasoning with the help of the scientific method to estimate the potential, feasibility, and the viability of technological projects.
After attending this course, the student will be able to:

• Master adequately orders of magnitudes and units.
• Solve elementary physics problems.
• Identify how these problems help to assess technological systems.聽
• Explain, thanks to the relevant physical laws, the basic working principles underlying selected technologies.
• Formulate concepts and insights in a scientific manner.

The course is divided into two parts where each topic is presented with the associated technologies it supports.
I) Mechanics

• Chapter 1: Fermi questions, scaling, dimensions, units, and the scientific method

Laws and principles, causality, international system of units, dimensional analysis and scaling, the orders of magnitude in various physical phenomena

• Chapter 2: Kinematics: motion in one dimension

Position, velocity, acceleration, motion with constant acceleration (free fall), projectile motion

• Chapter 3: Coordinate systems, scalars and vectors

Dot product, cross product, cartesian coordinates, rotations in the 2D plane.

• Chapter 4: Kinematics: motion in two dimensions

Polar coordinates, Angular velocity, Uniform circular motion.

• Chapter 5: Dynamics: Newton鈥檚 law of motion

Free body diagram, forces, torques, linear and angular momentum, rolling on an inclined plane, gyroscope physics.

• Chapter 6: Newton鈥檚 third principle application - Drag

Drag coefficient, terminal velocity, lift, rocket science.

• Chapter 7: Work-energy theorem

Potential and kinetic energy, energy conservation, dissipation

• Chapter 8: Simple harmonic motions:

Simple pendulum, spring, swing resonance, damping
II) Electricity and magnetism
聽聽聽聽聽聽聽聽聽聽聽聽聽 - Chapter 9: Electric charge and electric field
Fields, Static electricity, electrical charge, Coulomb鈥檚 law, electric field, electrical potential energy
聽聽聽聽聽聽聽聽聽聽聽聽聽 - Chapter 10: Magnetism
Compass physics, magnets, Lorentz force, cyclotron physics, cyclotron resonance (work-energy theorem)

M茅thodes d'enseignement

Four hours a week are dedicated to INGE1243 during the semester: an ex-cathedra lecture (two hours) is followed by a session of two hours of exercise session. One (or two) topic is extensively presented ex-cathedra (e.g. the drag force, work-energy theorem, etc.) and the same topic is exemplified in the following exercise session. The exercises can be separated into three categories: synthesis questions, conceptual questions, and computational questions. During the session, the students are expected to work by themselves (alone or in small groups). Nevertheless, the teacher is fully available for four tasks: (1) answer clarification questions, (2) deliver tips to guide students (requesting them) towards the solution, (3) discuss the way the student justifies the answer and (4), if necessary, solve 鈥渢ougher鈥� problems on the board.

Modes d'茅valuation
des acquis des 茅tudiants

Written closed-book exam (with form available) with three categories of questions:

• A question evaluating the student鈥檚 ability to deploy the scientific method (dimensional, vector-based and energy analysis) on a simple motion (projectile motion, inclined plane, spring, simple pendulum, etc.). The student is eventually asked to realize predictions (30%).

• A series of multiple-choice conceptual questions. These questions evaluate the student鈥檚 ability to聽identify聽the relevant聽concepts聽required to explain an observation and present a聽justification (35%)
• A series of exercises. These questions evaluate the student鈥檚 ability to聽solve聽problems with numerical values (35%).

Autres infos

The use of a simple (non-graphical and non-programmable) calculator is permitted. During the exam, a form (used during the exercises sessions) is at student鈥檚 disposal.

Ressources
en ligne

Complementary notes related to each course are communicated online each week.

Bibliographie

• Urone, P. P., & Hinrichs, R. (2012). College Physics (OpenStax). (Reference book)
• Hewitt, Paul G.聽Conceptual physics. Pearson Education, 2002.

Facult茅 ou entit茅
en charge

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