This book provides a concise and inexpensive introduction for an undergraduate course in glass science and technology. The level of the book has deliberately been maintained at the introductory level to avoid confusion of the student by inclusion of more advanced material, and is unique in that its text is limited to the amount suitable for a one term course for students in materials science, ceramics or inorganic chemistry. The contents cover the fundamental topics of importance in glass science and technology, including glass formation, crystallization, phase separation and structure of glasses. Additional chapters discuss the most important properties of glasses, including discussion of physical, optical, electrical, chemical and mechanical properties. A final chapter provides an introduction to a number of methods used to form technical glasses, including glass sheet, bottles, insulation fibre, optical fibres and other common commercial products. In addition, the book contains discussion of the effects of phase separation and crystallization on the properties of glasses, which is neglected in other texts. Although intended primarily as a textbook, Introduction to Glass Science and Technology will also be invaluable to the engineer or scientist who desires more knowledge regarding the formation, properties and production of glass.
This textbook provides in-depth treatment of all systems associated with wind energy, including the aerodynamic and structural aspects of blade design, the flow of energy and loads through the wind turbine, the electrical components and power electronics including control systems. It explains the importance of wind resource assessment techniques, site evaluation and ecology and describes the integration of wind farms into the electrical grid. The reader will also become familiar with the offshore technology, the youngest and most promising aspect of wind energy.
A new textbook, Introduction to Quantum Nanotechnology: A Problem Focused Approach, published by Oxford University Press, helps students prepare to be part of the quantum revolution by providing the technical background to work in a field that has emerged as a game-changer in technology.
There are four things happening in quantum that are ensuring its impact on future technology, says Duncan Steel, who authored the textbook. They are: superposition, which is key to quantum computing; the ability to create artificial atoms; quantum entanglement; and ultra-sensitive measurements thanks to single quantum optics, or quantum dots.
Steel had taught the graduate level courses Applied Quantum Mechanics I and II since arriving at Michigan in 1985, and later added the advanced graduate courses Quantum Theory of Light, and Topics in Quantum Optics.
The course is suitable for students from many different specialties, and has already attracted students from the departments of Electrical Engineering and Computer Science, Mechanical Engineering, Materials Science and Engineering, and Climate & Space Sciences & Engineering.
His research focuses on the use of coherent optical interactions to study, control, and manipulate the quantum properties of semiconductor heterostructures. His research group is examining these structures as quantum devices for application to quantum computing.
Steel is a Guggenheim Fellow, and recipient of the APS Frank Isakson Prize for outstanding optical research. He received the U-M Distinguished Graduate Mentor Award, and has worked to advance minority students in STEM. He is a Fellow of the Optical Society of America, the American Physical Society, and the IEEE.
The teacher candidate will be acquainted with the role of public and private education and the nature of the teaching profession. Attention will be given to current developments in the field of education and the terminology basic to those in the profession. Teacher candidates will focus on the effective use of technology in learning environments, with special attention to instructional practice, assessment development and student engagement. Each teacher candidate will be required to prepare for structured observations in the school setting.
The candidate will use this course to guide his/her professional choice in following the teaching profession. This course will present some actual career decisions that teachers must face. The candidate will be exposed to knowledge relative to the professional exams required for entrance into the programs as well as licensure requirements. This course seeks to assist in fostering the aims of the institution in developing competencies in writing, speaking, and reading. Further, this course will introduce the candidate to the extensive field of educational technology. Topics covered in this course will be areas that impact or have the potential to impact educators working in the classroom environment. Special emphasis will be placed on constructing relevant and appropriate instructional environments.
The candidate will draw a picture of themselves teaching. The picture should include clipart, graphics, and portray their classroom arrangement. The candidate will answer questions in two reflective paragraphs based on their drawing to describe their ideas on teaching. (CLO: B)
The candidate will identify 10 different tools (hardware, apps, and software) that could be used to support technology integration in the classroom for teaching, learning, research, and communication. The tools should come from the textbook, course videos, or other sources. The chart will include a description of the tool, (hardware, app, or software), pros and cons, and how it would be used in the classroom. (CLO: C)
The candidate will identify 5 different tools (hardware, apps, and software) that could be used to support technology integration in the classroom for teaching, learning, research, and communication. The tools should come from the textbook, course videos, or other sources. The chart will include a description of the tool, (hardware, app, or software), pros and cons, and how it would be used in the classroom. The candidate will reflect on the tools chosen and begin to choose tools to use for the technology application project. (CLO: C)
The candidate will attend 1 professional development activity that takes place in the duration of the course. These can be meetings, events, or learning experiences related specifically to the broad field of education. As part of a submission for this assignment, the candidate will reflect on the event and tie it to course learning. The reflection must be at least two pages. (CLO: A)
The candidate will choose two of the tools referenced on the technology tools chart to create two resources to match a subject of their choice. Elementary and Special Education candidates must choose one of the four core areas: Math, Reading, Social Science, or Science. Secondary candidates may use the subject they are pursuing. The candidate will create one activity and one assessment to be used in instruction on the content topic of choice. (CLO: D, E)
Each quiz will cover the Learn material for the assigned Module: Week. Each quiz will be open-book/open-notes; seven quizzes will contain 25 multiple-choice and true/false questions and one quiz will contain 10 multiple-choice and true/false questions. (CLO: A, B, D, E)
As technology advances, so does the classroom. Technology in early childhood education was very different 10-20 years ago; teachers would interact with the tech and children would observe. Now, toddlers and preschoolers can interact with technology. Interactive media, used on smart devices such as phones, televisions, tablets, and gaming systems, give young children the ability to participate and guide themselves through learning.
Technology in early childhood education has transformed over the last 50 years. At first, televisions were used to strengthen lessons and capture the interest of students. Then, televisions would graduate to personal computers and smart technology through phones, tablets, and apps.
In early childhood education, technology can be a tool to facilitate learning. In conjunction with interactive media, it plays a large role in guiding the development of young children. It enables them to play, express themselves, and cultivate their skills in a safe, engaging way.
Still, concerns are typically raised regarding technology, interactive media, and early childhood education. Some public health organizations and child advocacy groups concerned with child development and health issues, such as obesity, have recommended that passive, non-interactive technology and screen media not be used in early childhood programs.
Incorporating technology into your children's development and education plan also enables you to create lessons for multiple learning styles. Visual learners can use smart boards or tablets to draw pictures and look at other visual aids, while reading/writing learners can use the same media to absorb information or write down ideas. Music streaming platforms or audiotapes can be helpful for auditory learners. As for tactile or kinesthetic learners, these young children can learn by acting out a scene they saw in a video or using interactive media on smart technology devices.
When introducing technology to the classroom, you have many options. You now have access to smart devices that feature apps, digital books, games, and more. With the abundance of technology, how can you manage it? How do you decide when, how much, and how often to use it?
You might ask: How does this help children learn, engage, express, imagine, or explore? What kinds of social interactions (such as conversations with parents or peers) happen before, during, and after using the technology? What does this child need right now to enhance their growth and development?
The learning opportunities go beyond the words in a textbook and can introduce children to information and cultures beyond their classroom and community. Technology allows you to present diversity to young learners, for example, by exposing them to different types of people, music, and family structures.
c80f0f1006