Faculty Summer Care Package 2021: New Books

They're not the students strolling across the bucolic liberal arts campuses where their grandfathers played football. They are first-generation college students-children of immigrants and blue-collar workers-who know that their hopes for success hinge on a degree. But college is expensive, unfamiliar, and intimidating. Rebecca D. Cox draws on five years of interviews and observations at community colleges, where she shows how students and their instructors misunderstand and ultimately fail one another, despite good intentions. Eye-opening even for experienced faculty and administrators, The College Fear Factor reveals how the traditional college culture can actually pose obstacles to students' success, and suggests strategies for effectively explaining academic expectations.

Deep work is the ability to focus without distraction on a cognitively demanding task. Most people have lost the ability to go deep--spending their days instead in a blur of e-mail and social media, not even realizing there's a better way. In Deep Work, author and professor Cal Newport flips the narrative on impact in a connected age. Instead of arguing distraction is bad, he instead celebrates the power of its opposite. He makes the case that in almost any profession, cultivating a deep work ethic will produce massive benefits. A mix of cultural criticism and actionable advice, Deep Work takes the reader on a journey through memorable stories-from Carl Jung building a stone tower in the woods to focus his mind, to a social media pioneer buying a round-trip business class ticket to Tokyo to write a book free from distraction in the air-and no-nonsense advice, such as the claim that most serious professionals should quit social media and that you should practice being bored. Deep Work is an indispensable guide to anyone seeking focused success in a distracted world.

STEM disciplines are believed to be founded on the idea of meritocracy; recognition earned by the value of the data, which is objective. Such disciplinary cultures resist concerns about implicit or structural biases, and yet, year after year, scientists observe persistent gender and racial inequalities in their labs, departments, and programs. In Equity in Science, Julie Posselt makes the case that understanding how field-specific cultures develop is a crucial step for bringing about real change. She does this by examining existing equity, diversity, and inclusion efforts across astronomy, physics, chemistry, geology, and psychology. These ethnographic case studies reveal the subtle ways that exclusion and power operate in scientific organizations and, sometimes, within change efforts themselves. Posselt argues that accelerating the movement for inclusion in science requires more effective collaboration across boundaries that typically separate people and scholars--across the social and natural sciences, across the faculty-student-administrator roles, and across race, gender, and other social identities. Ultimately this book is a call for academia to place equal value on expertise, and on those who do the work of cultural translation. Posselt closes with targeted recommendations for individuals, departments, and disciplinary societies for creating systemic, sustainable change.

Even on good days, teaching is a challenging profession. One way to make the job of college instructors easier, however, is to know more about the ways students learn. How Humans Learn aims to do just that by peering behind the curtain and surveying research in fields as diverse as developmental psychology, anthropology, and cognitive neuroscience for insight into the science behind learning. The result is a story that ranges from investigations of the evolutionary record to studies of infants discovering the world for the first time, and from a look into how our brains respond to fear to a reckoning with the importance of gestures and language. Joshua R. Eyler identifies five broad themes running through recent scientific inquiry--curiosity, sociality, emotion, authenticity, and failure--devoting a chapter to each and providing practical takeaways for busy teachers. He also interviews and observes college instructors across the country, placing theoretical insight in dialogue with classroom experience.

Why teach science? The answer to that question will determine how it is taught. Yet despite the enduring belief in this country that science should be taught, there has been no enduring consensus about how or why. This is especially true when it comes to teaching scientific process. Nearly all of the basic knowledge we have about the world is rock solid. The science we teach in high schools in particular is accepted as the way nature works. Everyone also agrees that students and the public more generally should understand the methods used to gain this knowledge. But what exactly is the scientific method? Ever since the late 1800s, scientists and science educators have grappled with that question. Through the years, they've advanced an assortment of strategies, ranging from the laboratory method to the five-step method to science as inquiry to no method at all. How We Teach Science reveals that each strategy was influenced by the intellectual, cultural, and political circumstances of the time. In some eras, learning about experimentation and scientific inquiry was seen to contribute to an individual's intellectual and moral improvement, while in others it was viewed as a way to minimize public interference in institutional science. John Rudolph shows that how we think about and teach science will either sustain or thwart future innovation, and ultimately determine how science is perceived and received by the public.

Americans have access to some of the best science education in the world, but too often black students are excluded from these opportunities. This essential book by leading voices in the field of education reform offers an inspiring vision of how America's universities can guide a new generation of African Americans to success in science. Educators, research scientists, and college administrators have all called for a new commitment to diversity in the sciences, but most universities struggle to truly support black students in these fields. Historically black colleges and universities (HBCUs) are different, though. Marybeth Gasman, widely celebrated as an education-reform visionary, and Thai-Huy Nguyen show that many HBCUs have proven adept at helping their students achieve in the sciences. Gasman and Nguyen explore ten innovative schools that have increased the number of black students studying science and improved those students' performance. Educators on these campuses have a keen sense of their students' backgrounds and circumstances, familiarity that helps their science departments avoid the high rates of attrition that plague departments elsewhere. The most effective science programs at HBCUs emphasize teaching when considering whom to hire and promote, encourage students to collaborate rather than compete, and offer more opportunities for black students to find role models among both professors and peers. Making Black Scientists reveals the secrets to these institutions' striking successes and shows how other colleges and universities can follow their lead. The result is a bold new agenda for institutions that want to better serve African American students.

A generation of research has provided a new understanding of how the brain works and how students learn. David Gooblar offers scholars at all levels a practical guide to the state of the art in teaching and learning. His insights about active learning and the student-centered classroom will be valuable to instructors in any discipline, right away.

In Shaping Science, Janet Vertesi draws on a decade of immersive ethnography with NASA's robotic spacecraft teams to create a comparative account of two great space missions of the early 2000s. Although these missions featured robotic explorers on the frontiers of the solar system bravely investigating new worlds, their commands were issued from millions of miles away by a very human team. By examining the two teams' formal structures, decision-making techniques, and informal work practices in the day-to-day process of mission planning, Vertesi shows just how deeply entangled a team's local organizational context is with the knowledge they produce about other worlds. Using extensive, embedded experiences on two NASA spacecraft teams, this is the first book to apply organizational studies of work to the laboratory environment in order to analyze the production of scientific knowledge itself. Engaging and deeply researched, Shaping Science demonstrates the significant influence that the social organization of a scientific team can have on the practices of that team and the results they yield.

Collaborations that integrate diverse perspectives are critical to addressing many of our complex scientific and societal problems. Yet those engaged in cross-disciplinary team science often face institutional barriers and collaborative challenges. Strategies for Team Science Success offers a comprehensive set of actionable strategies for reducing barriers and overcoming challenges and includes practical guidance for how to implement effective team science practices.

Elegant ideas deserve elegant expression. Sword dispels the myth that you can't get published without writing wordy, impersonal prose. For scholars frustrated with disciplinary conventions or eager to write for a larger audience, here are imaginative, practical, witty pointers that show how to make articles and books enjoyable to read--and to write.

Thoroughly revised and updated, this fourth edition of the classic hands-on resource offers a comprehensive review of all the facets developing teaching portfolios. This new edition will contain new perspectives and ideas; an expanded section on web-based electronic teaching portfolios ; a sample of colleges and universities that shows how they have implemented portfolios; real-world teaching portfolios of twenty-one faculty members and a report from a university provost on what he looks for in a portfolios submitted for promotion

Science and art have something very important in common: they both seek to reduce something infinitely complex to something simpler. Using examples from diverse areas including microscopy, brain injury, classical art, and data visualization, the book delves into the history of the intersection of these two disciplines, before considering current tensions between the fields. The emerging field of neuroaesthetics and its attempts to scientifically understand what humans find beautiful is also explored, suggesting ways in which the relationship between art and science may return to a more co-operative state in the future. Why Science Needs Art provides an essential insight into the relationship between art and science in an appealing and relevant way.

As a scientist, you are a professional writer: your career is built on successful proposals and papers. Success isn't defined by getting papers into print, but by getting them into the reader's consciousness. Writing Science is built upon the idea that successful science writing tells a story. Integrating lessons from other genres of writing with those from the author's years of experience as author, reviewer, and editor, the book shows scientists and students how to present their research in a way that is clear and that will maximize reader comprehension. The book takes an integrated approach, using the principles of story structure to discuss every aspect of successful science writing. The book targets the internal structure of a paper, explaining how to write clear and professional sections, paragraphs, and sentences in a way that is clear and compelling. The ideas within a paper should flow seamlessly, drawing readers along. The final section of the book deals with special challenges, such as how to discuss research limitations and how to write for the public. Writing Science is a much-needed guide to succeeding in modern science. Its insights and strategies will equip science students, scientists, and professionals across a wide range of scientific and technical fields with the tools needed to communicate effectively.