Sputnik to Smartphones: A Half-Century of Chemistry Education

From satellite broadcasting to the present, amazing technological progress will influence how teachers provide chemistry, how students learn chemistry, and how American students and junior high schools evaluate student performance It was. These advances have been made by providing relatively inexpensive, high-speed, high-capacity computers. Computer chips lead us to digital environments that chemistry educators are beginning to use from print media. Students who have taken classes using textbooks, notes and slides can see laptop computers, tablets and smartphones that write projector images on chalkboard using chalk. In the current classroom environment, chemistry is taught on a white board or smart board and teachers use mobile devices to talk with students. Today's classroom is more interactive and attractive than ever for technical reasons. In the past, written issues were sometimes scored on a regular basis in a day or so. Today, students use complex courses for online tasks that instantly provide feedback to students, solve student misunderstandings and assign grades to homework. The official evaluation of the student 's task waiting for the first written exam is currently being done everyday. These homework courses are currently being adapted to each student 's follow - up to various learning paths based on the continuing evaluation of the students. In the future, with adaptive learning, teachers will be able to provide chemistry education more effectively to students with poor preparation and students with enhanced background.

However, these technologically promoted advances have caused new problems. Information obtained from the Chemistry and Physics Handbook or library research for hours can be found on the World Wide Web in just a few minutes. However, when compared with the journaling journal, defective information is frequently displayed on the website. Without guidance, students can not identify the information they found on the Web. Likewise, it is naïve that students are familiar with the content of classroom related materials published on the Internet. Ethical problems including placement and plagiarization of proprietary information on the site are becoming more frequent. In addition, students are addicted to technology-driven social media. It may be a big obstacle in their educational pursuit. Another negative factor is the cost of using advanced technology for education and the impact it has on the student's debt.

This chapter is the author's personal consideration, and his academic record covers the satellite's time range to date. This chapter provides an overview of the skeletal history of how chemistry affects chemical education and issues related to technology by providing new tools for content delivery, learning and performance evaluation .

After the Soviet Union launched its satellite in 1957, the concept that all students' academic achievements should be the primary goal of K-12 education has become a reality only in the past half a century It is amazing. Prior to the launch of the artificial satellite, American schools focused on improving students' grades in mathematics, reading, science, and foreign languages, but instead focused on "life adjustment education" on family economics, vocational training, We offered many courses. A half century ago, a relatively small elite student group graduated from high school and went on to a four - year university. Prior to NCLB 's announcement in 2002, the academic outcome never eventually became a fulcrum of educational policy, but NCLB is a rare example with appropriate title. For the first time, the federal government requires all states to get everything

From satellite broadcasting to the present, amazing technological progress has influenced the way teachers provide chemistry, how students learn chemistry, and how American students and junior high schools appreciate student performance . These advances have been made by providing relatively inexpensive, high-speed, high-capacity computers. Computer chips lead us to digital environments that chemistry educators are beginning to use from print media. Students who have taken classes using textbooks, notes and slides can see laptop computers, tablets and smartphones that write projector images on chalkboard using chalk. In the current classroom environment, chemistry is taught on a whiteboard or smart board, and teachers use mobile devices to talk with students.