01
2026-09-21 – 2026-09-25 |
Measurement, units, physical quantities and vectors
Ölçme ve birim sistemleri, fiziksel nicelikler ve vektörlerLearn to express measurements with consistent units and check whether an equation makes physical sense. Use arrows and components to describe quantities that have both size and direction, such as displacement and force. |
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02
2026-09-28 – 2026-10-02 |
Motion in one dimension
Bir boyutta hareketDescribe straight-line motion using position, velocity and acceleration. Read motion graphs and solve constant-acceleration problems, including free fall, with a clear choice of positive direction. |
Laboratory introduction / Laboratuvar Tanıtımı |
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03
2026-10-05 – 2026-10-09 |
Motion in two dimensions and Newton’s laws
İki boyutta hareket ve Newton yasalarıSplit motion into horizontal and vertical parts to understand a projectile’s path. Introduce Newton’s laws and draw force diagrams to connect the net force on an object to its acceleration. |
Measuring instruments / Ölçme Cihazları |
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04
2026-10-12 – 2026-10-16 |
Friction and applications of Newton’s laws
Sürtünme kuvveti ve Newton hareket yasaları uygulamalarıUse force diagrams to solve problems involving friction, slopes and connected objects. Distinguish friction that prevents slipping from friction during sliding, and decide which force equations apply. |
Motion in one dimension — free fall / Bir Boyutta Hareket - Serbest Düşme |
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05
2026-10-19 – 2026-10-23 |
Work and kinetic energy
İş ve kinetik enerjiCalculate how much work a force does as an object moves. Use the work–kinetic energy theorem to find changes in speed, and use power to describe how quickly energy is transferred. |
Projectile motion — friction / Eğik Atış - Sürtünme |
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06
2026-10-26 – 2026-10-30 |
Problem solving and review
Soru çözümü ve özetBring together units, motion, forces and work in mixed practice problems; no new topic is introduced. Rebuild solutions step by step and use units, signs and simple limiting cases to catch mistakes. |
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07
2026-11-02 – 2026-11-06 |
Midterm
VizeThis is the midterm week, with no new chapter. Use the Week 6 review material to practise the topics already taught, and follow the separately announced exam arrangements. |
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08
2026-11-09 – 2026-11-13 |
Potential energy and conservation of energy
Potansiyel enerji ve enerjinin korunumuTrack energy stored in height and stretched or compressed springs, alongside kinetic energy. Decide when mechanical energy is conserved and account for energy transferred by friction when it is not. |
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09
2026-11-16 – 2026-11-20 |
Linear momentum, impulse and collisions
Doğrusal momentum, itme ve çarpışmalarConnect the force acting over a time interval to a change in momentum. Analyse collisions using momentum conservation when external impulse is negligible, and distinguish elastic from inelastic collisions by their kinetic-energy changes. |
Collision in one dimension / Bir Boyutta Çarpışma |
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10
2026-11-23 – 2026-11-27 |
Rotation of rigid bodies
Katı cisimlerin dönme hareketiDescribe rotation using angles, angular velocity and angular acceleration. Learn how moment of inertia depends on the distribution of mass and the chosen rotation axis. |
Rotation of rigid bodies / Katı Cisimlerin Dönmesi |
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11
2026-11-30 – 2026-12-04 |
Dynamics of rotational motion
Dönme hareketi dinamiğiUse torque to explain changes in rotational motion about a fixed axis. Combine translational and rotational energy to solve rolling problems, checking when the no-slip condition applies. |
Moment of inertia — simple pendulum / Eylemsizlik Momenti - Basit Sarkaç |
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12
2026-12-07 – 2026-12-11 |
Equilibrium and centre of mass
Denge ve kütle merkeziLocate the centre of mass and explain how an object can remain in equilibrium. Balance both forces and torques, choosing a useful pivot to find unknown support forces. |
Make-up session / Telafi |
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13
2026-12-14 – 2026-12-18 |
Periodic motion
Periyodik hareketDescribe repeating motion using spring–mass systems and small-angle pendulums. Connect restoring forces, energy and initial conditions to the period and the motion over time. |
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