TutorPeak’in AP Fizik 1 kursu, College Board müfredatına birebir uyumlu şekilde yapılandırılmış, Newton mekaniği temelli üniversite düzeyinde bir fizik eğitimidir. Kurs, hareketten kuvvetlere, enerjiden momentuma, dönmeden osilasyonlara ve akışkanlara kadar fiziksel olayları matematiksel ve deneysel yaklaşımla ele alır.
Toplam 9 üniteden oluşan bu program, öğrencilerin hem kavramsal anlayışını hem de problem çözme becerisini geliştirir. Her ünitede AP tarzı çoktan seçmeli ve açık uçlu (FRQ) sorularla sınav pratiği yapılır. Son ünitede ise kapsamlı bir tekrar ve sınav stratejileri sunulur.
Ünite Başlıkları:
Kinematik – Hareketin grafiklerle, denklemlerle ve vektörlerle tanımlanması
Kuvvet ve Çevirimsel Dinamik – Newton’un hareket yasalarının gerçek sistemlere uygulanması
İş, Enerji ve Güç – Enerjinin korunumu, iş kavramı ve mekanik enerji dönüşümleri
Doğrusal Momentum – Çarpışmalar, momentum değişimi ve sistem içi etkileşimler
Tork ve Dönme Dinamiği – Tork, açısal hız, moment of inersia ve dönme hareketi
Dönen Sistemlerin Enerjisi ve Momentumu – Lineer ve dönme fiziğinin birlikte analizi
Osilasyonlar – Basit harmonik hareket ve osilasyon sistemlerinde enerji dönüşümü
Akışkanlar – Basınç, kaldırma kuvveti ve temel akışkanlar mekaniği
AP Fizik 1 Tekrarı – Tüm konuların gözden geçirilmesi, örnek FRQ çözümleri ve sınav taktikleri
Öne Çıkan Özellikler:
College Board müfredatına tam uyumlu, ünite bazlı içerik
Görselleştirilmiş konu anlatımları ve uygulamalı soru çözümleri
✍️ Açık uçlu (FRQ) soru pratiği ve çoktan seçmeli sınavlar
Deneysel düşünme ve veri analizine yönelik etkinlikler
Öğrenci ilerlemesini izleme ve ünite bazlı başarı raporları
Kimler İçin Uygun:
10–12. sınıf öğrencileri için uygundur. AP Fizik 1 sınavına hazırlanan, mühendislik, fizik veya diğer STEM alanlarına yönelmek isteyen öğrenciler için idealdir.
Sunulan Diller:
Türkçe | İngilizce
Eğitim Özellikleri
- Dersler 69
- Sınav 0
- Süre 25 weeks
- Yetenek seviyesi All levels
- Dil English
- Öğrenciler 39
- Başarı Belgesi Hayır
- Değerlendirme Evet
- 8 Sections
- 69 Lessons
- 25 Weeks
- Kinematics - Motion in One and Two Dimensions- Master position, velocity, and acceleration relationships using algebraic equations and graphical representations - Apply kinematic equations to solve real-world motion problems in one and two dimensions - Analyze projectile motion and understand independence of horizontal and vertical components9
- 1.11.1 Position, Displacement, and Distance
- 1.21.2 Velocity and Speed: Average and Instantaneous
- 1.31.3 Acceleration and Uniformly Accelerated Motion
- 1.41.4 Kinematic Equations for Constant Acceleration
- 1.51.5 Free Fall and Gravity
- 1.61.6 Motion Graphs: Position-Time and Velocity-Time
- 1.71.7 Two-Dimensional Motion and Vectors
- 1.81.8 Projectile Motion: Horizontal and Vertical Analysis
- 1.91.9 Relative Motion and Reference Frames
- Dynamics - Forces and Newton's Laws- Apply Newton's three laws of motion to analyze forces and predict object behavior - Construct and interpret free-body diagrams to solve force problems systematically - Master various force types including friction, tension, normal force, and gravitational force11
- 2.12.1 Force as a Vector: Concept and Representation
- 2.22.2 Newton’s First Law: Inertia and Equilibrium
- 2.32.3 Newton’s Second Law: F = ma and Applications
- 2.42.4 Newton’s Third Law: Action-Reaction Pairs
- 2.52.5 Free-Body Diagrams and Problem-Solving Strategy
- 2.62.6 Weight and Gravitational Force
- 2.72.7 Normal Force and Contact Forces
- 2.82.8 Friction: Static and Kinetic
- 2.92.9 Tension in Strings and Cables
- 2.102.10 Inclined Planes and Multiple-Object Systems
- 2.112.11 Drag Forces and Terminal Velocity
- Circular Motion and Universal Gravitation- Analyze uniform circular motion using centripetal acceleration and centripetal force - Apply Newton's law of universal gravitation to celestial and terrestrial problems - Understand orbital mechanics and satellite motion principles7
- 3.13.1 Uniform Circular Motion: Velocity and Acceleration
- 3.23.2 Centripetal Force and Applications
- 3.33.3 Banked Curves and Vertical Circles
- 3.43.4 Newton’s Law of Universal Gravitation
- 3.53.5 Gravitational Field Strength and g
- 3.63.6 Orbital Motion and Kepler’s Laws
- 3.73.7 Apparent Weight and Weightlessness
- Energy - Work, Energy, and Conservation- Calculate work done by constant and variable forces and understand energy transfer - Apply conservation of mechanical energy to solve complex motion problems - Analyze power as the rate of energy transfer in physical systems9
- 4.14.1 Work: Definition and Calculation
- 4.24.2 Kinetic Energy and the Work-Energy Theorem
- 4.34.3 Gravitational Potential Energy
- 4.44.4 Elastic Potential Energy and Springs (Hooke’s Law)
- 4.54.5 Conservation of Mechanical Energy
- 4.64.6 Non-Conservative Forces and Energy Dissipation
- 4.74.7 Power: Energy Transfer Rate
- 4.84.8 Energy Bar Charts and Problem-Solving Strategies
- 4.94.9 Force vs. Position Graphs and Work
- Momentum and Collisions- Apply conservation of momentum to analyze collisions and explosions in isolated systems - Distinguish between elastic and inelastic collisions using energy considerations - Master impulse-momentum theorem to solve force-time interaction problems8
- 5.15.1 Momentum as a Vector Quantity
- 5.25.2 Impulse and the Impulse-Momentum Theorem
- 5.35.3 Conservation of Momentum in Isolated Systems
- 5.45.4 Elastic Collisions: Conservation of Momentum and Energy
- 5.55.5 Inelastic Collisions and Perfectly Inelastic Collisions
- 5.65.6 Two-Dimensional Collisions
- 5.75.7 Explosions and Internal Forces
- 5.85.8 Center of Mass and System Analysis
- Rotational Motion and Torque- Analyze rotational kinematics and dynamics using angular quantities and torque - Calculate rotational inertia for various object shapes and apply to rotational energy - Apply conservation of angular momentum to rotating systems9
- 6.16.1 Angular Position, Velocity, and Acceleration
- 6.26.2 Rotational Kinematics: Analogies to Linear Motion
- 6.36.3 Torque: Definition and Calculation
- 6.46.4 Equilibrium: Translational and Rotational
- 6.56.5 Rotational Inertia (Moment of Inertia)
- 6.66.6 Newton’s Second Law for Rotation
- 6.76.7 Rotational Kinetic Energy
- 6.86.8 Angular Momentum and Conservation
- 6.96.9 Rolling Motion: Translation and Rotation Combined
- Simple Harmonic Motion and Waves (Introduction)- Analyze simple harmonic motion for mass-spring systems and simple pendulums - Apply energy conservation to oscillating systems - Understand period, frequency, amplitude, and phase relationships in oscillatory motion7
- Electric Charge and Electric Force- Apply Coulomb's law to calculate electric forces between charged objects - Understand electric field concept and calculate field strength for point charges - Analyze the motion of charged particles in uniform electric fields9
- 8.18.1 Electric Charge: Properties and Conservation
- 8.28.2 Conductors and Insulators
- 8.38.3 Charging by Induction and Conduction
- 8.48.4 Coulomb’s Law: Electric Force
- 8.58.5 Electric Field: Definition and Representation
- 8.68.6 Electric Field of Point Charges
- 8.78.7 Electric Field Lines and Field Mapping
- 8.88.8 Motion of Charged Particles in Electric Fields
- 8.98.9 Electric Potential Energy (Introduction)
