Books can be like buses: nothing is written on a topic for ages and then two books appear in quick succession. The subtitle of Life as We Made It resembles that of the recently-reviewed Life Changing. Both books indeed cover the same topic: how humans have shaped the genetics and evolution of plants and animals around them. Despite some inevitable overlap, Beth Shapiro draws on two decades of her career as a geneticist to make Life as We Made It a beast all of its own. I found myself both thoroughly enjoying her fantastic science communication while disagreeing with her outlook.
Understanding the eye is only the first step to understanding how we see. Vision is as much about perceiving, which means understanding how the brain works. We Know It When We See It is the swansong of neuroscientist and ophthalmologist Richard Masland, who passed away in December 2019. His research career spanned over four decades and he was lauded internationally for his work on retinal neurobiology. In this book, his love for teaching shines through, and it was a pleasure to join him on one last trip through the neurobiology of vision.
In his previous book, Beyond Words, ecologist Carl Safina convinced his readers of the rich inner lives of animals. Just like we do, they have thoughts, feelings, and emotions. But the similarities do not stop there. Becoming Wild focuses on animal culture, the social knowledge that is transmitted between individuals and generations through sharing and learning. The more we look, the more animals seem less different from us – or we from them. On top of that, Safina puts forward several eye-opening and previously-overlooked implications of animal culture.
How do you predict something that has never happened before? That is the question heading this book. And as it so happens, there is an app formula for that. Purportedly a book about Bayes’s theorem, author William Poundstone quickly latches onto the doomsday argument and whizzes the reader through a mishmash of thought experiments and philosophical puzzles that try to answer the question how long humans will survive.
The history of life is punctuated by major transitions and inventions: fish that moved onto land, reptiles that turned into birds. But how did these happen? In Some Assembly Required, Professor of Organismal Biology and Anatomy Neil Shubin provides an up-to-date and utterly engrossing account of the latest thinking on the great transformations in evolution. And he has one clue for you: nothing ever begins when you think it does…
Back in 2014, evolutionary biologist Andreas Wagner blew my mind. His book Arrival of the Fittest: Solving Evolution’s Greatest Puzzle gave fascinating answers to the question of where evolutionary innovations come from. I will say more about it below, but in short, there are many ways to solve a problem. But, as Life Finds a Way shows, not all solutions are equally good. To evolve from a suboptimal solution to a superior one usually involves several steps through intermediary solutions that are even worse, something that natural selection acts against. So how does evolution overcome such obstacles? And what does the answer have to do with human creativity? Can we apply these ideas further afield in education or economics? And is this book going to be as good as his last one? So many questions…
If the will of the people can put a loose cannon like Donald Trump in charge of the USA, or lead to the ongoing car crash that is the Brexit, asking whether democracy can work seems like a timely question. But to think that our times signify an unprecedented crisis is to ignore its long history. Professor of Politics and Liberal Studies James Miller here provides an excellent introduction to the long and spotty track record of democratic governance, showing that it continues to be an ongoing experiment.
When it comes to social insects, ants and bees get all the love. But, if you pardon the pun of the book’s title, termites are a bit of an underbug. While finishing up a previous writing assignment, author Lisa Margonelli got on the trail of the termite sometime in 2008 and spend the next decade obsessing over them. Tailing various scientists and sitting in on their day-to-day work, she here spins a wide-ranging tale about termites and the research they have inspired. The result is a hypnotic book that ranges well beyond this humble insect.
DNA has lodged itself in the public imagination as the “blueprint” of life and as other, often slightly deceiving, metaphors. But what happens next? How do organisms actually get anything done with the information coded in DNA? For biologists, this is standard textbook fare: DNA is copied into single-stranded RNA which is then translated, three letters at a time, into amino acids that, when strung together, make up the workhorses of the cell: proteins. The cell organ, or organelle, that does the latter part is the ribosome, which Venki Ramakrishnan introduces here in Gene Machine. He has written a riveting first-hand account of the academic race to describe its structure, and how, in the process, he bagged a shared Nobel Prize in Chemistry in 2009.
If you have used a compass, you will know our planet has a magnetic North and South pole. You might even be aware that the geographical and magnetic poles are not exactly in the same location. The magnetic poles have a tendency to wander with time. They can even swap places, and we have evidence of a long history of such geomagnetic reversals in the rock record. But how does this happen? And what would the consequences be if this happened today? Earth’s magnetic field offers protection against radiation from outer space, primarily from the sun, so if this field weakens or changes, what will happen to us and our electrical infrastructure? Join science journalist Alanna Mitchell as she explores this topic and delves into the history of electromagnetism.