This set of study guides and homework materials was created for Principles of Physics I under a Round Six ALG Textbook Transformation Grant.

Physical metallurgy encompasses the relationships between the composition, structure, processing history and properties of metallic materials. In this seminar you’ll be introduced to metallurgy in a particularly “physical” way. We will do blacksmithing, metal casting, machining, and welding, using both traditional and modern methods. The seminar meets once per week for an evening laboratory session, and once per week for discussion of issues in materials science and engineering that tie in to the laboratory work. Students will begin by completing some specified projects and progress to designing and fabricating one forged and one cast piece.

This course covers elementary statistical mechanics, transport properties, kinetic theory, solid state, reaction rate theory, and chemical reaction dynamics.
Acknowledgements
The staff for this course would like to acknowledge that these course materials include contributions from past instructors, textbooks, and other members of the MIT Chemistry Department affiliated with course #5.62. Since the following works have evolved over a period of many years, no single source can be attributed.

An interactive adaptation of Physical Geology, First University of Saskatchewan Edition

Short Description:
Physical Geology - H5P Edition is an interactive comprehensive introductory text on the physical aspects of geology, including rocks and minerals, plate tectonics, earthquakes, volcanoes, mass wasting, climate change, planetary geology, and more. It has a strong emphasis on examples from western Canada. It is adapted from Physical Geology, First University of Saskatchewan Edition.

Word Count: 171575

Included H5P activities: 253

(Note: This resource's metadata has been created automatically by reformatting and/or combining the information that the author initially provided as part of a bulk import process.)

In anatomy, form and function of sensory organs allows students to understand how the body interacts with external stimuli. Explorations of the eye and ear often lack a full exploration of the physical science phenomena behind them. In this unit, both the eye and ear are explored as receptors for wave phenomena of light and sound. The interaction between anatomy and physical science provides a robust understanding of how the body functions. In addition to a brief study of waves, students will also explore medical interventions such as the bionic eye, glasses, hearing aids, and cochlear implants as ways to improve our ability to sense sight and sound.

The videos of this YouTube playlist were created by students of UT Austin's "General Physics II" (PHY 317L) class, a calculus-based, undergraduate, introductory physics class aimed at pre-med, chemistry, and life-sciences students. These videos explain how a physics concept from the course relates to a biomedical application. These videos are aimed at an audience of graduating high-school seniors / incoming college freshmen.Please note that the playlist contains videos that may either have the standard YouTube license or the CC BY license.

In this activity, students will learn about Newton's 2nd Law of Motion. They will learn that the force required to move a book is proportional to the weight of the book. Engineers use this relationship to determine how much force they need to move an airplane.

This sample shell is produced by the California Community Colleges CVC-OEI to support faculty in the use of Open Educational Resources and development of courses aligned to the OEI Course Design Rubric. The shell may be used for online, hybrid, &/or face-to-face classes. The shell is available for all faculty, not just those faculty in the CCC system. The team producing this shell includes Helen Graves, Liezl Madrona, Cyrus Helf, Nicole Woolley & Barbara Illowsky. If you are having challenges importing the shell, here are some steps to take. (1) Create an empty shell in your sandbox. (2) Import the Canvas Commons course into your shell. (3) Adapt the content as you wish. (4) If all else fails, contact your college IT person or Canvas administrator.

These reading guides for OpenStax College Physics cover the chapters most often taught in the first semester. They are organized by chapter and section. The guides include chapter summaries, core terminology and equations, and review questions.

Copyright© 2015 by Greg Clements. Permission is granted to reproduce this document as long as 1) this copyright notice is included, 2) no charge of any kind is made, and, 3) the use is for an educational purpose.

Physical development occurs as children learn how to use and take care of their growing bodies. It is a foundation for other learning and development. Children use their bodies for learning, by moving around and interacting with people and their environment. This learning trajectory look at gross motor skills, fine motor skills, sensory awareness, and physical health and self-care.

The early childhood learning trajectory will help you observe children’s progress in physical development and plan the next steps in their learning and development.

This course offers an introduction to the basic concepts of the quantum theory of solids.

This is a four page sheet of equations that are based on the chapter summaries of OpenStax University Physics Volume 1. The primary intent is to create an equation sheet for students to use during in-class exams. It is on a wiki, and therefore can be edited. Formula sheets for Volumes 2 and 3 will come out this summer (if all goes well).

บทนำ            แสงมีแนวการเคลื่อนที่เป็นเส้นตรง  แต่เมื่อแสงเคลื่อนที่ไปพบสิ่งกีดขวางเรียกว่า รอยต่อระหว่างตัวกลาง จะมีผลให้แนวทางการเคลื่อนที่ของแสงเปลี่ยนไป  ส่วนของแสงที่ไม่สามารถผ่านตัวกลางไปได้ จะเกิดการสะท้อนของแสง และเป็นไปตามกฎการสะท้อนของแสง คือ            1) รังสีตกกระทบ  เส้นแนวฉาก และรังสีสะท้อน อยู่ในระนาบเดียวกัน             2) มุมตกกระทบเท่ากับมุมสะท้อน  ณ ตำแหน่งที่แสงตกกระทบจุดประสงค์การเรียนรู้            1. นักเรียนสามารถอธิบายการเคลื่อนที่ของแสงและอธิบายภาพที่เกิดจากการสะท้อนของวัตถุในกระจกเงาราบ กระจกเว้า และกระจกนูนได้อย่างถูกต้อง (K)            2.  นักเรียนสามารถใช้ทักษะการคำนวณเพื่อคำนวณหาความยาวโฟกัสและกำลังขยายของภาพที่เกิดจากวัตถุในกระจกเงาราบ กระจกเว้า และกระจกนูนได้อย่างถูกต้อง (P)            3. นักเรียนส่งงานที่ได้รับมอบหมายในเวลาที่กำหนดและเข้าเรียนตรงต่อเวลา (A)

The need for an OER textbook on conceptual physics led to the discovery of a short book Matthew Raspanti posted on the internet back in 2008. He agreed to a CC-BY-NC-SA licence that permits the text to reside on Wikiversity as a pdf file. It is available as a single 162 page document, as well as 20 much shorter documents to facilitate online navigation.

Each of these 20 sections links out of a WIKI page that will permit the submission and sharing of ancillary materials under a CC-BY-SA license. These wiki-pages can be organized to host an arbitrary number of submissions by students, as well as by instructors.

Short Description:
This supplementary first-year physics textbook explores the role of language, alongside figures and mathematical symbols, in solving physics problems. The aim of this textbook is to help students gain extended, practical awareness of the roles of language in solutions to a range of first-year physics problems. The learning is guided mainly by comparing how language is used in formal, written solutions and in students' problem-solving dialogues. With new awareness how and why language is used in these two central forms of university physics practice, students can more effectively communicate solutions and guide their development as physicists and users of scientific English. After introducing problem-solving strategies and foundational aspects of language, the textbook guides students in the three primary functions of language in solutions: to represent concepts and phenomena, organize messages to facilitate their interpretation, and evaluate knowledge claims. Learning is largely task-based, emerging from completing the textbook tasks and reviewing feedback. The textbook is recommended for use alongside first-year physics instruction in self-guided study or instructor-facilitated contexts such as physics tutorials and English for physics courses.

Long Description:
This textbook combines the perspectives of physics and language to help you solve first-year physics problems and communicate your problem-solving choices more consciously and effectively. From the view of physics, the units present physics problems linked to the set of physics concepts typically taught in first year, focusing on how students with various physics competencies solve problems in dialogue and report their solutions in writing. By exploring the various competencies involved in solving physics problems and illustrating these competencies in solutions produced by students with different strengths and weaknesses, this textbook aims to help you understand and develop your own competencies.

A language perspective on learning first-year physics

The perspective of language complements the learning in physics because language systems are a key resource for thinking through and solving physics word problems. Language use in specialized activities such as solving physics problems tends to form identifiable patterns, implying that some language choices are more effective than others. Working through this textbook, you will observe the systems of language choices available for solving physics problems and develop capacities to use language more mindfully and effectively in your physics work.

Physics knowledge is produced, exchanged, and assessed in two main forms in first year courses, in speech and writing. In each textbook unit, a problem is introduced that requires application of one or more focal physics concepts, exploring spoken and written solutions to this problem to help you improve the effectiveness of solutions in both forms. Each unit also focuses on a specific function or sub-function of language, such as how concepts are represented or how solutions are organized, which is explored by comparing the spoken and written modes of communicating physics.

Across the 14 units, the textbook describes and explains the functional scope of the English language in shaping valued physics knowledge. For example, we explore the use of particular functional structures of English that physicists typically use when a problem requires us to re-interpret the concrete, physical world in terms of abstract concepts, such as when modelling a running person (concrete) as a point mass (concept).

The language perspective helps us answer questions such as these: What are the functions of language in solving physics problems? How does language help us to shift perspectives between a problem’s dynamic, physical situation and the stable, theoretical concepts involved? What are the roles of visual figures and mathematical symbolism relative to language in solving physics problems? What language choices are involved in effectively solving a physics problem in group dialogue and writing? Can we distinguish between reporting and explaining our solution? If so, how? What does it mean for a solution to be effectively communicated?

The knowledge and experiences you build in this course about the role of language in physics will help you to meet your expectations for solving physics problems and those of your peers and instructors. This aim is achieved in combination with the increased awareness and development of your competencies in solving physics problems. The guiding aim of this textbook is for you to apply the knowledge and experiences you gain towards your personal and professional development according to your interests in physics and science.

The organization of the textbook

The roles of language in solving physics problems are explored in increasing detail across the textbook units. Unit 1 provides the foundational perspectives on physics and language. The focus for learning is on strategies for solving word problems and the units and scales of language use in communicating the solutions.

Units 2 to 14 focus on physics concepts typically covered in first year, from motion along a straight line to fluid dynamics. Each unit introduces a problem developed to apply the unit’s focal concept and explores with you the solutions to these in spoken and written forms. A second problem is then introduced in the unit as an opportunity to apply, assess, and reflect on what you’ve learned.

Ways to use the textbook

The focus of this textbook is on improving your use of language, problem-solving strategies, and physics concepts in solving problems. As such, this book is not intended to replace a physics first-year textbook. Rather, this textbook is designed to be used in combination with a standard first-year physics textbook or course, where the methods and concepts are covered in detail.

This textbook is designed for first-year Science or Applied Science programs, where it would be used in (1) the tutorial section of the physics course focusing on problem-solving competencies and communicating solutions or in (2) a linked content-and-language syllabus such as an English for First-Year Physics course. This textbook will also find good use in (3) advanced placement high-school science programs, (4) pre-sessional university preparation programs, and (5) refresher courses for first-year physics. The book was designed especially for multilingual students of physics; however, it is expected to interest any physics enthusiasts with an interest in explicit understanding and extended practice of the language of physics.

The course is designed to be used in self-guided learning, peer study groups, or instructor-led classes. Whatever approach you take, learning through this textbook happens through your active engagement with the tasks. The task-based design involves a cycle of pre-task preparation, task activity, and post-task checking of responses and reflection. The post-task checking of your responses is crucial as this is typically where the effectiveness of your task performance is explained, that is, where the teaching emerges in dialogue with your input.

This course also includes optional features for deeper engagement and community-building around the language of solving physics problems. Chief among these features is the sharing of physics problems and solutions produced by you, the textbook users. As a user of the online textbook, you are invited to submit your solutions to the collection and compare these in terms of language features against our analyses of how language is used across all submissions. Users are also encouraged to design and share unique problems that reflect their particular interests and curiosities within and beyond physics. As the collection grows, so will the analyses, opportunities for engagement, and the learning community.

Word Count: 6443

(Note: This resource's metadata has been created automatically by reformatting and/or combining the information that the author initially provided as part of a bulk import process.)

This course is offered to graduates and focuses on understanding the fundamental principles of the “front-end” processes used in the fabrication of devices for silicon integrated circuits. This includes advanced physical models and practical aspects of major processes, such as oxidation, diffusion, ion implantation, and epitaxy. Other topics covered include: high performance MOS and bipolar devices including ultra-thin gate oxides, implant-damage enhanced diffusion, advanced metrology, and new materials such as Silicon Germanium (SiGe).

Electricity and magnetism dominate much of the world around us – from the most fundamental processes in nature to cutting-edge electronic devices. Electric and magnetic fields arise from charged particles. Charged particles also feel forces in electric and magnetic fields. Maxwell’s equations, in addition to describing this behavior, also describe electromagnetic radiation. 
The three-course series comprises:
8.02.1x: Electrostatics
8.02.2x: Magnetic Fields and Forces
8.02.3x: Maxwell’s Equations
This course was organized as a three-part series on MITx by MIT’s Department of Physics and is now archived on the Open Learning Library, which is free to use. You have the option to sign up and enroll in each module if you want to track your progress, or you can view and use all the materials without enrolling.

Highly modified and expanded slides of the OpenStax University Physics Volume 1 slides with assignment prompts by Mkhitar Hobosyan, Lecturer in Physics and Astronomy at the Univeristy of Texas Rio Grande Valley.

This course introduces students to climate studies, including beginnings of the solar system, time scales, and climate in human history. It is offered to both undergraduate and graduate students with different requirements.