Posts Tagged ‘Herschel’
“We must guard against the acquisition of unwarranted influence, whether sought or unsought, by the military-industrial complex”*…

The world is a turbulent and sometimes dangerous place. No one knew that better than Dwight D. Eisenhower, who led Allied Forces in Europe during World War II and later served as President…
As President of the United States for two terms, Eisenhower had slowed the push for increased defense spending despite pressure to build more military equipment during the Cold War’s arms race. Nonetheless, the American military services and the defense industry had expanded a great deal in the 1950s. Eisenhower thought this growth was needed to counter the Soviet Union, but it confounded him. Though he did not say so explicitly, his standing as a military leader helped give him the credibility to stand up to the pressures of this new, powerful interest group. He eventually described it as a necessary evil.
A vital element in keeping the peace is our military establishment. Our arms must be mighty, ready for instant action, so that no potential aggressor may be tempted to risk his own destruction. . . . American makers of plowshares could, with time and as required, make swords as well. But now we can no longer risk emergency improvisation of national defense; we have been compelled to create a permanent armaments industry of vast proportions. . . . This conjunction of an immense military establishment and a large arms industry is new in the American experience. . . .Yet we must not fail to comprehend its grave implications. . . . In the councils of government, we must guard against the acquisition of unwarranted influence, whether sought or unsought, by the military-industrial complex. The potential for the disastrous rise of misplaced power exists and will persist.
As Samuel Geddes argues, the dilemma has only ripened. Western defense giants tout cutting-edge tech, but their “state-of-the-art” systems often fall short in asymmetrical warfare. From faulty missile defense systems to overpriced carriers, the only thing that consistently works is the profit machine…
The ineffectiveness of “cutting-edge” military technology shown in Israel’s genocide in Gaza and the spillover conflicts undermines the notion that the military-industrial complex aims to win wars. Instead, it reveals its true objective: profiting from ongoing conflicts.
Since its crushing victory in the 1967 Six-Day War, one of Israel’s primary functions as a US-European client state has been that of a weapons laboratory. Throughout eight decades of repressing, invading, and annexing the territory of regional countries, it has served as a proving ground for arms manufacturers.
This continuous opportunity for such demonstration has enabled Israel, starting in the 1980s, to develop its own highly globalized military-industrial complex. From tanks to drones, “Israel” became a byword for the technical superiority and unbeatable effectiveness of western hard power over those on its receiving end.
Since the turn of the millennium, however, and especially since the Hamas-led Palestinian offensive against Israel on October 7, the region has become a weapons lab of a very different kind. It now showcases the armaments of its enemies and their ability, for a fraction of the cost and technical complexity, to render its space-age technology uneconomical and, by extension, obsolete.
The spread of cheap, cost-effective arms among asymmetric opponents of the West has significantly blunted the power of conventional weapons systems. The rational thing to do is accept this and redirect these hundreds of billions of wasted dollars to social programs and infrastructure. Almost anything would be more defensible than the status quo…
[Geddes unpacks the history of the last several decades and examines a number of troubled defense programs…]
… The most notorious example of wastefulness in military spending is undoubtedly the Lockheed Martin F-35 fighter jet. From the program’s inception in 2006 to the present, the F-35 was projected to cost over $1.7 trillion over its lifetime. Persistent cost overruns and development woes have angered even the Pentagon itself, which opened the program up to competitive bidding in 2012. More than a decade later, the rapid spread of drone technology has made it possible for unmanned craft, sometimes referred to as “loitering munitions,” to perform many of the tasks traditionally handled by fighter jets — with little overengineering and none of the risk to an actual pilot. That the total budget of this program could eradicate all American student loan debt or cover half the cost of a national health system only adds to the obscenity of it all.
It is well-known that the military-industrial economy is dependent on public subsidy. The technology in mobile phones, computers, and the internet — essential to modern life —was not “invented” by figures like Mark Zuckerberg or Bill Gates, but was instead developed by public investment. The initial funding came from decades of American taxpayer dollars.
Capitalism is not designed to be ethically consistent, but if it were, companies whose business model depends on state supports would be paying out dividends to every single American as a return on their initial investment.
In 2024, the US military budget reached an incredible $841 billion. If even a fraction of these funds were to be spent on restoring the education system to a level befitting the richest country on earth, canceling university tuition debt, or creating a national health system, it would achieve far greater benefits. While $1 trillion might not result in effective missile shields, it is very likely capable of creating a functioning health or educational system…
“The Incompetence of Masters of War,” from @SamuelGeddes in @jacobin.
Further to his point on the effectiveness of U.S. defense spending, see “America is not ready for a major war, says a bipartisan commission” and “The US might lose a war with China.”
And for more on the arguments for alternatives, see “The military-industrial complex as a variety of capitalism and threat to democracy: rethinking the political economy of guns versus butter.”
* Dwight D. Eisenhower
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As we contemplate conflict, we might pause to contrast the rigorously serious with the frivolously venal: it was on this date in 1835 that the New York Sun began a series of six articles detailing the discovery of civilized life on the moon; circulation soared. Now known as “The Great Moon Hoax,” the articles attributed the “discovery” to Sir John Herschel (who figured in last Monday’s post), the greatest living astronomer of the day. Herschel was initially amused, wryly noting that his own real observations could never be as exciting. But ultimately he tired of having to answer questioners who believed the story. The series was not discovered to be a hoax for several weeks after its publication and, even then, while the paper did admit (on September 16, 1835) that the whole thing was a “satire,” it never issued a retraction (and didn’t suffer a drop in sales).

“Men have become the tools of their tools”*…
Visionary philosopher Bernard Stiegler argued that it’s not our technology that makes humans special; rather, it’s our relationship with that technology. Bryan Norton explains…
It has become almost impossible to separate the effects of digital technologies from our everyday experiences. Reality is parsed through glowing screens, unending data feeds, biometric feedback loops, digital protheses and expanding networks that link our virtual selves to satellite arrays in geostationary orbit. Wristwatches interpret our physical condition by counting steps and heartbeats. Phones track how we spend our time online, map the geographic location of the places we visit and record our histories in digital archives. Social media platforms forge alliances and create new political possibilities. And vast wireless networks – connecting satellites, drones and ‘smart’ weapons – determine how the wars of our era are being waged. Our experiences of the world are soaked with digital technologies.
But for the French philosopher Bernard Stiegler, one of the earliest and foremost theorists of our digital age, understanding the world requires us to move beyond the standard view of technology. Stiegler believed that technology is not just about the effects of digital tools and the ways that they impact our lives. It is not just about how devices are created and wielded by powerful organisations, nation-states or individuals. Our relationship with technology is about something deeper and more fundamental. It is about technics.
According to Stiegler, technics – the making and use of technology, in the broadest sense – is what makes us human. Our unique way of existing in the world, as distinct from other species, is defined by the experiences and knowledge our tools make possible, whether that is a state-of-the-art brain-computer interface such as Neuralink, or a prehistoric flint axe used to clear a forest. But don’t be mistaken: ‘technics’ is not simply another word for ‘technology’. As Martin Heidegger wrote in his essay ‘The Question Concerning Technology’ (1954), which used the German term Technik instead of Technologie in the original title: the ‘essence of technology is by no means anything technological.’ This aligns with the history of the word: the etymology of ‘technics’ leads us back to something like the ancient Greek term for art – technē. The essence of technology, then, is not found in a device, such as the one you are using to read this essay. It is an open-ended creative process, a relationship with our tools and the world.
This is Stiegler’s legacy. Throughout his life, he took this idea of technics, first explored while he was imprisoned for armed robbery, further than anyone else. But his ideas have often been overlooked and misunderstood, even before he died in 2020. Today, they are more necessary than ever. How else can we learn to disentangle the effects of digital technologies from our everyday experiences? How else can we begin to grasp the history of our strange reality?…
[Norton unspools Stiegler’s remarkable life and the development of his thought…]
… Technology, for better or worse, affects every aspect of our lives. Our very sense of who we are is shaped and reshaped by the tools we have at our disposal. The problem, for Stiegler, is that when we pay too much attention to our tools, rather than how they are developed and deployed, we fail to understand our reality. We become trapped, merely describing the technological world on its own terms and making it even harder to untangle the effects of digital technologies and our everyday experiences. By encouraging us to pay closer attention to this world-making capacity, with its potential to harm and heal, Stiegler is showing us what else is possible. There are other ways of living, of being, of evolving. It is technics, not technology, that will give the future its new face…
Eminently worth reading in full: “Our tools shape our selves,” from @br_norton in @aeonmag.
Compare and contrast: Kevin Kelly‘s What Technology Wants
* Henry David Thoreau
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As we own up, we might send phenomenological birthday greetings to Immanuel Kant; he was born on this date in 1724. One of the central figures of modern philosophy, Kant is remembered primarily for his efforts to unite reason with experience (e.g., Critique of Pure Reason [Kritik der reinen Vernunft], 1781), and for his work on ethics (e.g., Metaphysics of Morals [Die Metaphysik der Sitten], 1797) and aesthetics (e.g., Critique of Judgment [Kritik der Urteilskraft], 1790).
But Kant made important contributions to mathematics and astronomy. For example: his argument that mathematical truths are a form of synthetic a priori knowledge was cited by Einstein as an important early influence on his work. And his description of the Milky Way as a lens-shaped collection of stars that represented only one of many “island universes,” was later shown to be accurate by Herschel.
Act so as to treat humanity, whether in your own person or in that of another, at all times also as an end, and not only as a means.

“I’m sure the universe is full of intelligent life. It’s just been too intelligent to come here.”*…
Email migration should now be complete; email subscribers should now be getting (Roughly) Daily via Mailchimp, and should not be getting a duplicate from Feedburner. If you are getting a dupe, please let me know (roughlydaily@gmail.com). Note that this new service may be landing in your Gmail “Promotions” folder; you can move it to your main folder. With apologies for the turbulence over the last few days, and thanks for your continued reading, on to today’s post…
A new computer simulation shows that a technologically advanced civilization, even when using slow ships, can still colonize an entire galaxy in a modest amount of time. The finding presents a possible model for interstellar migration and a sharpened sense of where we might find alien intelligence.
Space, we are told time and time again, is huge, and that’s why we have yet to see signs of extraterrestrial intelligence. For sure, the distances between stars are vast, but it’s important to remember that the universe is also very, very old. In fact, I’d go so far as to say that, in terms of extremes, the Milky Way galaxy is more ancient than it is huge, if that makes sense. It’s for this reason that I tend to dismiss distances as a significant variable when discussing the Fermi Paradox—the observation that we have yet to see any evidence for the existence of alien intelligence, even though we probably should have.
New research published in The American Astronomical Society is bolstering my conviction. The new paper, co-authored by Jason Wright, an astronomer and astrophysicist at Penn State, and Caleb Scharf, an astrobiologist at Columbia University, shows that even the most conservative estimates of civilizational expansion can still result in a galactic empire.
A simulation produced by the team shows the process at work, as a lone technological civilization, living in a hypothetical Milky Way-like galaxy, begins the process of galactic expansion… Things start off slow in the simulation, but the civilization’s rate of spread really picks up once the power of exponential growth kicks in. But that’s only part of the story; the expansion rate is heavily influenced by the increased density of stars near the galactic center and a patient policy, in which the settlers wait for the stars to come to them, a result of the galaxy spinning on its axis.
The whole process, in which the entire inner galaxy is settled, takes one billion years. That sounds like a long time, but it’s only somewhere between 7% and 9% the total age of the Milky Way galaxy.
…
As noted, the new model is constrained by some very conservative rules. Migration ships are launched once every 10,000 years, and no civilization can last longer than 100 million years. Ships can travel no farther than 10 light-years and at speeds no faster than 6.2 miles per second (10 kilometers per second), which is comparable to human probes like the Voyager and New Horizons spacecraft.
“This means we’re not talking about a rapidly or aggressively expanding species, and there’s no warp drive or anything,” said Wright. “There’s just ships that do things we could actually manage to do with something like technology we can design today… Even under these conditions, the entire inner part of the simulated galaxy became settled in a billion years. But as Wright reminded me, our “galaxy is over 10 billion years old, so it could have happened many times over, even with those parameters.”…
A new simulation published by the American Astronomical Society suggests that aliens wouldn’t need warp drives to take over an entire galaxy in (relatively) short order, as George Dvorsky (@dvorsky) explains.
[Image above: Andromeda Galaxy, source]
* Arthur C. Clarke
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As we spread out, we might spare a thought for Jacobus Cornelius Kapteyn; he died on this date in 1922. An astronomer, he used photography and statistical methods to determine the motions and spatial distribution of stars (especially with the Milky Way), the first major step after the works of William and John Herschel. He introduced absolute magnitude and color indexing as standard concepts in cataloguing stars.
Kapteyn was also among the first to suggest the existence of dark matter (which he deduced from examining stellar velocities).
“Fools ignore complexity. Pragmatists suffer it… Geniuses remove it.”*…

World War II bomber planes returned from their missions riddled with bullet holes. The first response was, not surprisingly, to add armor to those areas most heavily damaged. However, the statistician Abraham Wald made what seemed like the counterintuitive recommendation to add armor to those parts with no damage. Wald had uniquely understood that the planes that had been shot where no bullet holes were seen were the planes that never made it back. That’s, of course, where the real problem was. Armor was added to the seemingly undamaged places, and losses decreased dramatically.
The visible bullet holes of this pandemic are the virus and its transmission. Understandably, a near-universal response to the COVID-19 pandemic has been to double down on those disciplines where we already possess deep and powerful knowledge: immunology and epidemiology. Massive resources have been directed at combating the virus by providing fast grants for disciplinary work on vaccines. Federal agencies have called for even more rapid response from the scientific community. This is a natural reaction to the immediate short-term crisis.
The damage we are not attending to is the deeper nature of the crisis—the collapse of multiple coupled complex systems.
Societies the world over are experiencing what might be called the first complexity crisis in history. We should not have been surprised that a random mutation of a virus in a far-off city in China could lead in just a few short months to the crash of financial markets worldwide, the end of football in Spain, a shortage of flour in the United Kingdom, the bankruptcy of Hertz and Niemann-Marcus in the United States, the collapse of travel, and to so much more.
As scientists who study complex systems, we conceive of a complexity crisis as a twofold event. First, it is the failure of multiple coupled systems—our physical bodies, cities, societies, economies, and ecosystems. Second, it involves solutions, such as social distancing, that involve unavoidable tradeoffs, some of which amplify the primary failures. In other words, the way we respond to failing systems can accelerate their decline.
We and our colleagues in the Santa Fe Institute Transmission Project believe there are some non-obvious insights and solutions to this crisis that can be gleaned from studying complex systems and their universal properties…
The more complicated and efficient a system gets, the more likely it is to collapse altogether. Scientists who study complex systems offer solutions to the pandemic: “The Damage We’re Not Attending To.”
See also: “Complex Systems Theory Explains Why Covid Crushed the World.”
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As we think systemically, we might recall that it was on this date in 1835 that the New York Sun began a series of six articles detailing the discovery of civilized life on the moon. Now known as “The Great Moon Hoax,” the articles attributed the “discovery” to Sir John Herschel, the greatest living astronmer of the day. Herschel was initially amused, wryly noting that his own real observations could never be as exciting. But ultimately he tired of having to answer questioners who believed the story. The series was not discovered to be a hoax for several weeks after its publication and, even then, the newspaper did not issue a retraction.
The “ruby amphitheater” on the Moon, per the New York Sun (source)
“Listen now for the sound that forevermore separates the old from the new!”*…

Telstar
Newton Minow, famed Chairman of the FCC during the Kennedy Administration, recalled visiting NASA with the President, who asked him about a satellite they were shown:
I told him that it would be more important than sending a man into space. “Why?” he asked. “Because,” I said, “this satellite will send ideas into space, and ideas last longer than men.”
Greg Roberts, a retired astronomer and ham radio operator (ZS1BI in Cape Town) has been observing and recording the sounds broadcast by satellites since 1957. He’s collected his recordings so that one can hear “ideas traveling through space,” for example, Telstar.
Hear them all at “Sounds from Space.”
* NBC News, introducing the “beep-beep” chirp transmitted by the Sputnik satellites
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As we look to the skies, we might recall that it was on this date in 1781 that English astronomer William Herschel detected every schoolboy’s favorite planet, Uranus, in the night sky (though he initially thought it was a comet:; it was the first planet to be discovered with the aid of a telescope. In fact, Uranus had been detected much earlier– but mistaken for a star: the earliest likely observation was by Hipparchos, who in 128BC seems to have recorded the planet as a star for his star catalogue, later incorporated into Ptolemy’s Almagest. The earliest definite sighting was in 1690 when John Flamsteed observed it at least six times, cataloguing it as the star 34 Tauri.
Herschel named the planet in honor of his King: Georgium Sidus (George’s Star), an unpopular choice, especially outside England; argument over alternatives ensued. Berlin astronomer Johann Elert Bode came up with the moniker “Uranus,” which was adopted throughout the world’s astronomical community by 1850.

Uranus, photographed by Voyager 2 in 1986.



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