Integrated Physics and Chemistry (IPC)

10th Grade Course Syllabus Summary

Texas Essential Knowledge and Skills (TEKS) Aligned

Course Description

Integrated Physics and Chemistry (IPC) is a laboratory-based science course designed to help students understand the physical world through the study of chemistry and physics. Students will develop critical thinking, problem-solving, and scientific inquiry skills while participating in hands-on laboratory investigations, engineering design challenges, and real-world applications of science. Safe laboratory practices, data analysis, and scientific communication are emphasized throughout the course.

First Six Weeks: Foundations of Chemistry

Students begin the year by learning laboratory safety, scientific investigation, measurement, and the use of scientific tools. The unit introduces the properties and classification of matter, including physical and chemical properties, states of matter, elements, compounds, mixtures, and methods of separating mixtures. Students also learn how scientists collect and analyze data through laboratory investigations.

Second Six Weeks: Atoms, the Periodic Table, and Chemical Bonding

Students explore the structure of the atom and the historical development of atomic theory. They investigate how the periodic table is organized and discover trends among the elements. The unit also focuses on electron arrangement, valence electrons, and how atoms combine through ionic, covalent, and metallic bonding to form compounds. Students use models to visualize atomic structure and chemical bonding.

Third Six Weeks: Chemical Reactions and Solutions

Students examine how and why chemical reactions occur by learning to write and balance chemical equations and identify common reaction types. They investigate the conservation of matter, the mole concept, and introductory stoichiometry. Students also study acids, bases, pH, solutions, solubility, and factors that affect reaction rates through laboratory activities and problem-solving exercises. The semester concludes with a comprehensive review of chemistry concepts.

Fourth Six Weeks: Motion and Forces

Students transition into physics by studying the motion of objects. They analyze speed, velocity, acceleration, and motion using graphs and mathematical models. Students investigate the relationships between position, time, and motion through laboratory activities while developing an understanding of how forces influence the movement of objects.

Fifth Six Weeks: Newton's Laws, Energy, and Momentum

Students investigate Newton's Laws of Motion and apply them to real-world situations. The unit includes the study of balanced and unbalanced forces, friction, gravity, work, power, kinetic and potential energy, conservation of energy, and momentum. Students participate in engineering design challenges and laboratory investigations that demonstrate the transfer and conservation of energy.

Sixth Six Weeks: Waves, Electricity, Magnetism, and Course Review

Students conclude the course by exploring wave behavior, sound, light, and the electromagnetic spectrum. They study electric charge, current, voltage, resistance, simple circuits, and the relationship between electricity and magnetism. Through hands-on investigations, students build and analyze electrical circuits and electromagnets. The course concludes with a comprehensive review that integrates both chemistry and physics concepts in preparation for the final examination.

Laboratory Experiences

Throughout the year, students will participate in a variety of laboratory investigations designed to strengthen scientific reasoning and problem-solving skills. Students will collect and analyze data, construct scientific explanations using evidence, and apply concepts learned in class to real-world situations.

Skills Developed Throughout the Course

By the end of the course, students will be able to:

• Apply scientific inquiry and engineering design practices.
• Safely conduct laboratory investigations and analyze experimental data.
• Explain the structure and behavior of matter.
• Describe and predict chemical and physical changes.
• Analyze motion, forces, and energy using mathematical and graphical models.
• Investigate electricity, magnetism, and wave behavior.
• Use scientific evidence to solve problems and communicate conclusions effectively.