Posts Tagged ‘Frederick Banting’
“We may say most aptly that the Analytical Engine weaves algebraical patterns just as the Jacquard loom weaves flowers and leaves”*…
Lee Wilkins on the interconnected development of digital and textile technology…
I’ve always been fascinated with the co-evolution of computation and textiles. Some of the first industrialized machines produced elaborate textiles on a mass scale, the most famous example of which is the jacquard loom. It used punch cards to create complex designs programmatically, similar to the computer punch cards that were used until the 1970s. But craft work and computation have many parallel processes. The process of pulling wires is similar to the way yarn is made, and silkscreening is common in both fabric and printed circuit board production. Another of my favorite examples is rubylith, a light-blocking film used to prepare silkscreens for fabric printing and to imprint designs on integrated circuits.
Of course, textiles and computation have diverged on their evolutionary paths, but I love finding the places where they do converge – or inventing them myself. Recently, I’ve had the opportunity to work with a gigantic Tajima digital embroidery machine [see above]. This room-sized machine, affectionately referred to as The Spider Queen by the technician, loudly sews hundreds of stitches per minute – something that would take me months to make by hand. I’m using it to make large soft speaker coils by laying conductive fibers on a thick woven substrate. I’m trying to recreate functional coils – for use as radios, speakers, inductive power, and motors – in textile form. Given the shared history, I can imagine a parallel universe where embroidery is considered high-tech and computers a crafty hobby…
Notes, in @the_prepared.
* Ada Lovelace, programmer of the Analytical Engine, which was designed and built by her partner Charles Babbage
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As we investigate intertwining, we might recall that it was on this date in 1922 that Frederick Banting and Charles Best announced their discovery of insulin the prior year (with James Collip). The co-inventors sold the insulin patent to the University of Toronto for a mere $1. They wanted everyone who needed their medication to be able to afford it.
Today, Banting and his colleagues would be spinning in their graves: their drug, one on which many of the 30 million Americans with diabetes rely, has become the poster child for pharmaceutical price gouging.
The cost of the four most popular types of insulin has tripled over the past decade, and the out-of-pocket prescription costs patients now face have doubled. By 2016, the average price per month rose to $450 — and costs continue to rise, so much so that as many as one in four people with diabetes are now skimping on or skipping lifesaving doses…
Best (left) and Bantling with with one of the diabetic dogs used in their experiments with insulin
“If locusts are ravenous sociopaths, cicadas are more like frat boys – clumsy, loud, and obsessed with sex”*…
… and they are, themselves, the object of other species’ obsessions…
This spring’s emergence of periodical cicadas in the eastern U.S. will make more than a buzz. Their bodies—which will number in the billions—will also create an unparalleled food fest for legions of small would-be predators, including many birds and mammals. But some animals may benefit more than others, and any boost predator populations get from the coming buffet of winged insects will likely be short-lived, researchers say.
Tiny chickadees and mice have been known to wrestle these chunky bugs for a quick snack. Raptors, fish, spiders, snakes and turtles will gulp them down when given the chance. Captive zoo animals, such as meerkats, monitor lizards and sloth bears, will do so as well if the insects show up in their enclosure. Observers have even reported seeing domestic cats trap two cicadas at once, one under each forepaw.
This spring, three species of cicadas (collectively referred to as Brood X or Brood 10) will crawl out of the ground where they have spent the previous 17 years. They will coat the limbs and leaves of trees, sing, mate, lay eggs and then die. Uneaten corpses and body parts will add nutrients to the soil, bolstering the ecosystem and its denizens long after the boisterous insects disappear. But the famous periodicity of cicada broods can set some predators up for feast-then-famine scenarios—population booms followed by food insecurity and then sudden drops in numbers.
“In response to this superabundance of food, a lot of the predator populations have outrageously good years,” says Richard Karban, a University of California, Davis, entomologist who studies periodical cicadas. “But then the next year, and in the intervening years, there’s no food for them, so their populations crash again.”
Predators could be part of the reason that these slow-flying, defenseless and colorful cicadas emerge periodically instead of perennially. Over millennia, synchronized periodic emergences as a dense mob could have led to higher adult survival rates. Thus, the insects evolved to adopt their unusual life cycle—most of which is spent feeding underground—explains University of Connecticut evolutionary biologist and ecologist Chris Simon, who studies cicadas. “The predators are really important in driving the whole story,” she says. The success of the species effectively banks on sheer volume…
Most bird species do not travel to take advantage of cicada emergences… They live and eat in the same areas year after year, picking off the insects opportunistically instead of traveling to the cicada motherlode… cuckoos are an exception: they migrate to take advantage of insect outbreaks all over the country…
Despite all the eager predators, the life-cycle gamble on high-volume emergences pays off for periodical cicadas. Most survive predation to mate and then drop dead to the forest floor. But even if they go uneaten, their ecosystem impact does not stop there. Cicada bodies contain about 10 percent nitrogen, which is more than the concentration found in dead leaves and other typical forest litter, says Louie Yang, a University of California, Davis, entomologist, who studies resource pulses and phenological shifts. Plants such as American bellflowers will take up the nitrogen from the dead cicadas, and herbivorous mammals and insects will selectively feed on the higher-nitrogen fertilized leaves, he adds.
Patterns such as this one illustrate the ecological lens that periodical cicadas can provide on biological communities and evolutionary timelines. “I love the reciprocity of the whole system,” Yang says. “I think this kind of stuff happens all the time, but it’s usually hard to see. When these pulse events happen, it makes it really obvious—we can see that pulse pass through the system.”…
Billions of emerging insects will likely trigger predator population surges: “Brood X Cicadas Could Cause a Bird Baby Boom.”
Oh, and given climate change, 17-year cicadas could become 13-year cicadas: “The cicadas are coming. And they’re changing dramatically.”
* Catherine Price, 101 Places Not to See Before You Die
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As we bear the buzz, we might recall that it was on this date in 1923 that insulin became publicly available for use by diabetics. Frederick Banting had discovered insulin in 1921, and refused to put his name on the patent. He felt it was unethical for a doctor to profit from a discovery that would save lives. He and his co-inventors, James Collip and Charles Best, sold the insulin patent to the University of Toronto for a mere $1. They wanted everyone who needed their medication to be able to afford it.
Today, Banting and his colleagues would be spinning in their graves: Their drug, which many of the 30 million Americans with diabetes rely on, has become the poster child for pharmaceutical price gouging.
The cost of the four most popular types of insulin has tripled over the past decade, and the out-of-pocket prescription costs patients now face have doubled. By 2016, the average price per month rose to $450 — and costs continue to rise, so much so that as many as one in four people with diabetes are now skimping on or skipping lifesaving doses…
“Gain not base gains; base gains are the same as losses”*…
When inventor Frederick Banting discovered insulin in 1921, he refused to put his name on the patent. He felt it was unethical for a doctor to profit from a discovery that would save lives. Banting’s co-inventors, James Collip and Charles Best, sold the insulin patent to the University of Toronto for a mere $1. They wanted everyone who needed their medication to be able to afford it. [see here]
Today, Banting and his colleagues would be spinning in their graves: Their drug, which many of the 30 million Americans with diabetes rely on, has become the poster child for pharmaceutical price gouging.
The cost of the four most popular types of insulin has tripled over the past decade, and the out-of-pocket prescription costs patients now face have doubled. By 2016, the average price per month rose to $450 — and costs continue to rise, so much so that as many as one in four people with diabetes are now skimping on or skipping lifesaving doses…
Why Americans ration a drug discovered– and given free to the world– in the 1920s: “The absurdly high cost of insulin, explained.”
* Hesiod (See also Proverbs 28:20: “he that maketh haste to be rich shall not be innocent”)
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As we ponder pleonexia, we might send healing birthday greetings to Edward Lawrie Tatum; he was born on this date in 1909. A geneticist, he shared half of the Nobel Prize in Physiology or Medicine in 1958 with George Beadle for showing that genes control individual steps in metabolism. During World War II, his work was of use in maximizing penicillin production, and it has also made possible the introduction of new methods for assaying vitamins and amino acids in foods and tissues. Tatum and Joshua Lederberg (the winner of the other half of the 1958 Nobel award), discovered genetic recombination in bacteria.
His discoveries were made freely available to the scientific community.
“It was all so very businesslike that one watched it fascinated. It was pork-making by machinery, pork-making by applied mathematics.”*…
In the mid-to-late 1800s, the meat industry — from the cowboys and cattle drives to the Chicago slaughterhouses to the refrigerated railcars delivering steaks to New York’s finest restaurants — was the largest industry in America. At the heart of this industry were entrepreneurs like Philip Danforth Armour and Gustavus Franklin Swift, who pioneered business practices later adopted by the automobile industry and whose company names survive to this day:
“[In the meat industry in the mid-1800s], automation was the secret ingredient. Overhead wheels were introduced to carry the hog or the steer from one fixed workstation to the next. Before long, this approach evolved into an overhead trolley system driven by steam engines and industrial belts. Specific repetitive tasks were assigned to each worker along what became, in effect, the first assembly line, although the actual work was disassembly. It was from studying this process in the Chicago slaughterhouses that Henry Ford came up with his own method for assembling automobiles — a development that would revolutionize mass manufacturing…
More at “The American Meat Colossus,” an excerpt from Cattle Kingdom: The Hidden History of the Cowboy West, by Christopher Knowlton.
* “It was all so very businesslike that one watched it fascinated. It was pork-making by machinery, pork-making by applied mathematics. And yet somehow the most matter-of-fact person could not help thinking of the hogs; they were so innocent, they came so very trustingly; and they were so very human in their protests – and so perfectly within their rights! They had done nothing to deserve it; and it was adding insult to injury, as the thing was done here, swinging them up in this cold-blooded, impersonal way, without pretence at apology, without the homage of a tear.” – Upton Sinclair (author of The Jungle)
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As we ponder protein, we might recall that it was on this date in 1921 that Canadians Sir Frederick Banting and his assistant Charles Best isolated insulin (from canine subjects). Later that year, working with a University of Toronto colleague, J.J.R. MacLeod, Banting developed a diabetes treatment for humans– for which he and MacLeod shared the Nobel Prize in Medicine. Banting and Best (with whom he shared his Nobel Prize money) later improved both the sourcing process for insulin (discovering how to extract it from an intact pancreas) and the diabetes detection process.

Best (left) and Bantling with with one of the diabetic dogs used in their experiments with insulin
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