Texas Science — Grade 11 (Physics)
Comprehensive Course Syllabus
Course Overview
Our Texas Grade 11 Science (Physics) course is designed according to the Texas Essential Knowledge and Skills (TEKS) standards. The curriculum develops a strong understanding of motion, forces, energy, electricity, magnetism, waves, optics, modern physics, and engineering principles while preparing students for AP Physics, college STEM programs, engineering, medicine, and scientific research.
Students strengthen scientific inquiry, mathematical reasoning, laboratory skills, and critical thinking through experiments, simulations, engineering design challenges, and real-world applications.
Scientific Investigation & Laboratory Skills
Scientific Inquiry
Students investigate physical phenomena using observation, experimentation, hypothesis testing, and evidence-based reasoning.
Laboratory Safety
Students learn proper laboratory procedures, safe handling of scientific equipment, measurement techniques, and data recording.
Measurement & Scientific Analysis
Students use SI units, scientific notation, significant figures, graphs, and mathematical models to analyze experimental data.
Engineering Design Process
Students apply engineering principles to solve practical problems through planning, testing, evaluation, and redesign.
Data Analysis & Uncertainty
Students evaluate experimental error, percent difference, and uncertainty in measured values. They judge whether results support a hypothesis.
Scientific Communication & Ethics
Students communicate findings through lab reports, graphs, and presentations. They practice honest data reporting and proper citation of sources.
Motion & Forces
Kinematics
Students study displacement, velocity, acceleration, and motion graphs to describe how objects move.
Newton's Laws of Motion
Students investigate forces, inertia, mass, friction, and motion using Newton's three laws.
Circular Motion & Gravitation
Students explore circular motion, gravitational forces, planetary motion, and satellite applications.
Momentum & Collisions
Students analyze momentum, impulse, conservation of momentum, and different types of collisions.
Vectors & Projectile Motion
Students resolve vectors into components and analyze two-dimensional motion. They predict the range and flight time of projectiles.
Forces on Inclined Planes
Students draw free-body diagrams for objects on ramps and in tension systems. They calculate net force and acceleration in each case.
Energy & Work
Work & Power
Students calculate work, power, efficiency, and mechanical advantage in practical systems.
Mechanical Energy
Students investigate kinetic energy, potential energy, conservation of energy, and energy transformations.
Machines
Students examine simple and complex machines, mechanical systems, and engineering applications.
Energy Resources
Students compare renewable and non-renewable energy sources and evaluate their environmental impacts.
Work-Energy Theorem
Students connect the net work done on an object to its change in kinetic energy. They apply the theorem to braking, lifting, and launching problems.
Energy Efficiency & Conservation Practices
Students calculate efficiency for real devices and identify where energy is lost as heat. They evaluate strategies for reducing energy waste.
Electricity & Magnetism
Electric Charge & Electric Fields
Students study electric charge, Coulomb's Law, electric fields, and electrostatic interactions.
Electric Circuits
Students analyze series and parallel circuits, current, voltage, resistance, and electrical power.
Magnetism
Students investigate magnetic fields, electromagnets, magnetic induction, and magnetic materials.
Electromagnetic Applications
Students explore electric motors, generators, transformers, and everyday electrical technologies.
Capacitance & Energy Storage
Students study how capacitors store charge and electrical energy. They examine capacitor applications in cameras, defibrillators, and electronics.
Electrical Safety & Home Wiring
Students analyze household circuits, fuses, circuit breakers, and grounding. They explain how safety devices prevent shocks and electrical fires.
Waves & Optics
Wave Properties
Students study wave motion, frequency, wavelength, amplitude, and wave interactions.
Sound Waves
Students investigate sound production, resonance, Doppler effect, and applications of acoustics.
Light & Optics
Students examine reflection, refraction, lenses, mirrors, optical instruments, and image formation.
Electromagnetic Spectrum
Students explore radio waves, microwaves, infrared, visible light, ultraviolet, X-rays, and gamma rays.
Interference & Diffraction
Students investigate constructive and destructive interference, standing waves, and diffraction patterns. They connect these behaviors to the wave model of light.
Polarization & Wave Technologies
Students examine polarized light and its use in sunglasses, displays, and photography. They explore fiber optics and laser applications.
Modern Physics
Atomic Physics
Students study atomic structure, electron energy levels, and atomic interactions.
Nuclear Physics
Students investigate radioactivity, nuclear reactions, fission, fusion, and nuclear energy.
Quantum Physics
Students receive an introduction to quantum theory, wave-particle duality, and modern scientific discoveries.
Space Science
Students explore astrophysics, stars, galaxies, black holes, cosmology, and space exploration technologies.
Photoelectric Effect & Photons
Students study how light ejects electrons from metal surfaces. They use the photon model to explain results the wave model cannot.
Special Relativity Basics
Students receive an introduction to time dilation, length contraction, and mass-energy equivalence. They discuss evidence supporting Einstein's theory.
Physics in Everyday Life
Engineering Applications
Students apply physics concepts to civil, mechanical, electrical, aerospace, and biomedical engineering.
Technology & Innovation
Students investigate the role of physics in robotics, renewable energy, electronics, transportation, and communication systems.
Environmental Physics
Students study climate science, sustainable technologies, energy conservation, and environmental engineering.
Medical & Health Physics
Students explore X-ray imaging, MRI, ultrasound, and radiation therapy. They connect physics principles to modern diagnostic tools.
Physics of Sports & Motion Safety
Students analyze forces, momentum, and energy in athletics and vehicle safety design. They explain how helmets, airbags, and crumple zones reduce injury.
Acoustics & Architecture
Students study how sound behaves in concert halls, classrooms, and buildings. They examine materials and designs that control noise and echo.
College & Career Readiness
Scientific Problem Solving
Students strengthen analytical reasoning and mathematical modeling to solve advanced physics problems.
Laboratory Investigations
Students design experiments, analyze scientific data, and communicate conclusions using scientific methods.
AP Physics & STEM Preparation
Students develop advanced conceptual understanding and quantitative reasoning required for AP Physics, college science courses, engineering, and STEM careers.
SAT & ACT Science Reasoning
Students practice interpreting data, graphs, and experimental setups under timed conditions. They build test-taking strategies for standardized science sections.
Research & Presentation Skills
Students plan an independent physics investigation and present findings clearly. They defend conclusions using data and scientific reasoning.
STEM Career Exploration
Students survey careers in engineering, medicine, data science, and research. They map high school coursework to college and career pathways.
Thermodynamics & Heat
Temperature & Thermal Energy
Students distinguish temperature, heat, and internal energy. They convert between temperature scales used in science and engineering.
Heat Transfer & Thermal Expansion
Students compare conduction, convection, and radiation. They explain how materials expand and contract with temperature changes.
Specific Heat & Phase Changes
Students calculate heat absorbed or released using specific heat capacity. They analyze energy involved in melting, boiling, and freezing.
Kinetic Theory of Matter
Students model gases as moving particles to explain pressure and temperature. They relate particle motion to macroscopic gas behavior.
Laws of Thermodynamics
Students study the first and second laws of thermodynamics and entropy. They apply energy conservation to thermal systems.
Heat Engines & Refrigeration
Students examine how engines convert heat into work and how refrigerators move heat. They evaluate the efficiency of thermal machines.
Thermal Physics in Engineering
Students apply thermal concepts to insulation, cooling systems, and building design. They analyze how engineers manage heat in real structures.
Rotational Motion & Equilibrium
Rotational Kinematics
Students describe angular displacement, angular velocity, and angular acceleration. They connect rotational quantities to linear motion.
Torque
Students calculate torque from force and lever arm. They explain how wrenches, doors, and gears use rotational force.
Moment of Inertia & Angular Momentum
Students investigate how mass distribution affects rotation. They apply conservation of angular momentum to spinning systems.
Center of Mass & Stability
Students locate the center of mass of objects and systems. They explain why low centers of mass improve balance and stability.
Static Equilibrium
Students balance forces and torques in structures at rest. They analyze bridges, beams, and ladders using equilibrium conditions.
Rotational Energy
Students calculate kinetic energy of rotating objects. They compare rolling, sliding, and spinning motion using energy methods.
Rotation in Technology
Students explore flywheels, turbines, gyroscopes, and wheels in machines. They connect rotational physics to engineering design.
Fluid Mechanics
Density & Pressure
Students calculate density and pressure in solids, liquids, and gases. They explain how pressure changes with depth.
Pascal's Principle
Students study how pressure transmits through enclosed fluids. They analyze hydraulic lifts, brakes, and presses.
Buoyancy & Archimedes' Principle
Students investigate why objects float or sink using buoyant force. They apply Archimedes' principle to ships and submarines.
Fluid Flow & Bernoulli's Principle
Students relate fluid speed to pressure in moving fluids. They explain airplane lift and spray nozzles using Bernoulli's principle.
Viscosity & Surface Tension
Students compare how easily different fluids flow. They observe surface tension effects in droplets and capillary action.
Atmospheric & Weather Physics
Students connect air pressure and fluid behavior to weather patterns. They interpret barometer readings and pressure systems.
Fluids in Engineering
Students apply fluid principles to plumbing, aerodynamics, and pipeline design. They evaluate how engineers control fluid flow.
Oscillations & Simple Harmonic Motion
Periodic Motion Basics
Students identify period, frequency, and amplitude in repeating motion. They recognize oscillations in clocks, swings, and machines.
Springs & Hooke's Law
Students measure how spring force depends on stretch. They calculate spring constants and predict oscillation behavior.
Pendulum Motion
Students investigate how length and gravity affect a pendulum's period. They test predictions with timing experiments.
Energy in Oscillating Systems
Students track kinetic and potential energy through an oscillation cycle. They explain where energy is stored at each position.
Damping & Driven Oscillations
Students observe how friction gradually reduces oscillation amplitude. They study how periodic driving forces sustain motion.
Resonance
Students explore how systems respond strongly at natural frequencies. They examine resonance in bridges, instruments, and radios.
Oscillations in Technology
Students connect harmonic motion to quartz watches, seismographs, and vibration sensors. They evaluate how engineers control unwanted vibration.
Teaching Methodology
Our Physics classes focus on conceptual understanding, mathematical applications, scientific inquiry, engineering design, and laboratory investigations. Students learn through:
Learning Outcomes
By the end of Grade 11, students will be able to:
Assessment & Progress Tracking
Student progress is evaluated through: