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It is trite but true: kids grow up so fast. In this course we will discuss the incredible growth of infants, toddlers, and children in multiple domains (physical, cognitive, emotional/social). We will discover how growth in each domain affects the others. We will explore enduring topics of discourse in child development, such as nature and nurture, individual differences, and the nature of change.
How do cognitive neuroscientists examine words and word meanings? What are the different ways we can remember words, such as definitions (鈥減ollo鈥, 鈥渏i鈥, 鈥渃hicken鈥) and lyrics, and how do words work in our brains? Why do we sometimes struggle to remember a word that comes to mind easily later on? Are words and images stored together or separately in our brains? These questions and more will be addressed in this course, after an overview of the central nervous system.
How have psychologists defined feelings over the years, and how is the field continuing to change? We will begin with the 19th Century, when scientists like Wundt and Charcot brought human perception and mental health symptoms out of the realm of metaphysics. After briefly considering Darwin鈥檚 view of emotion and new perspectives on artwork from early asylums, we will evaluate emotion as featured in two central debates from the 20th Century: (1) the psychodynamic approach of Freud, one of Charcot鈥檚 students, versus humanism and (2) the behaviorists鈥 broad rejection of feelings a
Chemistry 3 focuses on the nature and pathways of organic reactions: what the steps are, how we experimentally determine them, and how we can use them to solve practical problems, such as the synthesis of a drug, or understanding the action of an enzyme. Emphasis will be using the general principles of nucleo- and and electrophilicity to provide a logical framework for understanding substitution, addition, elimination and reactions involving carbonyl groups. Chemical kinetics will also be a topic of study because of the insights it provides for reaction mechanisms.
This course is the first of a four-course chemistry sequence covering general, organic and biochemistry. Students do not need to take the entire sequence. We will focus on introductory chemical principles, including atomic theory, classical and quantum bonding concepts, molecular structure, organic functional groups, and the relationship between structure and properties. The class will have lecture/discussion meetings at which we will critically examine the major concepts of reading assignments, discuss articles, and review some of the current developments of the field.
In this class we will explore the art and practice of scientific communication. This course is inspired by the work of Edward Tufte as well as a lifetime of experience in scientific research and presentation. Our aim is to learn how to create elegant explanations of complex ideas using pictures, charts, numbers and words. We will analyze and produce displays for use in journalism, research publications and scientific presentations, as well as other art forms that inspire multifaceted understanding.
Scanning electron microscopes are a fundamental tool in the physical and life sciences. When equipped with an X-Ray spectrometer, a SEM can provide rapid physical and chemical data of specimens on extremely small scales. This class with cover the theory and practical applications of SEM imaging and analysis for advanced science students who have their own research interests. Students will be expected to develop and conduct an independent research project through this class.
鈥I, at least, am not a Marxist鈥&苍产蝉辫;Karl Marx