Breaking Down the Barriers to Serendipity Life is what happens to us while we are making other plans. ALLEN SAUNDERS, AMERICAN WRITER, JOURNALIST, AND CARTOONIST.

Good luck isn’t just chance—it can be learned and leveraged—and The Serendipity Mindset explains how you can use serendipity to make life better at work, at home—everywhere. Many of us believe that the great turning points and opportunities in our lives happen by chance, that they’re out of our control. Often we think that successful people—and successful companies and organizations—are simply luckier than the rest of us. Good fortune—serendipity—just seems to happen to them. Is that true? Or are some people (...) better at creating the conditions for coincidences to arise and taking advantage of them when they do? How can we connect the dots of seemingly random events to improve our lives? In The Serendipity Mindset, Christian Busch explains that serendipity isn’t about luck in the sense of simple randomness. It’s about seeing links that others don’t, combining these observations in unexpected and strategic ways, and learning how to detect the moments when apparently random or unconnected ideas merge to form new opportunities. Busch explores serendipity from a rational and scientific perspective and argues that there are identifiable approaches we can use to foster the conditions to let serendipity grow. Drawing from biology, chemistry, management, and information systems, and using examples of people from all walks of life, Busch illustrates how serendipity works and explains how we can train our own serendipity muscle and use it to turn the unexpected into opportunity. Once we understand serendipity, Busch says, we become curators of it, and luck becomes something that no longer just happens to us—it becomes a force that we can grasp, shape, and hone. Full of exciting ideas and strategies, The Serendipity Mindset offers a clear blueprint for how we can cultivate serendipity to increase innovation, influence, and opportunity in every aspect of our lives. (shrink)

Cognitive studies of science and technology have had a long history of largely independent research projects that have appeared in multiple outlets, but rarely together. The emergence of a new International Society for Psychology of Science and Technology suggests that this is a good time to put some of the latest work in this area into topiCS in a way that will both acquaint readers with the cutting edge in this domain and also give them a hint of its history. (...) One core theme includes how scientists, inventors, and engineers represent and solve problems; another, related theme is the extent to which they distribute and share cognition. Methodologies include fine‐grained studies of historical records, protocols of working scientists, observations and comparisons of engineering science laboratories, and computational simulations designed both to serve as research tools and also to improve scientific problem‐solving. The series of articles will conclude with the Associate Editor’s suggestions for future research. (shrink)

Recent research has shown a memory advantage for minimally counterintuitive concepts, over concepts that are either intuitive or maximally counterintuitive, although the general result is heavily affected by context. Items from one such study were given to subjects who were asked to create novel stories using at least three concepts from a list containing all three types. Results indicated a preference for using MCI items, and further disclosed two styles of usage, an accommodative style and an assimilative style. The results (...) extend recent memory research and suggest extensions to recent theories intended to explain the prevalence of counterintuitive religious concepts. (shrink)

The important role of mathematical representations in scientific thinking has received little attention from cognitive scientists. This study argues that neglect of this issue is unwarranted, given existing cognitive theories and laws, together with promising results from the cognitive historical analysis of several important scientists. In particular, while the mathematical wizardry of James Clerk Maxwell differed dramatically from the experimental approaches favored by Michael Faraday, Maxwell himself recognized Faraday as “in reality a mathematician of a very high order,” and his (...) own work as in some respects a re‐representation of Faraday’s field theory in analytic terms. The implications of the similarities and differences between the two figures open new perspectives on the cognitive role of mathematics as a learned mode of representation in science. (shrink)

The sciences use a wide range of visual devices, practices, and imaging technologies. This diversity points to an important repertoire of visual methods that scientists use to adapt representations to meet the varied demands that their work places on cognitive processes. This paper identifies key features of the use of visualization in a range of scientific domains and considers the implications of this repertoire for understanding scientists as cognitive agents.