Money On The Sun

Stereoscopic Photograph of Victorian Greenhouse

 

by Heather Rogers, for The New York Times

At the turn of the 20th century, when Thomas Edison–who made possible the near-universal use of electric light and power utilities, sound recording, and motion pictures, all of which established major new industries worldwide–was at the height of his career, the notion that buildings, which now account for more than a third of all energy consumed in the United States, would someday require large amounts of power was only just coming into focus.
Where that power would come from — central generating stations or in-home plants; fossil fuels or renewable resources — was still very much up for debate.

A 1901 article about Edison in The Atlanta Constitution described how his unorthodox ideas about batteries could bring wattage to the countryside: “With a windmill coupled to a small electric generator,” a rural inhabitant “could bottle up enough current to give him light at night.”
The earliest wind-powered house was fired up in Cleveland in 1888 by the inventor Charles Brush, but Edison aspired to take the technology to the masses.
He made drawings of a windmill to power a cluster of four to six homes, and in 1911 he pitched manufacturers on building a prototype.

Edison’s batteries also fueled some cars and trucks, and he joined forces with Henry Ford to develop an electric automobile that would be as affordable and practical as the Model T.
The Constitution article discussed plans to let people recharge their batteries at plug-in sites along trolley lines; the batteries could also be refreshed courtesy of the home windmill.

Edison also, like other scientists of his day, was beginning to understand even then that fossil fuels wouldn’t last forever.
In 1913, Scientific American published an issue on energy problems, observing: “The question of the possible exhaustion of the world’s oil supply deserves the gravest consideration. There is every indication that we are face to face with this possibility.”
Articles delved into technologies to capture the power of the sun, the wind, the tide and even the earth’s rotation.
Inventors like Edison were modernizers who couldn’t bear the inefficiency of letting an abundant energy source like wind go untapped.

In 1912 Edison unveiled an energy-self-sufficient home in West Orange, N.J.
Billed as an experimental “Twentieth Century Suburban Residence” and designed to showcase his batteries, it bulged with luxuries like air heating and cooling units, a clothes-washing machine, an electric cooking range and, of course, plenty of light bulbs.
Completely off the grid, the house received its juice from a generator that charged a bank of 27 cells in the basement. For this first attempt, Edison used a gas-run motor, but evidence suggests that he hoped to hook up to a wind turbine.
The system would allow the prospective homeowner to be, according to The New York Times, “utterly and for all time independent of the nearness or farness of the big electric companies.”

The conglomerates struggling to control the nascent energy sector regarded that as precisely the problem.
For them, a world of independence, in which householders created their own power using renewable resources, was a nightmare.
The companies’ profits depended on electricity from power plants run on cheap fossil fuels.
In the end, Edison’s proudly free-standing Suburban Residence was hooked up to the grid, and neither his in-home wind-generated electricity plant nor his battery-powered vehicles ever reached the mass market.

In 1931, not long before he died, the inventor told his friends Henry Ford and Harvey Firestone: “I’d put my money on the sun and solar energy. What a source of power! I hope we don’t have to wait until oil and coal run out before we tackle that.”

Naturalis Historiae

Václav Hollar (1607 – 1677)
The Battle of White Mountain

 

WE are now about to speak of metals, of actual wealth, the standard of comparative value, objects for which we diligently search, within the earth, in numerous ways.
In one place, for instance, we undermine it for the purpose of obtaining riches, to supply the exigencies of life, searching for either gold or silver, electrum or copper.
In another place, to satisfy the requirements of luxury, our researches extend to gems and pigments, with which to adorn our fingers and the walls of our houses: while in a third place, we gratify our rash propensities by a search for iron, which, amid wars and carnage, is deemed more acceptable even than gold.
We trace out all the veins of the earth, and yet, living upon it, undermined as it is beneath our feet, are astonished that it should occasionally cleave asunder or tremble: as though, forsooth, these signs could be any other than expressions of the indignation felt by our sacred parent!
We penetrate into her entrails, and seek for treasures in the abodes even of the Manes, as though each spot we tread upon were not sufficiently bounteous and fertile for us!

IT now remains for us to speak of stones, or, in other words, the leading folly of the day; to say nothing at all of our taste for gems and amber, crystal and murrhine vases.
For everything of which we have previously treated, down to the present Book, may, by some possibility or other, have the appearance of having been created for the sake of man: but as to the mountains, Nature has made those for herself, as a kind of bulwark for keeping together the bowels of the earth; as also for the purpose of curbing the violence of the rivers, of breaking the waves of the sea, and so, by opposing to them the very hardest of her materials, putting a check upon those elements which are never at rest.
And yet we must hew down these mountains, forsooth, and carry them off; and this, for no other reason than to gratify our luxurious inclinations: heights which in former days it was reckoned a miracle even to have crossed!


Gaius Plinius Secundus (AD 23 – August 25, AD 79)

tr. John Bostock, M.D., F.R.S. (baptised 29 June 1773, died 6 August 1846)
Henry Thomas Riley (1816–1878)

 

Science vs. Manipulation

 

 

When Michael Faraday ran the Royal Institution, one of the oldest scientific organisations in the world, the 19th-century chemist took time to enter public discourse.
He ranted about dangerous pollution in the Thames.
He debunked the fad of table-turning, and blamed the educational system for allowing such nonsense to thrive.

Nearly 200 years later, scientists are still tackling bad thinking and big problems.
For Sarah Harper, an Oxford gerontologist who takes the helm proper at the Royal Institution on Tuesday, the rise of denialism, fake news and alternative facts, combined with rapid advances in research that raise deep questions for society, mean that a grasp of science, and all its uncertainties, has never seemed more vital.

“Science affects people’s lives on a daily basis now.
People increasingly need bodies that can provide trusted and open information, and when an issue isn’t black and white, to explain why there’s a debate and guide them through the evidence,” Harper said. “There is a real role for the RI to be a gold standard for scientific evidence.”

That means more than simply stating scientific results. Harper’s vision, in part at least, is for the RI to enhance its provision of information, and have more non-scientists join its debates on the fruits of scientific research. Crucially, she wants to lay bare the scientific process: the complexities of data analysis, and the often ambiguous, even opaque nature of scientific findings.

Harper is the first social scientist to become the RI’s director. She studied at Cambridge and Oxford, and worked as a BBC reporter and a producer on Newsnight before returning to academia. Since 2014 she has served on the prime minister’s Council for Science and Technology.
Her appointment to the RI from outside the ranks of the chemists and physicists who have often held the post reflects a desire from the institution’s trustees for a different approach. Harper wants the RI to be more inclusive, for science to work with the humanities and arts, the private sector and policy makers, so that the information it provides, and the debates it holds, are delivered in the most rounded context.

“Science is addressing huge global challenges that affect people’s lives.
You’ve got to consider the whole social, ethical, moral and political framing of debates,” she said.
“It’s important that the scientist is no longer someone who just sits in a lab. All young scientists should think about public engagement. How will their research affect the public? Questions that are important to the public should influence the questions they themselves are asking.”

 

https://www.theguardian.com/science/2017/may/01/royal-institutions-new-director-sarah-harper-we-must-show-gold-standard-for-science

Pediculus cervi

fauna_germanica_diptera_1793_vol-1_p10_pediculus_cervi_fabrJacob Sturm (1771–1848)
Faunae insectorum germanicae initia Sturm

The Journeys of Birds

migration19th Century
Museum of Modern Art, New Delhi

At least 4,000 species of bird are known to be regular migrants, which is about 40 percent of the total number of birds in the world.
(Although this number will likely increase as we learn more about the habits of birds in tropical regions.)

Birds can reach great heights as they migrate.
Bar-headed Geese are the highest-flying migratory birds, regularly reaching altitudes of up to five and a half miles above sea level while flying over the Himalayas in India.
But the bird with the record for the highest altitude ever is the Ruppel’s Griffon Vulture.

The Arctic Tern has the longest migration of any bird in the world. They can fly more than 49,700 miles in a year, making a round trip between their breeding grounds in the Arctic and the Antarctic, where they spend their winters.
Over a lifespan of more than 30 years, the flights can add up to the equivalent of three trips to the moon and back.

The Northern Wheatear travels up to 9,000 miles each way between the Arctic and Africa, giving it one of the largest ranges of any songbird.
What makes this an especially amazing feat is that the tiny bird weighs less than an ounce.

The Bar-tailed Godwit has the longest recorded non-stop flight, flying for nearly 7,000 miles, over eight days, without food or rest.

To prepare for the extremely taxing effort of migration, birds enter a state called hyperphagia, where they bulk up on food in the preceding weeks to store fat, which they’ll later use for energy on their long journeys.
Some, like the Blackpoll Warbler, almost double their body weight before flying 2,300 miles for 86 hours without stopping.

Even birds that don’t fly migrate.
Emus, the large Australian birds, often travel for miles on foot to find food, and many populations of Penguins migrate by swimming.

Migration can be terribly dangerous for birds, and they often don’t make it back to their starting point.
Sometimes natural occurrences like harsh weather play a role, but human activities are the cause of many deaths.
In the United States alone, up to one billion birds die each year from window collisions,
seven million from striking TV and radio towers.

http://www.audubon.org/birds
http://www.audubon.org/conservation

American Buffalo

buff catlinGeorge Catlin
(1796, Wilkes-Barre, PA – 1872
Jersey City, NJ)

 

 

What is life?
It is the flash of a firefly in the night.
It is the breath of a buffalo in the wintertime.
It is the little shadow which runs across the grass
and loses itself in the sunset.

— Isapo-Muxika (1830 – 1890), chief of the Siksika First Nation

 

When the earth is sick and dying,
There will come a tribe of people
From all races . . .
Who will put their faith in deeds,
Not words, and make the planet
Green again . . .

— Cree prophecy

 
The idea of land being preserved for everyone to enjoy was first expressed in 1832 (that’s just 56 years after the birth of United States of America in 1776) and is credited to artist George Catlin. During a trip to the Dakota region in 1832, Catlin, best known for his paintings of Native Americans, pondered the impact the western expansion would have upon these civilizations, the wildlife and the wilderness. He wrote that they might be preserved “by some great protecting policy of government…in a magnificent park…a nation’s park, containing man and beast, in all the wild and freshness of their nature’s beauty.”

Though Catlin’s idea was seemingly impractical at the time and “had no immediate effect,” just 32 years later the “national park idea came to partial fruition in 1864” when President Abraham Lincoln signed an act of Congress to transfer the federally-owned Yosemite Valley and nearby Mariposa Big Tree Grove to the State of California on condition that they would “be held for public use, resort, and recreation . . . inalienable for all time.”

 

White Carnation

cb-carnation-white
attrib. Charlotte Brontë  (1816 – 1855)

 

It Could Take a Century to Recover

elephant5Portrait of an Elephant, Indian, c.1620-30

Study finds extremely slow reproduction rate unable to keep pace with deaths

African forest elephants have experienced serious poaching, driving an estimated population decline of 65% between 2002 and 2013.
Their low birth rates mean that it will take forest elephants at least 90 years to recover from these losses, according to researchers from the Wildlife Conservation Society, the Cornell Lab of Ornithology’s Elephant Listening Project, Colorado State University, and Save the Elephants.

These findings are from the first-ever study of forest elephant demography just published in the Journal of Applied Ecology.

“Female forest elephants in the Dzanga population typically breed for the first time after 23 years of age, a markedly late age of maturity relative to other mammals. In contrast, savannah elephants typically begin breeding at age 12.
In addition, breeding female forest elephants only produced a calf once every five to six years, relative to the three to four-year interval found for savannah elephants.”
Andrea Turkalo, a Wildlife Conservation Society scientist, collected the detailed data on the elephants over several decades, in spite of tough logistical challenges and political instability.
“This work provides another critical piece of understanding regarding the dire conservation status of forest elephants.”

George Wittemyer, a professor in Wildlife Conservation at Colorado State University said, “Legislation regarding ivory trade must consider the collateral effects on forest elephants and the difficulties of protecting them. Trade in ivory in one nation can influence the pressures on elephants in other nations.”
And the forest elephant is particularly susceptible to poaching.

Forest elephants also have critical ecological roles in Central African forests, and many tree species rely on the elephants to disperse their seeds.
Those forests are vitally important for absorbing climate change gases.


http://us2.campaign-archive2.com/?u=b35ddb671faf4a16c0ce32406&id=8dfd2ac2f4&e=d327cdd2ca

The Voynich Manuscript

voy brown

 

The Voynich manuscript has been studied by many professional and amateur cryptographers, including American and British codebreakers from both World War I and World War II. No one has yet succeeded in deciphering the text, and it has become a famous case in the history of cryptography.

Because the text cannot be read, the illustrations are conventionally used to divide most of the manuscript into six different sections: Herbal, Astronomical, Biological, Cosmological, Pharmaceutical, and — Recipes.

The first confirmed owner was Georg Baresch (1585–1662), an obscure alchemist from Prague.
Baresch was apparently just as puzzled as modern scientists about this “Sphynx” that had been “taking up space uselessly in his library” for many years.
On learning that Athanasius Kircher (1602–1680), a Jesuit scholar from the Collegio Romano, had published a Coptic (Egyptian) dictionary and “deciphered” the Egyptian hieroglyphs,
Baresch twice sent a sample copy of the script to Kircher in Rome, asking for clues. Baresch’s 1639 letter to Kircher is the earliest confirmed mention of the manuscript that has been found to date.

Upon Baresch’s death, the manuscript passed to his friend Jan Marek Marci (1595–1667; also known as Johannes Marcus Marci), then rector of Charles University in Prague.
A few years later Marci sent the book to Kircher, his longtime friend and correspondent.
The letter was written in Latin.

 

Reverend and Distinguished Sir, Father in Christ:

This book, bequeathed to me by an intimate friend, I destined for you, my very dear Athanasius, as soon as it came into my possession, for I was convinced that it could be read by no one except yourself.

The former owner of this book asked your opinion by letter, copying and sending you a portion of the book from which he believed you would be able to read the remainder, but he at that time refused to send the book itself.
To its deciphering he devoted unflagging toil, as is apparent from attempts of his which I send you herewith, and he relinquished hope only with his life. But his toil was in vain, for such Sphinxes as these obey no one but their master, Kircher.
Accept now this token, such as it is and long overdue though it be, of my affection for you, and burst through its bars, if there are any, with your wonted success.

Dr. Raphael, a tutor in the Bohemian language to Ferdinand III, then King of Bohemia, told me the said book belonged to the Emperor Rudolph and that he presented to the bearer who brought him the book 600 ducats.
He believed the author was Roger Bacon, the Englishman.
On this point I suspend judgement; it is your place to define for us what view we should take thereon, to whose favor and kindness I unreservedly commit myself and remain

At the command of your Reverence,
Joannes Marcus Marci of Cronland
Prague, 19th August, 1665

 

The book was then given or lent to Jacobus Horcicky de Tepenecz (died 1622), the head of Rudolf’s botanical gardens in Prague, probably as part of the debt Rudolf II owed upon his death.

 

 

Brigadier John Tiltman 1967
Zandbergen, René (May 19, 2016). “Voynich MS – 17th Century letters related to the MS”

Schuster, 2009
Hogenboom, Melissa (June 21, 2013). “Mysterious Voynich manuscript has ‘genuine message'”
Jackson, David (January 23, 2015) “The Marci letter found inside the VM”
Knight, Kevin (September 2009)
Ensanian, Berj N. (February 27, 2007). “Archive of communications of the Journal Of Voynich Studies
Santos, Marcelo dos. “El Manuscrito Voynich
Neal, Philip. “The letter of Johannes Marcus Marci to Athanasius Kircher (1665)

https://en.wikipedia.org/wiki/Voynich_manuscript

Ripples

rusk inJohn Ruskin (1819 – 1900)
Rocks in Unrest

 

Phoebe Sarah Marks in Hampshire, England,  was born on 28 April 1854. She was the third child of a Polish-Jewish watchmaker named Levi Marks, an immigrant from Tsarist Poland; and Alice Theresa Moss, a seamstress. Her father died in 1861, leaving Sarah’s mother with seven children and an eighth expected. Sarah took up some of the responsibility for caring for the younger children.
At the age of nine, Sarah was invited by her aunts, who ran a school in London, to live with her cousins and be educated with them.
In her teens she adopted the name “Hertha” after the heroine of a poem by Algernon Charles Swinburne that criticized organised religion.

By age 16, she was working as a governess, but  George Eliot supported Ayrton’s application to Girton College, Cambridge.
Eliot was writing her novel Daniel Deronda at the time. One of the novel’s characters, Mirah, was said to be based on Ayrton.
During her time at Cambridge, Ayrton constructed a sphygmomanometer, led the choral society, founded the Girton fire brigade, and, together with Charlotte Scott, formed a mathematical club. In 1880, Ayrton passed the Mathematical Tripos, but Cambridge did not grant her an academic degree because, at the time, Cambridge gave only certificates and not full degrees to women.

Upon her return to London, Ayrton earned money by teaching and embroidery, ran a club for working girls, and cared for her invalid sister.
She was also active in devising and solving mathematical problems, many of which were published in “Mathematical Questions and Their Solutions” from the Educational Times.
In 1884 Ayrton patented a line-divider, an engineering drawing instrument for dividing a line into any number of equal parts and for enlarging and reducing figures. Its primary use was likely for artists for enlarging and diminishing, but it was also useful to architects and engineers. From then until her death, Hertha registered 26 patents.

That year Ayrton began attending evening classes on electricity at Finsbury Technical College, delivered by Professor William Edward Ayrton, a pioneer in electrical engineering and physics, and a fellow of the Royal Society.
In 1899, she was the first woman ever to read her own paper before the Institution of Electrical Engineers. Her paper was entitled “The Hissing of the Electric Arc”. Shortly thereafter, Ayrton was elected the first female member; the next woman to be admitted to the IEE was in 1958.
She petitioned to present a paper before the Royal Society but was not allowed because of her sex, and “The Mechanism of the Electric Arc” was read by John Perry in her stead in 1901.
Ayrton was also the first woman to win a prize from the Society, the Hughes Medal, awarded to her in 1906 in honour of her research on the motion of ripples in sand and water and her work on the electric arc.

By the late nineteenth century, Ayrton’s work in the field of electrical engineering was recognised more widely. At the International Congress of Women held in London in 1899, she presided over the physical science section, and she spoke at the International Electrical Congress in Paris in 1900. Her success there led the British Association for the Advancement of Science to allow women to serve on general and sectional committees.

Ayrton’s interest in vortices in water and air inspired the Ayrton fan, used in the trenches in the First World War to dispel poison gas.
She helped found the International Federation of University Women in 1919 and the National Union of Scientific Workers in 1920.

Two years after her death in 1923, Ayrton’s lifelong friend Ottilie Hancock endowed the Hertha Ayrton Research Fellowship at Girton College, which continues today.

W