In the hope of solving this, some naturalists proposed a new grouping. Dubbed ‘protozoa’ or ‘protoctista’, it would consist of all those ‘indeterminate’ or ‘incomplete’ subjects, that seemed to bear no relation to anything else. But no one could agree whether it should be a class, a phylum, or a kingdom – much less what it should contain.
This left jellyfish in limbo. There were, of course, some who still believed that they were animals. In 1843, Richard Owen (1804-92) gave an exceptionally detailed description of their anatomy and argued forcefully for their inclusion in Animalia. But he struggled to explain why. He had to admit that, at certain stages in their life cycle, they actually looked more like protozoa – and when pushed, had to fall back on the ‘essentialist’ arguments of old.
No one is quite sure why the lab model failed. It’s obvious that a scenario where Xerox is paying scientists to do research that ultimately mostly benefits other firms, potentially even competitors that help to put it out of business, could never survive. Similarly, the tension between managing scientists with their own pure research goals in such a way that they produce something commercially viable, while still leaving them enough latitude to make important leaps, seems huge. But these problems were always there in the model. What is harder to identify is an exogenous shock or set of shocks that changed the situation that existed from the 1930s until somewhere between the 1960s and the 1980s.
One possibility is antitrust enforcement. From 1949 authorities pursued a case against AT&T’s Bell Labs, which ultimately resulted in the forced divestiture of their non-telecoms arms, separation from their vertically integrated manufacturing, and compulsory no-fee licensing of all 7,820 of its non-telecoms patents (1.3% of the total stock of patents in force in the USA at the time). There is evidence that this move rippled across the US economy, providing a foundation for many of the great innovations of the next fifty years. But this would be true of almost any mass patent invalidation: the monopoly restrictions of patents once they are granted are the cost we pay for the investment in innovation that came before.
People frequently ask us what high-impact research in different disciplines might look like. This might be because they’re already working in a field and want to shift their research in a more impactful direction. Or maybe they’re thinking of pursuing an academic research career and they aren’t sure which discipline is right for them.
Below you will find a list of disciplines and a handful of research questions and project ideas for each one.
They are meant to be illustrative, in order to help people who are working or considering working in these disciplines get a sense of what some attempts to approach them from a longtermist perspective might look like. They also represent projects that we think would be useful to pursue from a longtermist perspective.
In 2018, a columnist for The Guardian asked Google to give him all the data it had collected on him. The company turned over 5.5 gigabytes of information—the equivalent of three million Word documents. When I repeated this experiment in March 2020, Google informed me that I was being “tracked across fifty-one products” and that I should be patient while my data were being assembled. “This process can take a long time (possibly hours or days) to complete,” the company wrote. “You’ll receive an email when your export is done.”
Ten hours later, Google emailed to say that my “archive” was complete. When I unzipped the files, they contained 214.47 gigabytes of data, roughly equal to streaming 214 hours of movies on Netflix. As a book printed in 10-point Arial, it would be 13,893,796 pages long. The archive included all my contacts, photos, search history, purchases, call logs, and correspondence—pretty much everything I had done on the Internet from its origins to the present. Like everyone else, I had agreed to this surveillance by clicking “yes” to unread agreements that promised to “enhance your user experience.” Apart from Google, I am being tracked by a host of other companies. They scrape data from my financial transactions and then sell it back to me as my credit rating or pass it on to Bluffdale, Utah, as part of the NSA’s effort to comprehend information in its totality.
The thing to note about rice is that it is both much more productive on a per-acre basis than wheat or barley, but also much more labor intensive; it also relies on different forms of capital to be productive. Whole-grain wheat and brown rice have similar calorie and nutritional value (brown rice is somewhat better in most categories) on a unit-weight basis (so, per pound or ton), but the yield difference is fairly large: rice is typically around (very roughly) 50% more productive per acre than wheat. Moreover, rice plants have a more favorable ratio of seeds-to-plants, meaning that the demand to put away seeds for the next harvest is easier – whereas crop-to-seed ratios on pre-modern wheat range from 3:1 to 10:1, rice can achieve figures as high as 100:1. As a result, not only is the gross yield higher (that is, more tons of seed per field) but a lower percentage of that seed has to be saved for the next planting.
View and Listen
The history of universe using 13,799 dominoes.
This video from KQED’s science documentary series Deep Look offers carnivorous close-ups of the Cape sundew – a bog-dwelling plant species native to South Africa.
Everyday life in the Secretive North Korean capital
An introduction to some of the finest architects and fiercest warriors of the insect world
Interesting story on the history of air conditioning.
Cognitive scientist Douglas Hofstadter discusses about the limits of translation.