A far-right, pro-Russia candidate has taken a surprise lead in the first round of Romania's presidential election, with preliminary results putting his pro-Europe rival in close second.
With 96% of votes counted, ultranationalist Calin Georgescu was on 22%, and Marcel Ciolacu, the prime minister, had 20%, according to the Central Electoral Bureau.
The strong showing of Georgescu, who has no party of his own, and campaigned largely on the social media platform TikTok, came as the biggest surprise of the election.
He is now on track to join Ciolacu in a final run-off for the presidency on 8 December.
That would pose a dilemma for the millions of Romanians who voted for other candidates.
One option would be to rally round populist Social Democrat Ciolacu, an establishment figure who would continue Romania’s pro-western path.
Backing Georgescu, who has promised to Romania’s sovereignty, is the alternative.
Georgescu, who belongs to no party, has also sworn to end what he calls subservience to the European Union and Nato, especially on support for Ukraine. He has condemned the Nato ballistic missile defence shield in Deveselu, Romania.
The final result of this round will be known later on Monday, when votes from the capital Bucharest and from the large Romanian diaspora are counted.
Campaigning focused largely on the soaring cost of living, with Romania having the EU's biggest share of people at risk of poverty.
Exit polls released earlier on Sunday suggested that Ciolacu had a commanding lead, and projected the centre-right candidate, Elena Lasconi, would take second place.
The current tally, however, puts Lasconi in third on 18%, and another nationalist, George Simion, in fourth.
The president in Romania has a largely symbolic role but considerable influence on areas such as foreign policy.
Turnout was 51%, similar to the figure five years ago.
John Logie Baird (born Aug. 13, 1888, Helensburgh, Dunbarton, Scot.—died June 14, 1946, Bexhill-on-Sea, Sussex, Eng.) was a Scottish engineer, the first man to televise pictures of objects in motion. Born in Helensburgh on the west coast of Scotland, John was the fourth and youngest child of the Rev John and Jessie Baird. He showed early signs of ingenuity by setting up a telephone exchange to connect his house to those of his friends nearby. His first interest in television came in 1903 after he read a German book on the photoelectric properties of selenium.
Work in wartime
Baird graduated from the Royal Technical College in Glasgow – now Strathclyde University – soon after the outbreak of the First World War. Because of chronic ill-health, which was to plague him throughout his life, he was not accepted for military service. For a short time he worked for the Clyde Valley Electrical Power Company, before starting a small business manufacturing and marketing a water-absorbent sock. He then decided to move abroad.
Experimentation with television
Baird returned to Britain in September 1920, and after a brief spell in business in London, he started to experiment with television. In Hastings in 1924 he transmitted the image of a Maltese cross over the distance of 10 feet. Baird's first public demonstration of television was in 1925, in Selfridge's shop in London. The breakthrough came in October 1925 when Baird achieved television pictures with light and shade (half-tones), making them much clearer. He demonstrated these to invited members of the Royal Institution in January 1926. The pictures measured only 3.5 x 2 inches.
television (TV), a form of mass media based on the electronic delivery of moving images and sound from a source to a receiver. By extending the senses of vision and hearing beyond the limits of physical distance, television has had a considerable influence on society. Conceived in the early 20th century as a possible medium for education and interpersonal communication, it became by mid-century a vibrant broadcast medium, using the model of broadcast radio to bring news and entertainment to people all over the world. Television is now delivered in a variety of ways: “over the air” by terrestrial radio waves (traditional broadcast TV); along coaxial cables (cable TV); reflected off of satellites held in geostationary Earth orbit (direct broadcast satellite, or DBS, TV); streamed through the Internet; and recorded optically on digital video discs (DVDs) and Blu-ray discs.
First public demonstrations
Baird gave the first public demonstration of moving silhouette images by television at Selfridge’s department store in London in a three-week series of demonstrations beginning on 25 March 1925. On 26 January 1926, Baird gave the first public demonstration of true television images for members of the Royal Institution and a reporter from The Times in his laboratory at 22 Frith Street in the Soho district of London, where Bar Italia is now located. Baird initially used a scan rate of 5 pictures per second, improving this to 12.5 pictures per second c.1927. It was the first demonstration of a television system that could scan and display live moving images with tonal graduation.
Reference
https://en.wikipedia.org/wiki/John_Logie_Baird
https://www.britannica.com/technology/television-technology
https://digital.nls.uk/scientists/biographies/john-logie-baird/
Cheryl Mehrkar was the recipient of the world's first fully robotic double lung transplant on 22 October at NYU Langone Health Center in Manhattan.
Mehrkar, who is a medic, had suffered with chronic obstructive pulmonary disease for a decade that became more severe when she experienced a bout of Covid. She had spent years researching for a solution before becoming eligible for this procedure.
The technique builds on minimally invasive surgeries and aims to reduce hospital stays as well as speed up recovery periods.
Almost a month after the surgery, Mehrkar is now days from being released from hospital.
Reference
https://www.bbc.com/news/videos/cq8vkl18kq1o
The famous Bermuda Triangle and all the ocean mysteries surrounding it… You must have heard of it at least once? And perhaps you have an opinion on the cause of all the ships that have mysteriously disappeared there? The Bermuda Triangle is a geographical area in the Atlantic Ocean that combines Bermuda, Florida, and Puerto Rico.
It is one of the best unsolved mysteries of the world. Since the nineteenth century, many strange stories and rumors have been circulating about this part of the world: unexplained disappearances of cargo ships and planes, many without a trace. Some of the earliest reports of strange sightings date back to Christopher Columbus!
However, the story of the Bermuda Triangle came to the forefront in the 20th century when the Navy cargo ship USS Cyclops, with more than 300 people on board, went missing inside the Bermuda Triangle.
Victim of Bermuda Triangle
The Mary Celeste
Possibly one of the most mysterious stories of shipwrecks, this ship is a tale of its own. Despite being found adrift in some other location in the Atlantic Ocean, the connection to the Bermuda Triangle had been somehow invoked to find an answer to the mystery of its fate. Discovered on 4 December 1872 with everything right except for the entire crew, the ship was found stranded in the sea days after starting its journey from New York to Genoa, Italy. There were seven crew members and Captain Benjamin Briggs, his wife, and their two-year-old daughter aboard the vessel, loaded with raw alcohol. But days later, a passing British ship called Dei Gratia found Mary Celeste under partial sail in the Atlantic, off the Azores Islands. The ship was unmanned, with no crew abroad, and the lifeboat was also missing.It was also found that nine of the barrels in the cargo were empty, and a sword was on the deck. No trace of the people aboard the vessel or the missing lifeboat has ever been found. Studies of the ship ruled out the possibility of a pirate attack since everything on this ship, including the barrels of alcohol it was transporting and the crew’s valuable belongings were intact. Theories surrounding the mystery of Mary Celeste also included criminal conspiracy, alien abduction, and even an attack by a giant squid.
The possibility of a natural disaster was also on the list. Many suggested the role of an undersea earthquake behind the accident, while few proposed an accidental foraying of the vessel into the Bermuda Triangle.
However, as much as these speculations seem reasonable, they don’t fit. After all, why would a perfectly skilled crew on a good weather day, with their ship entirely uncompromised, abandon it and then never surface again?
USS Cyclops
The disappearance of the USS Cyclops, one of the Navy’s biggest fuel ships, marks the largest loss of life in the history of the US Navy. In March 1918, this massive ship sailed from Brazil to Baltimore through the Bermuda Triangle. It was carrying 10,800 tons of manganese ore and 309 crew members. Setting off on a good day, the ship’s first and only message indicated no troubles. However, the ship was never heard from again. The entire area was searched, but nothing was ever found. No remains of the ship or any crew members have been found. The captain of the USS Cyclops never sent a distress signal, and no one responded to radio calls from other vessels. The naval investigators also failed to find a definite cause for its disappearance. Due to its mysterious disappearance, Cyclops is among the 100 ships and planes that have vanished under strange circumstances in the Bermuda Triangle.
Reference
https://www.marineinsight.com/maritime-history/5-famous-mysterious-stories-of-the-bermuda-triangle/
https://en.wikipedia.org/wiki/Bermuda_Triangle
On Thursday, the Ukrainian city of Dnipro was hit by a Russian air strike which eyewitnesses described as unusual, triggering explosions that went on for three hours.
The attack included a strike by a missile so powerful that in the aftermath Ukrainian officials said it bore the characteristics of an intercontinental ballistic missile (ICBM).
Western officials were quick to deny this, saying that such a strike would have triggered a nuclear alert in the US.
Hours after the strike, Russian President Vladimir Putin, in a TV address, said that Russia had launched a "new conventional intermediate-range" missile with the codename Oreshnik, meaning hazel tree in Russian.
Putin said that the weapon travelled at a speed of Mach 10, or 2.5-3km per second (10 times the speed of sound), adding that "there are currently no ways of counteracting this weapon".
He said that a major military-industrial site in Dnipro, used to manufacture missiles and other armaments, had been hit. He described the attack as a test which was "successful" because the "target was reached".
Speaking a day later to senior defence officials, he said tests of the missile would continue, "including in combat conditions".
Putin's description of the weapon notwithstanding, there seems to be no clear consensus about what it actually is.
Ukrainian military intelligence maintains that the missile is a new type of ICBM known as Kedr (cedar). They say it was travelling at Mach 11 and took 15 minutes to arrive from the launch site, more than 1,000km (620 miles) away in the Astrakhan region of Russia.
They said the missile was equipped with six warheads, each with six sub-munitions.
This assumption is backed up by BBC Verify's examination of video footage of the strike. Most of it is blurry or of poor quality, but it clearly shows six flashes against the night sky, each comprised of a cluster of six individual projectiles.
The location that was hit is an industrial area to the southwest of Dnipro city.Why is speed important?
If Putin's description is correct, the missile is at the upper edge of the definition of hypersonic, and few things can achieve this.
Speed is important because the faster a missile travels, the quicker it gets to target. The quicker it gets to target, the less time a defending military has to react.
A ballistic missile generally gets to target by following an arcing path up into the atmosphere and a similar one down towards its destination.
But as it descends, it picks up speed and gains kinetic energy, and more kinetic energy gives it more options. This allows it to manoeuvre down towards the target - by performing some kind of defending wriggle - that makes interception by surface-to-air missile systems (such as Ukraine's US-built Patriot defence missile system) particularly difficult.
This is not new for militaries that have to defend against such threats of course, but the greater the speed, the harder it becomes.
That is why Putin has likely placed emphasis on its speed in announcing this new type of missile.
Some 80% of the missiles fired by Russia have been intercepted by Ukraine, an extraordinary figure. But these faster speeds of ballistic missiles are intended to try to bring that percentage down.What is the new missile's range?
Russian military expert Ilya Kramnik told the pro-Kremlin newspaper Izvestiya it is likely that the new missile, whose development has been classified until now, is at the upper end of medium-range missiles.
'It is likely that we are dealing with a new generation of Russian intermediate-range missiles [with a range of] 2,500-3,000km (1,550-1,860 miles) and potentially extending to 5,000km (3,100 miles), but not intercontinental," he says.
This could put almost the whole of Europe within range, but not the US.
"It is obviously equipped with a separating warhead with individual guidance units," Kramnik added.
He suggested that it could be a reduced version of the Yars-M missile complex, which is an ICBM.
Russia was reported to have started production of a new version of this missile complex last year which included much more mobile independent warheads.
Another expert, Dmitry Kornev, told the paper the Oreshnik could have been created on the basis of the shorter-range Iskander missiles - already commonly used on Ukraine - but with a new-generation engine.
An Iskander with an enlarged engine was used at the Kapustin Yar test site in southern Russia last spring, he said, adding that this may well have been the Oreshnik. Thursday's missile was fired into Ukraine from the same site.
How effective could it be?
Military analyst Vladislav Shurygin told Izvestiya that the Oreshnik was capable of overcoming any existing modern missile defence systems.
It could also destroy well-protected bunkers at great depths without using a nuclear warhead, he said, although there is no evidence of underground facilities being destroyed at the Dnipro plant.
Another Russian analyst, Igor Korotchenko, told Tass news agency the missile had multiple independently guided warheads, adding that the "practically simultaneous arrival of the warheads at the target" was extremely effective.
Justin Crump, CEO and founder of the risk advisory company Sibylline, told BBC Verify that the missile had the capacity to seriously challenge Ukraine's air defences.
"Russia’s short range ballistic missiles have been one of the more potent threats to Ukraine in this conflict," he said. "Faster, more advanced systems would increase that an order of magnitude."
The stakes have never been higher in the Ukraine-Russia war.
In the week that saw the conflict pass its 1000th day, Western powers substantially boosted Ukraine's military arsenal - and the Kremlin made its loudest threats yet of a nuclear strike.
Here is how the last week played out - and what it means.
The West bolsters Ukraine
Late on Sunday night, reports emerged that outgoing US President Joe Biden had given Ukraine permission to use longer-range ATACMS missiles to strike targets inside Russia.
The move marked a major policy change by Washington - which for months had refused Ukraine’s requests to use the missiles beyond its own borders.
After the decision was leaked to the press, a volley of ATACMS missiles were fired by Ukraine into Russia’s Bryansk region.
The Kremlin said six were fired, with five intercepted, while anonymous US officials claimed it was eight, with two intercepted.
Whatever the specifics, this was a landmark moment: American-made missiles had struck Russian soil for the first time in this war.
Then on Wednesday, Ukraine launched UK-supplied Storm Shadow missiles at targets in Russia’s Kursk region - where Ukrainian troops have seized a roughly 600-sq km (232 sq mile) patch of Russian territory.
Later in the week, Biden added the final element of a ramped-up weapons arsenal to Ukraine by approving the use of anti-personnel landmines.
Simple, controversial, but highly-effective, landmines are a crucial part of Ukraine’s defences on the eastern frontline - and it is hoped their use could help slow Russia's advance.
With three swift decisions, over a few seismic days, the West signalled to the world that its support for Ukraine was not about to vanish.Russia raises nuclear stakes
If Ukraine’s western allies raised the stakes this week - so too did Moscow.
On Tuesday, the 1000th day of the war, Putin pushed through changes to Russia's nuclear doctrine, lowering the threshold for the use of nuclear weapons.
The doctrine now says an attack from a non-nuclear state, if backed by a nuclear power, will be treated as a joint assault on Russia.
The Kremlin then took its response a step further by deploying a new type of missile - "Oreshnik" - to strike the Ukrainian city of Dnipro.
Putin claimed it travelled at 10 times the speed of sound - and that there are "no ways of counteracting this weapon".
Most observers agree the strike was designed to send a warning: that Russia could, if it chose, use the new missile to deliver a nuclear weapon.Such posturing would once have caused serious concern in the West. Now, not so much.
Since the start of the conflict nearly three years ago, Putin has repeatedly laid out nuclear "red lines’" which the West has repeatedly crossed. It seems many have become used to Russia’s nuclear “sabre-rattling”.
And why else do Western leaders feel ready to gamble with Russia’s nuclear threats? China.
Beijing has become a vital partner for Moscow in its efforts to soften the impact of sanctions imposed by the US and other countries.
China, the West believes, would react with horror at the use of nuclear weapons - thus discouraging Putin from making true on his threats.
What we know about Russia's Oreshnik missile
A global conflict?
In a rare televised address on Thursday evening, the Russian president warned that the war had "acquired elements of a global character".
That assessment was echoed by Polish Prime Minister Donald Tusk, who said "the threat is serious and real when it comes to global conflict".
The US and UK are now more deeply involved than ever - while the deployment of North Korean troops to fight alongside Russia saw another nuclear power enter the war.
North Korean leader Kim Jong Un said on Thursday that "never before" has the threat of a nuclear war been greater, blaming the US for its "aggressive and hostile" policy towards Pyongyang.Biden out, Trump in
So, why are we seeing these developments now?
The likely reason is the impending arrival of US President-elect Donald Trump, who will officially enter the White House on 20 January.
While on the campaign trail, Trump vowed to end the war within “24 hours”.
Those around him, like Vice President-elect JD Vance, have signalled that will mean compromises for Ukraine, likely in the form of giving up territory in the Donbas and Crimea.
That goes against the apparent stance of the Biden administration - whose decisions this week point to a desire to get as much aid through the door as possible before Trump enters office.
But some are more bullish about Ukraine’s prospects with Trump in power.Ukrainian President Volodymyr Zelensky said himself Kyiv would like to end the war through “diplomatic means” in 2025.
Former Ukrainian foreign minister Dmytro Kuleba told the BBC this week: “President Trump will undoubtedly be driven by one goal, to project his strength, his leadership... And show that he is capable of fixing problems which his predecessor failed to fix.”
“As much as the fall of Afghanistan inflicted a severe wound on the foreign policy reputation of the Biden administration, if the scenario you mentioned is to be entertained by President Trump, Ukraine will become his Afghanistan, with equal consequences."
“And I don’t think this is what he’s looking for.”
This week's developments may not be the start of the war escalating out of control - but the start of a tussle for the strongest negotiating position in potential future talks to end it.
Albert Einstein (born March 14, 1879, Ulm, Württemberg, Germany—died April 18, 1955, Princeton, New Jersey, U.S.) was a German-born physicist who developed the special and general theories of relativity and won the Nobel Prize for Physics in 1921 for his explanation of the photoelectric effect. Einstein is generally considered the most influential physicist of the 20th century.
Childhood and education
Einstein’s parents were secular, middle-class Jews. His father, Hermann Einstein, was originally a featherbed salesman and later ran an electrochemical factory with moderate success. His mother, the former Pauline Koch, ran the family household. He had one sister, Maria (who went by the name Maja), born two years after Albert.
Einstein would write that two “wonders” deeply affected his early years. The first was his encounter with a compass at age five. He was mystified that invisible forces could deflect the needle. This would lead to a lifelong fascination with invisible forces. The second wonder came at age 12 when he discovered a book of geometry, which he devoured, calling it his “sacred little geometry book.
Einstein became deeply religious at age 12, even composing several songs in praise of God and chanting religious songs on the way to school. This began to change, however, after he read science books that contradicted his religious beliefs. This challenge to established authority left a deep and lasting impression. At the Luitpold Gymnasium, Einstein often felt out of place and victimized by a Prussian-style educational system that seemed to stifle originality and creativity. One teacher even told him that he would never amount to anything. another important influence on Einstein was a young medical student, Max Talmud (later Max Talmey), who often had dinner at the Einstein home. Talmud became an informal tutor, introducing Einstein to higher mathematics and philosophy. A pivotal turning point occurred when Einstein was 16 years old. Talmud had earlier introduced him to a children’s science series by Aaron Bernstein, Naturwissenschaftliche Volksbucher (1867–68; Popular Books on Physical Science), in which the author imagined riding alongside electricity that was traveling inside a telegraph wire. Einstein then asked himself the question that would dominate his thinking for the next 10 years: What would a light beam look like if you could run alongside it? If light were a wave, then the light beam should appear stationary, like a frozen wave. Even as a child, though, he knew that stationary light waves had never been seen, so there was a paradox. Einstein also wrote his first “scientific paper” at that time (“The Investigation of the State of Aether in Magnetic Fields”). Einstein’s education was disrupted by his father’s repeated failures at business. In 1894, after his company failed to get an important contract to electrify the city of Munich, Hermann Einstein moved to Milan to work with a relative. Einstein was left at a boardinghouse in Munich and expected to finish his education. Alone, miserable, and repelled by the looming prospect of military duty when he turned 16, Einstein ran away six months later and landed on the doorstep of his surprised parents. His parents realized the enormous problems that he faced as a school dropout and draft dodger with no employable skills. His prospects did not look promising. Fortunately, Einstein could apply directly to the Eidgenössische Polytechnische Schule (“Swiss Federal Polytechnic School”; in 1911, following expansion in 1909 to full university status, it was renamed the Eidgenössische Technische Hochschule, or “Swiss Federal Institute of Technology”) in Zürich without the equivalent of a high school diploma if he passed its stiff entrance examinations. His marks showed that he excelled in mathematics and physics, but he failed at French, chemistry, and biology. Because of his exceptional math scores, he was allowed into the polytechnic on the condition that he first finish his formal schooling. He went to a special high school run by Jost Winteler in Aarau, Switzerland, and graduated in 1896. He also renounced his German citizenship at that time. (He was stateless until 1901, when he was granted Swiss citizenship.) He became lifelong friends with the Winteler family, with whom he had been boarding. (Winteler’s daughter, Marie, was Einstein’s first love; Einstein’s sister, Maja, would eventually marry Winteler’s son Paul; and his close friend Michele Besso would marry their eldest daughter, Anna.) Einstein would recall that his years in Zürich were some of the happiest years of his life. He met many students who would become loyal friends, such as Marcel Grossmann, a mathematician, and Besso, with whom he enjoyed lengthy conversations about space and time. He also met his future wife, Mileva Maric, a fellow physics student from Serbia.
From graduation to the “miracle year” of scientific theories of Albert Einstein
After graduation in 1900, Einstein faced one of the greatest crises in his life. Because he studied advanced subjects on his own, he often cut classes; this earned him the animosity of some professors, especially Heinrich Weber. Unfortunately, Einstein asked Weber for a letter of recommendation. Einstein was subsequently turned down for every academic position that he applied to. He later wrote Meanwhile, Einstein’s relationship with Maric deepened, but his parents vehemently opposed the relationship. His mother especially objected to her Serbian background (Maric’s family was Eastern Orthodox Christian). Einstein defied his parents, however, and in January 1902 he and Maric even had a child, Lieserl, whose fate is unknown. (It is commonly thought that she died of scarlet fever or was given up for adoption.)
In 1902 Einstein reached perhaps the lowest point in his life. He could not marry Maric and support a family without a job, and his father’s business went bankrupt. Desperate and unemployed, Einstein took lowly jobs tutoring children, but he was fired from even these jobs.
The turning point came later that year, when the father of his lifelong friend Marcel Grossmann was able to recommend him for a position as a clerk in the Swiss patent office in Bern. About then, Einstein’s father became seriously ill and, just before he died, gave his blessing for his son to marry Maric. For years, Einstein would experience enormous sadness remembering that his father had died thinking him a failure.
With a small but steady income for the first time, Einstein felt confident enough to marry Maric, which he did on January 6, 1903. Their children, Hans Albert and Eduard, were born in Bern in 1904 and 1910, respectively. In hindsight, Einstein’s job at the patent office was a blessing. He would quickly finish analyzing patent applications, leaving him time to daydream about the vision that had obsessed him since he was 16: What would happen if you raced alongside a light beam? While at the polytechnic school he had studied Maxwell’s equations, which describe the nature of light, and discovered a fact unknown to James Clerk Maxwell himself—namely, that the speed of light remains the same no matter how fast one moves. This violates Newton’s laws of motion, however, because there is no absolute velocity in Isaac Newton’s theory. This insight led Einstein to formulate the principle of relativity: “the speed of light is a constant in any inertial frame (constantly moving frame).” During 1905, often called Einstein’s “miracle year,” he published four papers in the Annalen der Physik, each of which would alter the course of modern physics:
• 1. “Über einen die Erzeugung und Verwandlung des Lichtes betreffenden heuristischen Gesichtspunkt” (“On a Heuristic Viewpoint Concerning the Production and Transformation of Light”), in which Einstein applied the quantum theory to light in order to explain the photoelectric effect. If light occurs in tiny packets (later called photons), then it should knock out electrons in a metal in a precise way.
• 2. “Über die von der molekularkinetischen Theorie der Wärme geforderte Bewegung von in ruhenden Flüssigkeiten suspendierten Teilchen” (“On the Movement of Small Particles Suspended in Stationary Liquids Required by the Molecular-Kinetic Theory of Heat”), in which Einstein offered the first experimental proof of the existence of atoms. By analyzing the motion of tiny particles suspended in still water, called Brownian motion, he could calculate the size of the jostling atoms and Avogadro’s number (see Avogadro’s law).
• 3. “Zur Elektrodynamik bewegter Körper” (“On the Electrodynamics of Moving Bodies”), in which Einstein laid out the mathematical theory of special relativity.
• 4. “Ist die Trägheit eines Körpers von seinem Energieinhalt abhängig?” (“Does the Inertia of a Body Depend Upon Its Energy Content?”), submitted almost as an afterthought, which showed that relativity theory led to the equation E = mc2. This provided the first mechanism to explain the energy source of the Sun and other stars.
Einstein also submitted a paper in 1905 for his doctorate.
Other scientists, especially Henri Poincaré and Hendrik Lorentz, had pieces of the theory of special relativity, but Einstein was the first to assemble the whole theory together and to realize that it was a universal law of nature, not a curious figment of motion in the ether, as Poincaré and Lorentz had thought. (In one private letter to Mileva, Einstein referred to “our theory,” which has led some to speculate that she was a cofounder of relativity theory. However, Mileva had abandoned physics after twice failing her graduate exams, and there is no record of her involvement in developing relativity. In fact, in his 1905 paper, Einstein only credits his conversations with Besso in developing relativity.)
In the 19th century there were two pillars of physics: Newton’s laws of motion and Maxwell’s theory of light. Einstein was alone in realizing that they were in contradiction and that one of them must fall.
At first Einstein’s 1905 papers were ignored by the physics community. This began to change after he received the attention of just one physicist, perhaps the most influential physicist of his generation, Max Planck, the founder of the quantum theory. Soon, owing to Planck’s laudatory comments and to experiments that gradually confirmed his theories, Einstein was invited to lecture at international meetings, such as the Solvay Conferences, and he rose rapidly in the academic world. He was offered a series of positions at increasingly prestigious institutions, including the University of Zürich, the University of Prague, the Swiss Federal Institute of Technology, and finally the University of Berlin, where he served as director of the Kaiser Wilhelm Institute for Physics from 1913 to 1933 (although the opening of the institute was delayed until 1917).
Even as his fame spread, Einstein’s marriage was falling apart. He was constantly on the road, speaking at international conferences, and lost in contemplation of relativity. The couple argued frequently about their children and their meager finances. Convinced that his marriage was doomed, Einstein began an affair with a cousin, Elsa Löwenthal, whom he later married. (Elsa was a first cousin on his mother’s side and a second cousin on his father’s side.) When he finally divorced Mileva in 1919, he agreed to give her the money he might receive if he ever won a Nobel Prize.
One of the deep thoughts that consumed Einstein from 1905 to 1915 was a crucial flaw in his own theory: it made no mention of gravitation or acceleration. His friend Paul Ehrenfest had noticed a curious fact. If a disk is spinning, its rim travels faster than its centre, and hence (by special relativity) metre sticks placed on its circumference should shrink. This meant that Euclidean plane geometry must fail for the disk. For the next 10 years, Einstein would be absorbed with formulating a theory of gravity in terms of the curvature of space-time. To Einstein, Newton’s gravitational force was actually a by-product of a deeper reality: the bending of the fabric of space and time.
In November 1915 Einstein finally completed the general theory of relativity, which he considered to be his masterpiece. In the summer of 1915, Einstein had given six two-hour lectures at the University of Göttingen that thoroughly explained an incomplete version of general relativity that lacked a few necessary mathematical details. Much to Einstein’s consternation, the mathematician David Hilbert, who had organized the lectures at his university and had been corresponding with Einstein, then completed these details and submitted a paper in November on general relativity just five days before Einstein, as if the theory were his own. Later they patched up their differences and remained friends. Einstein would write to Hilbert,
Today physicists refer to the action from which the equations are derived as the Einstein-Hilbert action, but the theory itself is attributed solely to Einstein.
Einstein was convinced that general relativity was correct because of its mathematical beauty and because it accurately predicted the precession of the perihelion of Mercury’s orbit around the Sun (see Mercury: Mercury in tests of relativity). His theory also predicted a measurable deflection of light around the Sun. As a consequence, he even offered to help fund an expedition to measure the deflection of starlight during an eclipse of the Sun.
World renown and Nobel Prize
Einstein’s work was interrupted by World War I. A lifelong pacifist, he was only one of four intellectuals in Germany to sign a manifesto opposing Germany’s entry into war. Disgusted, he called nationalism “the measles of mankind.” He would write, “At such a time as this, one realizes what a sorry species of animal one belongs to.”
In the chaos unleashed after the war, in November 1918, radical students seized control of the University of Berlin and held the rector of the college and several professors hostage. Many feared that calling in the police to release the officials would result in a tragic confrontation. Einstein, because he was respected by both students and faculty, was the logical candidate to mediate this crisis. Together with Max Born, Einstein brokered a compromise that resolved it.
After the war, two expeditions were sent to test Einstein’s prediction of deflected starlight near the Sun. One set sail for the island of Principe, off the coast of West Africa, and the other to Sobral in northern Brazil in order to observe the solar eclipse of May 29, 1919. On November 6 the results were announced in London at a joint meeting of the Royal Society and the Royal Astronomical Society.
The headline of The Times of London read, “Revolution in Science—New Theory of the Universe—Newton’s Ideas Overthrown—Momentous Pronouncement—Space ‘Warped.’” Almost immediately, Einstein became a world-renowned physicist, the successor to Isaac Newton. Einstein also launched the new science of cosmology. His equations predicted that the universe is dynamic—expanding or contracting. This contradicted the prevailing view that the universe was static, so he reluctantly introduced a “cosmological term” to stabilize his model of the universe. In 1929 astronomer Edwin Hubble found that the universe was indeed expanding, thereby confirming Einstein’s earlier work. In 1930, in a visit to the Mount Wilson Observatory near Los Angeles, Einstein met with Hubble and declared the cosmological constant to be his “greatest blunder.” Recent satellite data, however, have shown that the cosmological constant is probably not zero but actually dominates the matter-energy content of the entire universe. Einstein’s “blunder” apparently determines the ultimate fate of the universe.
During that same visit to California, Einstein was asked to appear alongside the comic actor Charlie Chaplin during the Hollywood debut of the film City Lights. When they were mobbed by thousands, Chaplin remarked, “The people applaud me because everybody understands me, and they applaud you because no one understands you.” Einstein asked Chaplin, “What does it all mean?” Chaplin replied, “Nothing.”
Invitations came pouring in for him to speak around the world. In 1921 Einstein began the first of several world tours, visiting the United States, England, Japan, and France. Everywhere he went, the crowds numbered in the thousands. En route from Japan, he received word that he had received the Nobel Prize for Physics, but for the photoelectric effect rather than for his relativity theories. During his acceptance speech, Einstein startled the audience by speaking about relativity instead of the photoelectric effect. Einstein also began correspondences with other influential thinkers during this period. He corresponded with Sigmund Freud (both of them had sons with mental problems) on whether war was intrinsic to humanity. He discussed with the Indian mystic Rabindranath Tagore the question of whether consciousness can affect existence. One journalist remarked,
It was interesting to see them together—Tagore, the poet with the head of a thinker, and Einstein, the thinker with the head of a poet. It seemed to an observer as though two planets were engaged in a chat.
Einstein also clarified his religious views, stating that he believed there was an “old one” who was the ultimate lawgiver. He wrote that he did not believe in a personal God that intervened in human affairs but instead believed in the God of the 17th-century Dutch Jewish philosopher Benedict de Spinoza—the God of harmony and beauty. His task, he believed, was to formulate a master theory that would allow him to “read the mind of God.” He would write,
Nazi backlash and coming to America
Inevitably, Einstein’s fame and the great success of his theories created a backlash. The rising Nazi movement found a convenient target in relativity, branding it “Jewish physics” and sponsoring conferences and book burnings to denounce Einstein and his theories. The Nazis enlisted other physicists, including Nobel laureates Philipp Lenard and Johannes Stark, to denounce Einstein. One Hundred Authors Against Einstein was published in 1931. When asked to comment on this denunciation of relativity by so many scientists, Einstein replied that to defeat relativity one did not need the word of 100 scientists, just one fact.
In December 1932 Einstein decided to leave Germany forever (he would never go back). It became obvious to Einstein that his life was in danger. A Nazi organization published a magazine with Einstein’s picture and the caption “Not Yet Hanged” on the cover. There was even a price on his head. So great was the threat that Einstein split with his pacifist friends and said that it was justified to defend yourself with arms against Nazi aggression. To Einstein, pacifism was not an absolute concept but one that had to be re-examined depending on the magnitude of the threat.
Einstein settled at the newly formed Institute for Advanced Study at Princeton, New Jersey, which soon became a mecca for physicists from around the world. Newspaper articles declared that the “pope of physics” had left Germany and that Princeton had become the new Vatican.
The 1930s were hard years for Einstein. His son Eduard was diagnosed with schizophrenia and suffered a mental breakdown in 1930. (Eduard would be institutionalized for the rest of his life.) Einstein’s close friend, physicist Paul Ehrenfest, who helped in the development of general relativity, committed suicide in 1933. And Einstein’s beloved wife, Elsa, died in 1936.
The true story of Oppenheimer and the atomic bombJ. Robert Oppenheimer became involved in nuclear research in 1941. His biopic, Oppenheimer, was released in 2023.(more)
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To his horror, during the late 1930s, physicists began seriously to consider whether his equation E = mc2 might make an atomic bomb possible. In 1920 Einstein himself had considered but eventually dismissed the possibility. However, he left it open if a method could be found to magnify the power of the atom. Then in 1938–39 Otto Hahn, Fritz Strassmann, Lise Meitner, and Otto Frisch showed that vast amounts of energy could be unleashed by the splitting of the uranium atom. The news electrified the physics community.
In July 1939 physicist Leo Szilard convinced Einstein that he should send a letter to U.S. President Franklin D. Roosevelt urging him to develop an atomic bomb. With Einstein’s guidance, Szilard drafted a letter on August 2 that Einstein signed, and the document was delivered to Roosevelt by one of his economic advisers, Alexander Sachs, on October 11. Roosevelt wrote back on October 19, informing Einstein that he had organized the Uranium Committee to study the issue. Einstein was granted permanent residency in the United States in 1935 and became an American citizen in 1940, although he chose to retain his Swiss citizenship. During the war Einstein’s colleagues were asked to journey to the desert town of Los Alamos, New Mexico, to develop the first atomic bomb for the Manhattan Project. Einstein, the man whose equation had set the whole effort into motion, was never asked to participate. Voluminous declassified Federal Bureau of Investigation (FBI) files, numbering several thousand, reveal the reason: the U.S. government feared Einstein’s lifelong association with peace and socialist organizations. (FBI director J. Edgar Hoover went so far as to recommend that Einstein be kept out of America by the Alien Exclusion Act, but he was overruled by the U.S. State Department.) Instead, during the war Einstein was asked to help the U.S. Navy evaluate designs for future weapons systems. Einstein also helped the war effort by auctioning off priceless personal manuscripts. In particular, a handwritten copy of his 1905 paper on special relativity was sold for $6.5 million. It is now located in the Library of Congress
Einstein was on vacation when he heard the news that an atomic bomb had been dropped on Japan. Almost immediately he was part of an international effort to try to bring the atomic bomb under control, forming the Emergency Committee of Atomic Scientists. The physics community split on the question of whether to build a hydrogen bomb. J. Robert Oppenheimer, the director of the atomic bomb project, was stripped of his security clearance for having suspected leftist associations. Einstein backed Oppenheimer and opposed the development of the hydrogen bomb, instead calling for international controls on the spread of nuclear technology. Einstein also was increasingly drawn to antiwar activities and to advancing the civil rights of African Americans.
In some sense, Einstein, instead of being a relic, may have been too far ahead of his time. The strong force, a major piece of any unified field theory, was still a total mystery in Einstein’s lifetime. Only in the 1970s and ’80s did physicists begin to unravel the secret of the strong force with the quark model. Nevertheless, Einstein’s work continues to win Nobel Prizes for succeeding physicists. In 1993 a Nobel Prize was awarded to the discoverers of gravitation waves, predicted by Einstein. In 1995 a Nobel Prize was awarded to the discoverers of Bose-Einstein condensates (a new form of matter that can occur at extremely low temperatures). Known black holes now number in the thousands. New generations of space satellites have continued to verify the cosmology of Einstein. And many leading physicists are trying to finish Einstein’s ultimate dream of a “theory of everything.”
SOURCE : https://www.britannica.com/biography/Albert-Einstein/Nazi-backlash-and-coming-to-America
US President-elect Donald Trump has nominated veteran prosecutor Pam Bondi as his new pick for attorney general, hours after Matt Gaetz withdrew his name from consideration.
Bondi has a long track record in law enforcement and previously served as Florida's attorney general.
The 59-year-old is a long-time Trump ally who defended him during his first Senate impeachment trial.
Losing his first choice, Gaetz, to run the Justice Department is a setback for Trump but his new pick should have a less bumpy ride from senators who must approve the appointment."Pam was a prosecutor for nearly 20 years, where she was very tough on Violent Criminals, and made the streets safe for Florida Families," Trump said in a social media post announcing his choice.
Bondi has been close to Trump since his 2016 campaign, telling voters at a recent Trump rally that she considers him a "friend".
In 2019, she joined his White House to focus on "proactive impeachment messaging", serving both as his legal advisor and defence attorney during his first impeachment - during which he was acquitted.
She continued to be part of Trump's legal team in 2020 as it made false claims that the election had been stolen from Trump due to voter fraud.
She also served on Trump's Opioid and Drug Abuse Commission, and more recently, has headed the legal arm of the America First Policy Institute, a conservative think tank founded by former Trump staff members.
The rise and fall of Matt Gaetz in eight wild days
If confirmed by the Senate, Bondi will become the country's chief law enforcement officer, in charge of the justice department's more than 115,000 employees and roughly $45bn (£35.7bn) budget.
She would also play a key role in attempting to implement Trump's vow to punish his political enemies once he takes office.
She has been a vocal critic of the criminal cases brought against Trump, as well as special counsel Jack Smith, who charged Trump in two federal cases.
“For too long, the partisan Department of Justice has been weaponized against me and other Republicans - Not anymore,” Trump wrote on Thursday evening.
"Pam will refocus the DOJ [Department of Justice] to its intended purpose of fighting Crime, and Making America Safe Again."
Trump's other plans for the department include ending "weaponised government", protecting US borders, dismantling criminal organisations and restoring Americans' "badly-shattered faith and confidence" in the department.Trump's transition team will be hoping that Bondi's nomination path will be less tumultuous than Gaetz's.
Reacting to the announcement, Republican Senator Lindsey Graham predicted that Bondi “will be confirmed quickly,” calling her selection a “grand slam, touchdown, hole in one, ace, hat trick, slam dunk, Olympic gold medal pick”.
The news of Bondi's nomination came about six hours after Gaetz said he would not seek the high-profile cabinet post, following days of debate over whether to release a congressional report on sexual misconduct allegations against him.
Announcing his withdrawal, the 41-year-old said the controversy over his potential nomination "was unfairly becoming a distraction" to the work of the incoming Trump administration.The report included the findings of a probe sparked by allegations of sexual misconduct and illicit drug use. Gaetz has vehemently denied the claims but said that he hoped to avoid a "needlessly protracted Washington scuffle" by withdrawing.
Later on Thursday, Gaetz offered his congratulations to Bondi, calling her "a stellar selection by President Trump".
It is unclear if Gaetz, who resigned his House seat soon after Trump tapped him for attorney general, will now try to retain his seat.
Since his resounding election win earlier this month, Trump has named several close allies to fill high-ranking positions in his administration.