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. There is a lot we can learn from these exemplary schools.

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.

For many college students, studying the hard sciences seems out of the question. Students and professors alike collude in the prejudice that physics and molecular biology, mathematics and engineering are elite disciplines restricted to a small number with innate talent. Gregory Light and Marina Micari reject this bias, arguing, based on their own transformative experiences, that environment is just as critical to academic success in the sciences as individual ability. Making Scientists lays the groundwork for a new paradigm of how scientific subjects can be taught at the college level, and how we can better cultivate scientists, engineers, and other STEM professionals.

The authors invite us into Northwestern University’s Gateway Science Workshop, where the seminar room is infused with a sense of discovery usually confined to the research lab. Conventional science instruction demands memorization of facts and formulas but provides scant opportunity for critical reflection and experimental conversation. Light and Micari stress conceptual engagement with ideas, practical problem-solving, peer mentoring, and—perhaps most important—initiation into a culture of cooperation, where students are encouraged to channel their energy into collaborative learning rather than competition with classmates. They illustrate the tangible benefits of treating students as apprentices—talented young people taking on the mental habits, perspectives, and wisdom of the scientific community, while contributing directly to its development.

Rich in concrete advice and innovative thinking, Making Scientists is an invaluable guide for all who care about the future of science and technology.

Explore the surprising connections between math and maps—and the myriad ways they’ve shaped our world and us.

Why are coastlines and borders so difficult to measure? How does a UPS driver deliver hundreds of packages in a single day? And where do elusive serial killers hide? The answers lie in the crucial connection between math and maps.

In Mapmatics, mathematician Paulina Rowińska leads us on a journey around the globe to discover how math and maps are deeply entwined, and always have been. From a sixteenth-century map, an indispensable navigation tool that exaggerates the size of northern countries, to public transport maps that both guide and confound passengers, to congressional maps that can empower or silence whole communities, maps and math have shaped not only our sense of space but our worldview. Rowińska shows that by understanding the math behind maps, we can recognize their biases. And we can appreciate the ingenious tools mathematicians are developing to resolve them.

Written with authority and compassion, wit and unforgettable storytelling, Mapmatics is math exposition at its best. By unpacking the math underlying the maps we depend on, this book illuminates how our world works, and, ultimately, how we can better look after it.

In Masking Inequality with Good Intentions, Heather M. Falconer examines the impact of systemic bias on disciplinary discourse acquisition and identity development by asking “How do the norms and expectations of higher education and STEM, specifically, impact the development of scientific identity and discursive skill?” and “What role do societal markers like race and gender play in the negotiation of identity in STEM learning environments?”

Drawing on the experiences and writings of six students from historically underrepresented backgrounds in STEM, each participating in an undergraduate research program, Falconer discusses how programmatic and pedagogical choices can work to either further marginalize students and disrupt their writing and identity development as scientists or create counterspaces—spaces where students can thrive and push back against dominant, oppressive forces. Practical applications for pedagogy, curriculum, and program design are included.

This book is for students and practitioners of archaeology. It offers an introductory survey of all the applications of mathematical and statistical techniques to their work. These applications are increasingly concerned with computerized data classification and quantification, and their effect is to reduce the level of uncertainty in the interpretation of the evidence that time and chance have left. Any archaeologist wanting to find out what these new methods have to offer has hitherto been forced to search for information in the specialist handbooks, conference proceedings, and review articles of his own, and very often of other, disciplines. This book brings the information conveniently together, so far as it pertains to archaeology, and permits an assessment of its relevance and quality.

Those who have been daunted by the specialist knowledge apparently demanded will now be able to acquire a thorough grasp of principles and practices. Only an elementary knowledge of mathematics is presumed throughout. Part 1 provides a brief introduction to basic concepts in archaeology and mathematics. Part 2 relates the standard archaeological techniques and procedures to mathematics; it concentrates on numerical approaches best suited to archaeological practices. Part 3 examines various automatic seriation techniques and discusses further work that is coming to play an essential part in the development of archaeology.

For seven years, Paul Lockhart’s A Mathematician’s Lament enjoyed a samizdat-style popularity in the mathematics underground, before demand prompted its 2009 publication to even wider applause and debate. An impassioned critique of K–12 mathematics education, it outlined how we shortchange students by introducing them to math the wrong way. Here Lockhart offers the positive side of the math education story by showing us how math should be done. Measurement offers a permanent solution to math phobia by introducing us to mathematics as an artful way of thinking and living.

In conversational prose that conveys his passion for the subject, Lockhart makes mathematics accessible without oversimplifying. He makes no more attempt to hide the challenge of mathematics than he does to shield us from its beautiful intensity. Favoring plain English and pictures over jargon and formulas, he succeeds in making complex ideas about the mathematics of shape and motion intuitive and graspable. His elegant discussion of mathematical reasoning and themes in classical geometry offers proof of his conviction that mathematics illuminates art as much as science.

Lockhart leads us into a universe where beautiful designs and patterns float through our minds and do surprising, miraculous things. As we turn our thoughts to symmetry, circles, cylinders, and cones, we begin to see that almost anyone can “do the math” in a way that brings emotional and aesthetic rewards. Measurement is an invitation to summon curiosity, courage, and creativity in order to experience firsthand the playful excitement of mathematical work.